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The <strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência (IGC)<br />
is an international biomedical research<br />
and graduate training Institute,<br />
foun<strong>de</strong>d and supported by <strong>the</strong><br />
Calouste <strong>Gulbenkian</strong> Foundation,<br />
in Portugal.<br />
This Annual Report covers <strong>the</strong> <strong>Instituto</strong><br />
<strong>Gulbenkian</strong> <strong>de</strong> Ciência’s financial year,<br />
from 1st January<br />
to 31st December 2011.
CONTENTS<br />
05<br />
06<br />
12<br />
16<br />
ORGANISATION<br />
THE DIRECTOR'S INTRODUCTION<br />
THE IGC AT A GLANCE<br />
RESEARCH GROUPS<br />
17<br />
18<br />
19<br />
21<br />
23<br />
26<br />
28<br />
30<br />
31<br />
33<br />
34<br />
36<br />
37<br />
38<br />
40<br />
42<br />
43<br />
45<br />
46<br />
47<br />
49<br />
51<br />
52<br />
53<br />
54<br />
55<br />
57<br />
58<br />
59<br />
60<br />
62<br />
64<br />
65<br />
66<br />
67<br />
Protein-Nucleic Acids Interactions − ALEKOS ATHANASIADIS<br />
Plant Stress Signalling - ELENA BAENA GONZÁLEZ<br />
Meiosis and Development − VÍTOR BARBOSA<br />
Epigenetics and Soma - VASCO BARRETO<br />
Variation: Development and Selection - PATRÍCIA BELDADE<br />
Cell Cycle Regulation - MÓNICA BETTENCOURT DIAS<br />
Quantitative Organism Biology - JORGE CARNEIRO<br />
Molecular Neurobiology - DIOGO CASTRO<br />
Population and Conservation Genetics - LOUNÈS CHIKHI<br />
Neurobiology of Action - RUI COSTA<br />
Lymphocyte Physiology - JOCELYNE DEMENGEOT<br />
Plant Molecular Biology - PAULA DUQUE<br />
Cell Biophysics and Development - JOSÉ FEIJÓ<br />
Telomeres and Genome Stability - MIGUEL GODINHO FERREIRA<br />
Collective Dynamics - GABRIELA GOMES<br />
Evolutionary Biology - ISABEL GORDO<br />
Actin Dynamics - FLORENCE JANODY<br />
Epigenetic Mechanisms - LARS JANSEN<br />
Organogenesis - JOAQUÍN RODRÍGUEZ LÉON<br />
Systems Neuroscience - ZACHARY MAINEN<br />
Patterning and Morphogenesis - MOISES MALLO<br />
Early Fly Development - RUI GONÇALO MARTINHO<br />
Development, Evolution and <strong>the</strong> Environment - CHRISTEN MIRTH<br />
Behavioural Neuroscience - MARTA MOITA<br />
Infection and Immunity - MICHAEL PARKHOUSE<br />
Disease Genetics - CARLOS PENHA-GONÇALVES<br />
Computational Genomics - JOSÉ PEREIRA LEAL<br />
Behaviour and Metabolism - CARLOS RIBEIRO<br />
Complex Adaptive Systems and Computational Biology - LUÍS ROCHA<br />
Inflammation - MIGUEL SOARES<br />
Evolution and Development - ÉLIO SUCENA<br />
Host-microorganism Interactions - LUÍS TEIXEIRA<br />
Evolutionary Genetics - HENRIQUE TEOTÓNIO<br />
Innate Behaviour - MARIA LUÍSA VASCONCELOS<br />
Bacterial Signalling - KARINA XAVIER<br />
104<br />
107<br />
120<br />
122<br />
123<br />
135<br />
136<br />
165<br />
171<br />
172<br />
102<br />
103<br />
124<br />
126<br />
127<br />
131<br />
133<br />
166<br />
169<br />
Library<br />
Equipment Purchasing and Maintenance<br />
Administration and Accounts<br />
Ethics Committee<br />
RESEARCH STRUCTURES<br />
PUBLICATIONS<br />
PRIZES AND HONOURS<br />
BUDGET OVERVIEW<br />
GRADUATE TRAINING AND EDUCATION<br />
PhD Programme in Integrative Biomedical Sciences (PIBS)<br />
PhD Programme in Computational Biology (PDBC)<br />
<strong>Gulbenkian</strong>/Champalimaud International Neuroscience<br />
Doctoral Programme (INDP)<br />
Programme for Advanced Medical Research<br />
- Doctoral Programme for Physicians<br />
GTPB - The <strong>Gulbenkian</strong> Training Programme in Bioinformatics<br />
THESES<br />
SEMINARS, WORKSHOPS AND MEETINGS<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Science Communication and Outreach<br />
Fundraising<br />
PARTNERS AND SPONSORS<br />
ACKNOWLEDGEMENTS<br />
68<br />
82<br />
84<br />
69<br />
71<br />
73<br />
74<br />
75<br />
77<br />
78<br />
79<br />
81<br />
85<br />
87<br />
88<br />
89<br />
91<br />
92<br />
94<br />
95<br />
97<br />
99<br />
100<br />
101<br />
RESEARCH FELLOWS<br />
Biophysics and Genetics of Morphogenesis - FILIPA ALVES<br />
Plant Genomics - JÖRG BECKER<br />
Network Mo<strong>de</strong>lling - CLAUDINE CHAOUYIA<br />
Lupus and Autoreactive Immune Repertoire - CONSTANTIN FESEL<br />
Neuronal Structure and Function - INBAL ISRAELY<br />
Neuroethology Laboratory - SUSANA LIMA<br />
Antigen Presentation and T cell Activation - ELISABETTA PADOVAN<br />
Learning Laboratory - JOSEPH PATON<br />
Immune Regulation - CARLOS TADOKORO<br />
EXTERNAL ASSOCIATED RESEARCH GROUPS<br />
FACILITIES AND SERVICES<br />
Animal Facilities<br />
Transgenics Facility<br />
Plant Facility<br />
Cell Imaging Unit<br />
Genomics Unit<br />
Gene Expression Unit<br />
Histology Unit<br />
Ion Dynamics Facility<br />
Bioinformatics and Computational Biology Unit<br />
Portuguese Bioinformatics Centre<br />
Research Funding Affairs<br />
Innovation and Technology Office<br />
Informatics
ORGANISATION<br />
CALOUSTE GULBENKIAN FOUNDATION<br />
The Calouste <strong>Gulbenkian</strong> Foundation is a Portuguese private institution of general<br />
public utility created by <strong>the</strong> will of Calouste Sarkis <strong>Gulbenkian</strong>, who established its<br />
initial capital, and <strong>de</strong>fined its statutory goals: "charity, art, education and science".<br />
The Foundation’s statutes were set up in 1956.<br />
The Foundation actively pursues its statutory aims in Portugal and abroad,<br />
through a wi<strong>de</strong> range of direct activities and grants supporting projects and<br />
programmes. The Foundation has an orchestra and a choir, organises solo and<br />
collective exhibitions in its museums and exhibition spaces. It also organises<br />
international conferences, meetings and workshops, awards scholarships and<br />
subsidies for specialist studies in Portugal and abroad, and supports programmes<br />
of scientific, artistic and social natures.<br />
BOARD OF TRUSTEES<br />
EMÍLIO RUI VILAR<br />
Chairman<br />
MIKHAEL ESSAYAN<br />
Honoraray Chairman<br />
DIOGO DE LUCENA<br />
Trustee<br />
EDUARDO MARÇAL GRILO<br />
Trustee<br />
ISABEL MOTA<br />
Trustee<br />
MARTIN ESSAYAN<br />
Trustee<br />
TERESA GOUVEIA<br />
Trustee<br />
ANDRÉ GONÇALVES PEREIRA<br />
Non-executive Trustee<br />
ARTUR SANTOS SILVA<br />
Non-executive Trustee<br />
EDUARDO LOURENÇO<br />
Non-executive Trustee<br />
INSTITUTO GULBENKIAN DE CIÊNCIA<br />
SCIENTIFIC ADVISORY BOARD<br />
The Scientific Advisory Board of <strong>the</strong> IGC oversees <strong>the</strong> scientific progress, graduate<br />
programmes, recruitment and overall performance of staff and research groups.<br />
The Scientific Advisory Board also advises <strong>the</strong> Board of <strong>the</strong> Calouste <strong>Gulbenkian</strong><br />
Foundation on all matters of relevance to <strong>the</strong> mission of <strong>the</strong> Institute.<br />
SYDNEY BRENNER (The Salk Institute, USA)<br />
Chairman<br />
JONATHAN HOWARD (University of Cologne, Germany)<br />
MARTIN RAFF (University College London, UK)<br />
GINÉS MORATA (Universidad Autónoma <strong>de</strong> Madrid, Spain)<br />
NICOLE LE DOUARIN (Aca<strong>de</strong>mie <strong>de</strong>s Sciences, France)<br />
DAVID SABATINI (New York University, USA)<br />
KAI SIMONS (Max Planck Institute for Molecular Cell Biology and Genetics,<br />
Dres<strong>de</strong>n, Germany)<br />
SUSUMU TONEGAWA (Massachusetts Institute of Technology, USA)<br />
RICHARD AXEL (Columbia University, USA)<br />
JEAN−PIERRE CHANGEUX (Pasteur Institute, France)<br />
TERRENCE SEJNOWSKY (The Salk Institute, USA)<br />
IGC DIRECTOR<br />
ANTÓNIO COUTINHO<br />
IGC DEPUTY DIRECTOR<br />
JOSÉ MÁRIO LEITE<br />
DEPUTY TO THE DIRECTOR<br />
JOCELYNE DEMENGEOT
THE DIRECTOR'S<br />
INTRODUCTION<br />
“While unanimously recognised as <strong>the</strong> epic poet in Portuguese literature, Luis<br />
<strong>de</strong> Camões wrote many a love poem that most of us, locals, learned by heart<br />
when coming of age. In a beautiful sonnet, Camões explains why Jacob submitted<br />
to serve Rachel’s fa<strong>the</strong>r for a whole seven years: he wanted Rachel as a<br />
reward and, for that highest goal, was ready to serve for yet ano<strong>the</strong>r 7 years.<br />
Interestingly, Camões gives no hint as to Jacob’s performance, as if his full <strong>de</strong>dication<br />
sufficed to qualify him as <strong>de</strong>serving. Writing <strong>the</strong> 7th annual report of <strong>the</strong><br />
<strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência, I feel I must invoke <strong>the</strong> same benevolence in<br />
judgment, for full <strong>de</strong>dication <strong>the</strong>re was in attempting to establish material and<br />
intellectual conditions for <strong>the</strong> practice of good Science, to streng<strong>the</strong>n biomedical<br />
research and education in Portuguese institutions, to bring scientific values<br />
to <strong>the</strong> daily concerns of citizens and politicians. These were <strong>the</strong> missions that<br />
<strong>the</strong> Board of Administration of <strong>the</strong> Calouste <strong>Gulbenkian</strong> Foundation chose for<br />
this period of IGC’s life, and, looking back, I must say that <strong>the</strong> Institute has<br />
walked some ground in <strong>the</strong>se seven years. And I must add that, in my metaphor<br />
of Camões’ sonnet, Jacob was not one but many, all of us shepherds and apprentices<br />
dreaming of our Rachel, ready to offer <strong>the</strong> best we have, in generosity<br />
and commitment, let alone our thoughts and minds.”<br />
This was <strong>the</strong> first paragraph in <strong>the</strong> text I wrote for <strong>the</strong> IGC’s 2005 Annual Report.<br />
Some of my colleagues and I have now served Laban for yet ano<strong>the</strong>r seven<br />
years, “never serving him but her”, as <strong>the</strong> poet says. Our Rachel is none o<strong>the</strong>r<br />
than Science itself. Laban has been a good master to serve, however: what an<br />
exceptional venture to be associated with this en<strong>de</strong>avour of reconstructing<br />
<strong>the</strong> IGC, with <strong>the</strong> help of a Scientific Advisory Board that is exceptional in all<br />
respects, and with <strong>the</strong> support, un<strong>de</strong>rstanding and trust of <strong>the</strong> Foundations’<br />
Board of Administration. The Institute flourished and accumulated honours and<br />
distinctions, excellent applications from stu<strong>de</strong>nts and scientists, grants, papers<br />
and citations. All this, I am certain, just because <strong>the</strong> IGC managed to attract outstanding<br />
people of all sorts, who ma<strong>de</strong> <strong>the</strong> Institute <strong>the</strong>ir home and, toge<strong>the</strong>r,<br />
IGC ANNUAL REPORT ‘11<br />
THE DIRECTOR'S INTRODUCTION<br />
6
established a unique and diverse human and intellectual environment. Above<br />
all, <strong>the</strong> IGC continued to be a joyful place where we all feel well and wish to<br />
be, where diversity, freedom and mutual respect, often friendship but always<br />
warmth, generate intellectual challenge; where <strong>the</strong> complementarity of interests<br />
fosters cooperation to reach higher and more interesting forms of doing<br />
science toge<strong>the</strong>r. My younger colleagues will continue for fur<strong>the</strong>r seven year<br />
periods; sadly for me, but perhaps gladly for <strong>the</strong> IGC, I shall now serve Rachel<br />
with o<strong>the</strong>r Labans. The IGC must reach a yet higher level of excellence and international<br />
reputation, and such new missions require a new operational mo<strong>de</strong>l,<br />
renewed adaptation to <strong>the</strong> national and international scientific context, novel<br />
i<strong>de</strong>as and better practices, in short, a fresh start and a better person to lead <strong>the</strong><br />
process of a new reconstruction.<br />
The Board of Administration of <strong>the</strong> Calouste <strong>Gulbenkian</strong> Foundation established<br />
<strong>the</strong> IGC 50 years ago as an instrument to pursue one of <strong>the</strong> Foundation’s four<br />
statutory goals: Science. If o<strong>the</strong>r Foundations and private <strong>organisation</strong>s have<br />
started and maintained research institutes, few have shown an equivalent wisdom:<br />
<strong>the</strong> Foundations’ Board <strong>de</strong>ci<strong>de</strong>d to restructure <strong>the</strong> IGC at an approximate<br />
rate of once every 15 years. This is an excellent management principle, particularly<br />
for a Science Institute: ra<strong>the</strong>r than “keeping going” and getting old,<br />
perhaps bored, with missions that were once relevant, in an operational mo<strong>de</strong>l<br />
that was once appropriate, <strong>the</strong> IGC has been reformed several times, and several<br />
times was it reborn from <strong>the</strong> ashes of <strong>the</strong> previous structure. Every time,<br />
<strong>the</strong> expectation is that <strong>the</strong> Phoenix will rise again, bright gold and scarlet in<br />
colours as <strong>the</strong> one before. Yet, if <strong>the</strong> Phoenix is <strong>the</strong> ultimate example of trust<br />
in <strong>the</strong> future, <strong>the</strong>re is always a risk that it will not resurrect. All <strong>the</strong> greater <strong>the</strong><br />
joy when it does: <strong>the</strong> cry of <strong>the</strong> Phoenix is said to be a most beautiful song.<br />
Being <strong>the</strong> heralds of innovation in society, however, private foundations must<br />
not fear to take risks. Time has come for yet ano<strong>the</strong>r such ritual, but this time<br />
of a very special kind. The Board of Administration of <strong>the</strong> Calouste <strong>Gulbenkian</strong><br />
Foundation has <strong>de</strong>ci<strong>de</strong>d to attribute to <strong>the</strong> IGC a novel statute of autonomy. In<br />
<strong>the</strong> words of its Chairman, Emílio Rui Vilar, at <strong>the</strong> celebration of <strong>the</strong> anniversary<br />
in 2011, <strong>the</strong> scientific mo<strong>de</strong>l and <strong>the</strong> mission that were committed to <strong>the</strong> IGC in<br />
1998 en<strong>de</strong>d <strong>the</strong>ir cycle, such that it is time to <strong>de</strong>fine a new scientific mo<strong>de</strong>l and<br />
<strong>de</strong>lineate a novel, perhaps more focused mission. Autonomy will allow for “more<br />
flexibility and better adaptation of <strong>the</strong> management to a research institute, and<br />
it will reinforce <strong>the</strong> possibility of establishing partnerships with similar institutions”,<br />
not forgetting “exploring patents and launching start-ups, in a logic of<br />
downstream <strong>de</strong>velopment of <strong>the</strong> scientific work.” Risky at it may be, this is a<br />
very exciting time, and we are all profoundly in<strong>de</strong>bted to <strong>the</strong> Foundation for<br />
<strong>the</strong> <strong>de</strong>cision, and for <strong>the</strong> trust in all of us at <strong>the</strong> Institute that such a <strong>de</strong>cision<br />
implies. With <strong>the</strong> continuing, even reinforced support of <strong>the</strong> Foundation, <strong>the</strong> IGC<br />
will live on, taking on and certainly fulfilling novel missions... for <strong>the</strong> coming 15<br />
years or so. Would <strong>the</strong> Institute produce excellent science, would it be competitive<br />
to attract <strong>the</strong> right people, investigators, technicians, stu<strong>de</strong>nts and support<br />
personnel, would it be able to bring in <strong>the</strong> necessary external funding, <strong>the</strong>n it<br />
will surely live on, “bright gold and scarlet in colours” for <strong>the</strong> good of Science, of<br />
this country and of <strong>the</strong> Foundation’s prestige. I have little doubt that <strong>the</strong> “new<br />
IGC” will be a tremendous success.<br />
The Institute flourished and accumulated<br />
honours and distinctions, excellent applications<br />
from stu<strong>de</strong>nts and scientists, grants,<br />
papers and citations. All this, I am certain,<br />
just because <strong>the</strong> IGC managed to attract<br />
outstanding people of all sorts, who ma<strong>de</strong><br />
<strong>the</strong> Institute <strong>the</strong>ir home and, toge<strong>the</strong>r, established<br />
a unique and diverse human and<br />
intellectual environment.<br />
The Board of Administration of <strong>the</strong> Calouste<br />
<strong>Gulbenkian</strong> Foundation has <strong>de</strong>ci<strong>de</strong>d to attribute<br />
to <strong>the</strong> IGC a novel statute of autonomy.<br />
In <strong>the</strong> words of its Chairman, Emílio Rui<br />
Vilar, at <strong>the</strong> celebration of <strong>the</strong> anniversary<br />
in 2011, <strong>the</strong> scientific mo<strong>de</strong>l and <strong>the</strong> mission<br />
that were committed to <strong>the</strong> IGC in 1998 en<strong>de</strong>d<br />
<strong>the</strong>ir cycle, such that it is time to <strong>de</strong>fine a<br />
new scientific mo<strong>de</strong>l and <strong>de</strong>lineate a novel,<br />
perhaps more focused mission.<br />
The “original habitat” of <strong>the</strong> Phoenix is said to be somewhere between India<br />
(where Garuda was born) and <strong>the</strong> Fertile Crescent, where agriculture and cities<br />
were once invented; perhaps in Phoenicia, where Cadmus imagined <strong>the</strong> alphabet<br />
that he later spread while looking for Europa. Rachels, Europas and Phoenixes,<br />
alphabets, kidnappings and rebirths, always this constant wish to explain <strong>the</strong><br />
world and ourselves, to un<strong>de</strong>rstand, to bring to all o<strong>the</strong>rs <strong>the</strong> unique liberation<br />
that is knowledge; always this constant drive to create and invent, to <strong>de</strong>rive<br />
new forms of living toge<strong>the</strong>r. Edward O. Wilson’s last book has raised much<br />
controversy amongst colleagues. Yet, few would argue against <strong>the</strong> notion that<br />
fitness increases affor<strong>de</strong>d by “societies” (groups of individuals) result in <strong>the</strong><br />
unique expansion of <strong>the</strong> (few) species that show this type of supra-individual<br />
<strong>organisation</strong>, such that <strong>the</strong>se have taken over <strong>the</strong> Earth. Wilson concentrates on<br />
<strong>the</strong> eusocial insects and humans, suggesting that such a “major” evolutionary<br />
transition is quite recent. Cooperation, mutualism, eusociality, altruism, common<br />
goods, “tragedy of <strong>the</strong> commons”, “cheaters”, policing mechanisms, and<br />
many o<strong>the</strong>r terms and notions are loa<strong>de</strong>d with anthropocentric ways of looking<br />
at <strong>the</strong> world. These were essentially all taken from economic <strong>the</strong>ory, concerned<br />
with analysing <strong>the</strong> ways by which humans, but not o<strong>the</strong>r organisms, tra<strong>de</strong> goods;<br />
IGC ANNUAL REPORT ‘11<br />
THE DIRECTOR'S INTRODUCTION<br />
7
<strong>the</strong> relationship of <strong>the</strong>se with <strong>the</strong> reproductive success of individuals, however,<br />
is unclear to say <strong>the</strong> least, such that <strong>the</strong>re is little biology at <strong>the</strong> origin of those<br />
terms and notions. Thus, we very well know that “cooperation” is <strong>the</strong> essence<br />
of life from its very inception, chemical cooperation in this case. Many examples<br />
of collective “behaviour” are already available in bacteria, some of which<br />
can be seen as “cooperative”, for <strong>the</strong>y configure conditions in which individuals<br />
differentially provi<strong>de</strong> for a range of common goods that are “exchanged” for<br />
mutual benefit. If “purposeless” genetic variability in populations of unicellular<br />
organisms is <strong>the</strong> solution for <strong>the</strong> unknown future, it also generates standing<br />
genetic variation in <strong>the</strong> populations, that is, it creates <strong>the</strong> “differentiation” of<br />
individuals, however rare <strong>the</strong> variants may be. As one of my bright young colleagues<br />
puts it, if purposeless diversity is <strong>the</strong> solution for <strong>the</strong> unknown future,<br />
<strong>the</strong> differentiation of individuals is <strong>the</strong> rule of nature. Large populations may<br />
accumulate many such “differentiated” mutants, all <strong>the</strong> more so as beneficial<br />
mutations are far more frequent than anticipated, in bacteria, yeast, worms and<br />
flies, at least. Hence, even rare variants may reach consi<strong>de</strong>rable representation<br />
in <strong>the</strong> population. Should one of <strong>the</strong>se produce a “common good”, <strong>the</strong> whole<br />
population profits, changing environments, naturally modulating <strong>the</strong> relative<br />
frequency of each “sub-type”. The greater <strong>the</strong> diversity, <strong>the</strong> higher <strong>the</strong> chance<br />
for <strong>the</strong> emergence of new “common goods”, that is, for cooperation. This does<br />
not infringe Hamilton’s rule, for <strong>the</strong> populations must remain highly related, as<br />
a condition to use <strong>the</strong> new “common good”. As Maynard Smith had told us, all<br />
“major transitions” in <strong>the</strong> ways of being alive have been of a cooperative nature,<br />
such that biologists do have an acute sense of <strong>the</strong> advantages, of <strong>the</strong> “fitness<br />
increases”, that are affor<strong>de</strong>d by “sharing” with o<strong>the</strong>rs any given particular way<br />
of living. If I were to pick one single item from <strong>the</strong> “ethos” catalogue of <strong>the</strong><br />
IGC, I would certainly choose “cooperativity” for all that it implies. Diversity, to<br />
start with, for i<strong>de</strong>ntical individuals gain little in being toge<strong>the</strong>r, if we are looking<br />
for “emergent novelty”; <strong>the</strong> group may gain, particularly if individuals are<br />
submitted to a stringent rule, in (biological) brave new worlds of alphas, betas<br />
and gammas, but those are not <strong>the</strong> kind of worlds we are after. Naturally, each<br />
IGCer takes a lot from many of <strong>the</strong> o<strong>the</strong>rs, as she or he provi<strong>de</strong>s various kinds<br />
of “goods” to many of <strong>the</strong> o<strong>the</strong>rs. If looking at a single variable “good”, we may<br />
i<strong>de</strong>ntify those that take more than give, and some would speak of “cheaters”.<br />
However, <strong>the</strong> “cheaters” for a particular “common good” may well be <strong>the</strong> most<br />
altruistic for ano<strong>the</strong>r. In short, <strong>the</strong> “tragedy of <strong>the</strong> commons” seems more apparent<br />
than real, again solved by <strong>the</strong> diversity of individuals. This must be true,<br />
as <strong>the</strong>re is little or no “policing”, few rules, and yet, <strong>the</strong>re are no cheaters at <strong>the</strong><br />
Institute. Only because, I would think, we do have a common goal that goes well<br />
beyond <strong>the</strong> diversity of individual interests.<br />
The last year at <strong>the</strong> IGC was most successful for many of my colleagues. Over<br />
150 publications have appeared in <strong>the</strong> international scientific literature with an<br />
affiliation to <strong>the</strong> IGC, many in <strong>the</strong> most cited journals in <strong>the</strong> respective fields:<br />
this was <strong>the</strong> year in IGC’s life with a highest number of publications (some 1,700<br />
for its whole 50 years of life, with over 1,100 since <strong>the</strong> last reform). For <strong>the</strong> first<br />
time in its history, citations of work done at <strong>the</strong> IGC have reach over 4,000/year<br />
(more than 30,000 citations from its foundation, over 20,000 of which for work<br />
published since 1998). IGC’s scientists gained several prestigious international<br />
grants and awards, and <strong>the</strong>y were joined in this success by IGC’s alumni who are<br />
now at o<strong>the</strong>r Portuguese institutions. Given <strong>the</strong> IGC’s mission of educating or “importing”<br />
and <strong>the</strong>n “incubating” <strong>the</strong> best young scientists, only to “export” <strong>the</strong>m to<br />
o<strong>the</strong>r Portuguese institutions, this is a most rewarding outcome. The numbers for<br />
<strong>the</strong> last five years help to reveal <strong>the</strong> IGC’s role in <strong>the</strong> revolution of Life Sciences<br />
in Portugal. For example, thus far, a total of 18 European Research Council grants<br />
were awar<strong>de</strong>d to scientists working in Portugal, 11 of which in Life Sciences: 10 of<br />
<strong>the</strong>se 11 were given to investigators who are or have been at <strong>the</strong> IGC. If <strong>the</strong> Life<br />
Sciences appear as <strong>the</strong> most competitive research area in Portugal, <strong>the</strong>refore,<br />
this is largely due to IGC’s alumni. Similar results can be seen with programmes of<br />
o<strong>the</strong>r international funding agencies: <strong>the</strong> recent Howard Hughes Medical Institute<br />
“International Early Career Scientists”, <strong>the</strong> Human Frontiers Science Programme,<br />
and <strong>the</strong> Bill & Melinda Gates Foundation “Grand Challenges”. In short, <strong>the</strong> IGC has<br />
contributed to 20 of 23 such grants given to scientists in Portugal. The Institute<br />
itself has also been recognised: <strong>the</strong> IGC was awar<strong>de</strong>d an Honorary Membership of<br />
<strong>the</strong> Or<strong>de</strong>m <strong>de</strong> Sant'Iago da Espada, by <strong>the</strong> Presi<strong>de</strong>nt of <strong>the</strong> Portuguese Republic,<br />
received <strong>the</strong> Oeiras Medal of Honour, <strong>the</strong> highest attributed by <strong>the</strong> Municipality,<br />
and for <strong>the</strong> second consecutive year, <strong>the</strong> IGC was ranked by “The Scientist - Faculty<br />
of a 1,000” as one of <strong>the</strong> 10 best places for post-docs to work outsi<strong>de</strong> <strong>the</strong> USA.<br />
Thus, we very well know that “cooperation”<br />
is <strong>the</strong> essence of life from its very inception,<br />
chemical cooperation in this case.<br />
Many examples of collective “behaviour”<br />
are already available in bacteria, some of<br />
which can be seen as “cooperative”, for<br />
<strong>the</strong>y configure conditions in which individuals<br />
differentially provi<strong>de</strong> for a range<br />
of common goods that are “exchanged” for<br />
mutual benefit.<br />
The greater <strong>the</strong> diversity, <strong>the</strong> higher <strong>the</strong><br />
chance for <strong>the</strong> emergence of new “common<br />
goods”, that is, for cooperation.<br />
If I were to pick one single item from <strong>the</strong><br />
“ethos” catalogue of <strong>the</strong> IGC, I would certainly<br />
choose “cooperativity” for all that it<br />
implies.<br />
IGC ANNUAL REPORT ‘11<br />
THE DIRECTOR'S INTRODUCTION<br />
8
After all <strong>the</strong>se years of a half-distant concern with “biomedical sciences”, ra<strong>the</strong>r<br />
than just with immunology in my own group, I have learned many things, but<br />
certainly much fewer that I would have wished. If I were to attempt any sort of<br />
“wins and losses balance” of having engaged in science administration, I see<br />
mostly “wins”. The first and foremost “win” would be to have had <strong>the</strong> opportunity<br />
to enlarge <strong>the</strong> field of my own scientific exposure, with <strong>the</strong> necessary consequence<br />
of a continuous won<strong>de</strong>r with nature. Particularly when, as Pierre Teillard<br />
<strong>de</strong> Chardin wrote, “facts are illuminated by evolution, <strong>the</strong> trajectory which all<br />
lines of thought must follow”, and we thus gain a glimpse of un<strong>de</strong>rstanding:<br />
not just of <strong>the</strong> genetic, molecular, cellular and systemic mechanisms, but of life<br />
itself and what is to be alive on this planet. Better than I could do, Feynman<br />
wrote “The world looks so different after learning science. For example, trees<br />
are ma<strong>de</strong> of air, primarily. When <strong>the</strong>y are burned, <strong>the</strong>y go back to air, and in<br />
<strong>the</strong> flaming heat is released <strong>the</strong> flaming heat of <strong>the</strong> sun which was bound in to<br />
convert <strong>the</strong> air into tree... These things are beautiful things, and <strong>the</strong> content of<br />
science is won<strong>de</strong>rfully full of <strong>the</strong>m. They are very inspiring, and <strong>the</strong>y can be used<br />
to inspire o<strong>the</strong>rs.” The pleasure of un<strong>de</strong>rstanding for <strong>the</strong> first time is a feeling<br />
that we all have had; when it follows many years of attempts, of hypo<strong>the</strong>ses,<br />
of hunches, of hard work, <strong>the</strong>n it reaches unique levels, particularly when <strong>the</strong><br />
reasonable doubt is exceedingly small. With two additional gains: most often,<br />
such a novel un<strong>de</strong>rstanding is a critical piece in <strong>the</strong> wi<strong>de</strong>r consi<strong>de</strong>ration (and<br />
wish to un<strong>de</strong>rstand) of something else, for yet more concerns, but also for more<br />
excitement; <strong>the</strong>n, each of those incremental steps of un<strong>de</strong>rstanding represents<br />
<strong>the</strong> objective reality of progress that only science can give: that problem “is<br />
done” and we can go on to fur<strong>the</strong>r questions.<br />
Over 150 publications have appeared in<br />
<strong>the</strong> international scientific literature with<br />
an affiliation to <strong>the</strong> IGC, many in <strong>the</strong> most<br />
cited journals in <strong>the</strong> respective fields: this<br />
was <strong>the</strong> year in IGC’s life with a highest<br />
number of publications (some 1,700 for its<br />
whole 50 years of life, with over 1,100 since<br />
<strong>the</strong> last reform).<br />
The next mark is an ever-increasing attachment to diversity of individuals and<br />
populations, humans, first of all, but also of all o<strong>the</strong>r living beings. The won<strong>de</strong>r<br />
of life is so present and <strong>the</strong> fascination of un<strong>de</strong>rstanding so great that sometimes<br />
one feels that this should be shared by anyone who wishes to have it, and<br />
be instituted as one more “human right”. On those occasions, you cannot avoid<br />
thinking of all those in <strong>the</strong> world who, because <strong>the</strong>y were born where <strong>the</strong>re is<br />
also no access to running clean water, to proper health care and education, are<br />
exclu<strong>de</strong>d from <strong>the</strong> possibility of contributing to <strong>the</strong> future of <strong>the</strong> world, that is,<br />
of being scientists. Knowing that scientists solve problems, I also worry about<br />
all those large numbers of possibilities that we are giving away by excluding so<br />
many brains from science. All <strong>the</strong> more so as those brains are quite different<br />
from most of those who are already in science, and <strong>the</strong>y may well look at problems,<br />
imagine and see solutions in very novel, “unconventional” manners, as a<br />
result of <strong>the</strong>ir cultures. Their exclusion from <strong>the</strong> science enterprise is certainly a<br />
major concern for <strong>the</strong> future, but also a strong reason to feel optimistic, would<br />
we come round to solving it. Sometimes, glimpses of un<strong>de</strong>rstanding of <strong>the</strong> tremendous<br />
power of evolution – enough to generate human brains starting with<br />
beautiful, yet mo<strong>de</strong>st, bacteria – and of its most robust principles, also brings<br />
<strong>the</strong> wish to extend such principles to <strong>the</strong> un<strong>de</strong>rstanding of human societies and<br />
<strong>the</strong> “government of <strong>the</strong> city”. As above, “They [<strong>the</strong> contents of science] are very<br />
inspiring, and <strong>the</strong>y can be used to inspire o<strong>the</strong>rs.” I guess that many have experienced<br />
this wish before, and I am ever surprised by <strong>the</strong> rarity of contributions<br />
from serious scientists to politics. As some of my colleagues at <strong>the</strong> Institute<br />
keep reminding me, science is <strong>the</strong> only human activity, which has <strong>de</strong>veloped<br />
a method to <strong>de</strong>scribe, un<strong>de</strong>rstand and “organise” <strong>the</strong> world that, at least in<br />
<strong>the</strong>ory, is in<strong>de</strong>pen<strong>de</strong>nt of <strong>the</strong> individual. As a common enterprise, science also<br />
ensures <strong>the</strong> respect of all individuals, yet confronting divergent opinions, in a<br />
socially “self-organised manner”.<br />
Last but not least, ano<strong>the</strong>r mark concerns not science but how to do it. With<br />
some colleagues of my generation, I share <strong>the</strong> opinion that, coming to our<br />
retirement, we will leave research in much worse condition than we found it,<br />
particularly on ethical terms. I am not speaking of science itself, but of <strong>the</strong><br />
way we do it. “Doing science”, when we started, was a common enterprise of<br />
friends, with respect, often admiration, for ol<strong>de</strong>r or younger, also with emulation,<br />
sometimes competition, always fair and in all openness amongst people of<br />
<strong>the</strong> same tra<strong>de</strong>, endowed with <strong>the</strong> same <strong>de</strong>ep conviction that science can only<br />
be done this way. At least, this was <strong>the</strong> way we felt. To disrespect peers, be that<br />
by secrecy, unprepared bad judgment or unfair competition, amounted to disrespecting<br />
ourselves. Göran Möller, my Thesis supervisor, never finished writing<br />
a paper without preparing 60 copies in <strong>the</strong> lab’s stencil machine to send to his<br />
best competitors and friends, simultaneously with submitting it to <strong>the</strong> journal<br />
As some of my colleagues at <strong>the</strong> Institute<br />
keep reminding me, science is <strong>the</strong> only human<br />
activity, which has <strong>de</strong>veloped a method<br />
to <strong>de</strong>scribe, un<strong>de</strong>rstand and “organise” <strong>the</strong><br />
world that, at least in <strong>the</strong>ory, is in<strong>de</strong>pen<strong>de</strong>nt<br />
of <strong>the</strong> individual. As a common enterprise,<br />
science also ensures <strong>the</strong> respect of all<br />
individuals, yet confronting divergent opinions,<br />
in a socially “self-organised manner”.<br />
IGC ANNUAL REPORT ‘11<br />
THE DIRECTOR'S INTRODUCTION<br />
9
for publication. For, as he said, it is our duty to <strong>the</strong> science community to let all<br />
o<strong>the</strong>rs know of what we found and what we think, <strong>the</strong> sooner <strong>the</strong> better. The<br />
excitement with reading <strong>the</strong> referees’ comments was genuine, concerned with<br />
evaluating how our i<strong>de</strong>as were accepted, discovering ways of how to improve<br />
our papers. Of course, papers were also rejected at <strong>the</strong> time, and of course,<br />
we also quite often got upset; but for our misses, ra<strong>the</strong>r than for <strong>the</strong> unfairness<br />
of referees, whom we trusted were doing <strong>the</strong> best <strong>the</strong>y could. Things have<br />
changed, in<strong>de</strong>ed. As if most colleagues would be more concerned with <strong>the</strong>ir own<br />
success, reputation, career or income, than with science itself. As if many would<br />
not care about <strong>the</strong> means to reach <strong>the</strong>ir personal goals. The most worrisome<br />
part of all this evolution, over <strong>the</strong> last three <strong>de</strong>ca<strong>de</strong>s or so, is <strong>the</strong> danger that<br />
science will no longer be a school of human virtues, a common enterprise of<br />
rigor, criticism and tolerance. We must solve <strong>the</strong> problem and reverse this trend;<br />
o<strong>the</strong>rwise, <strong>the</strong> best people in <strong>the</strong> younger generations will soon recognise this<br />
state of affairs and science will no longer attract <strong>the</strong>m. And with no role mo<strong>de</strong>ls<br />
to look up to, younger scientists will be left in a <strong>de</strong>sert of ethics, where cutthroat<br />
competition will prevail as <strong>the</strong> law. Looking at young science beginners<br />
today, I most often miss <strong>the</strong> careless enthusiasm that those in my generation<br />
had; I see instead a grave concern with “career plans”, precisely something we<br />
never had. I am truly sorry for <strong>the</strong>m and I feel that it is our responsibility to try<br />
to explicit <strong>the</strong> mechanisms that brought us down this path of <strong>de</strong>clining ethics.<br />
The solution and how to implement it, however, cannot be left in <strong>the</strong> hands of<br />
<strong>the</strong> very “old amateurs” who let it all happen as it did; this can only be done by<br />
<strong>the</strong> younger generations.<br />
I am certain that <strong>the</strong> principal mission of<br />
<strong>the</strong> IGC, while producing excellent science<br />
and educating <strong>the</strong> younger generation to<br />
do it, is to remain a place where, whatever<br />
happens, that way of “doing science” will<br />
live on and will continue to attract <strong>the</strong> best<br />
minds and <strong>the</strong> best characters.<br />
I am certain that <strong>the</strong> principal mission of <strong>the</strong> IGC, while producing excellent science<br />
and educating <strong>the</strong> younger generation to do it, is to remain a place where,<br />
whatever happens, that way of “doing science” will live on and will continue to<br />
attract <strong>the</strong> best minds and <strong>the</strong> best characters.<br />
ANTÓNIO COUTINHO<br />
Director<br />
Oeiras, May 2012<br />
Note ad<strong>de</strong>d in proof:<br />
Jonathan Howard has now been formally appointed Director of <strong>the</strong> IGC by <strong>the</strong><br />
Board of Administration of <strong>the</strong> Calouste <strong>Gulbenkian</strong> Foundation, to take effect<br />
from October 1st, 2012. I have no doubts that <strong>the</strong>re is no better person for this<br />
task. All of us at <strong>the</strong> Institute are very pleased with <strong>the</strong> <strong>de</strong>cision and grateful<br />
to Jonathan Howard that he has accepted <strong>the</strong> challenge. We are sure that <strong>the</strong><br />
Phoenix will rise again.<br />
IGC ANNUAL REPORT ‘11<br />
THE DIRECTOR'S INTRODUCTION<br />
10
IGC ANNUAL REPORT ‘11<br />
THE DIRECTOR'S INTRODUCTION<br />
11
THE IGC AT A GLANCE<br />
The <strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência (IGC) is an international biomedical research<br />
and graduate training institute, <strong>de</strong>dicated to promoting multidisciplinary science<br />
of excellence and a new generation of scientific lea<strong>de</strong>rs.<br />
The IGC operates as a host institution that provi<strong>de</strong>s an entrance hall into Portugal<br />
for national and international researchers and clinicians, with a view to setting<br />
up and <strong>de</strong>veloping research programmes of excellence and streng<strong>the</strong>ning <strong>the</strong><br />
scientific community, both nationally and internationally.<br />
The IGC mssions are thus:<br />
• To i<strong>de</strong>ntify, educate and incubate new research lea<strong>de</strong>rs, providing state-<br />
-of-<strong>the</strong>-art facilities and full financial and intellectual autonomy to pursue<br />
research projects;<br />
• To export new lea<strong>de</strong>rs in biomedical research to research centres and aca<strong>de</strong>mia<br />
in Portugal and internationally;<br />
• To provi<strong>de</strong> international graduate teaching and structured training programmes;<br />
• To promote <strong>the</strong> values of science in society, scientific literacy, and <strong>the</strong><br />
active participation of citizens in scientific research, through engagement<br />
with different communities and stakehol<strong>de</strong>rs;<br />
• To foster technology transfer, intellectual property (IP) licensing and commercialization<br />
and start-ups.<br />
The IGC was set up by <strong>the</strong> Calouste <strong>Gulbenkian</strong> Foundation, a Portuguese private<br />
institution of general public utility, in 1961.<br />
The institute is part of <strong>the</strong> Oeiras Campus, home to several o<strong>the</strong>r basic and applied<br />
research centres in biology, biotechnology and chemistry, including <strong>the</strong><br />
Associated Laboratory ITQB, ma<strong>de</strong> up of <strong>the</strong> IGC, <strong>the</strong> <strong>Instituto</strong> <strong>de</strong> Tecnologia<br />
Química e Biológica (ITQB) <strong>the</strong> <strong>Instituto</strong> <strong>de</strong> Biologia Experimental e Tecnológica<br />
(IBET) and <strong>the</strong> Centre for <strong>the</strong> Study of Chronic Diseases (CEDOC).<br />
Since 1998, <strong>the</strong> IGC has hosted 77 research<br />
groups; 36 of <strong>the</strong>se have moved on to o<strong>the</strong>r<br />
research institutes, 31 to research centres<br />
in Portugal.<br />
37 research groups in Portugal are IGC-associated<br />
groups, with access to IGC facilities<br />
and services.<br />
The IGC pioneered graduate training in<br />
Portugal. Since 1993, 6 PhD Programmes<br />
have been set up, with approximately 80<br />
speakers/year/programme;<br />
By October 2011, 540 PhD stu<strong>de</strong>nts had<br />
started <strong>the</strong>ir science education at <strong>the</strong> IGC<br />
in programmes and research groups;<br />
A worldwi<strong>de</strong> network of over 350 <strong>Gulbenkian</strong><br />
alumni hold regular meetings.<br />
RESEARCH<br />
Research at <strong>the</strong> IGC is organism centred, hypo<strong>the</strong>sis driven, integrative and multidisciplinary<br />
in approach. The focus is on <strong>the</strong> genetic bases of <strong>de</strong>velopment<br />
and evolution of complex systems, spanning <strong>the</strong> following areas:<br />
• Evolutionary biology<br />
• Cell biology, cell cycle, DNA repair and ageing<br />
• Inflammation, immunity and auto-immunity<br />
• Host pathogens interactions<br />
• Developmental biology in animals and plants<br />
• Genetics of complex diseases: malaria, diabetes Type I, lupus<br />
• Behavioural neuroscience<br />
• Theoretical and computational biology<br />
IGC PEOPLE<br />
In 2011*:<br />
368 People work at <strong>the</strong> IGC<br />
• 33 Average age<br />
30 Nationalities<br />
• 275 Portuguese<br />
• 95 Rest of <strong>the</strong> World<br />
318 researchers (does not inclu<strong>de</strong><br />
facilities or services staff)<br />
144 PhD hol<strong>de</strong>rs<br />
• 35 Principal Investigators<br />
18 Portuguese<br />
17 Rest of <strong>the</strong> World<br />
17 Female<br />
18 Male<br />
• 9 Research Fellows<br />
• 11 Facility/Service Heads & Staff<br />
• 89 Post-docs<br />
93 PhD stu<strong>de</strong>nts (not including<br />
1st year stu<strong>de</strong>nts)<br />
44 Technicians<br />
31 Trainees<br />
22 Facilities/Service Staff<br />
4 Visiting scientists<br />
13 Masters Stu<strong>de</strong>nts<br />
17 Administrative Staff<br />
4 PhD Programmes<br />
35 Research Groups<br />
9 Research Fellows<br />
2 new Research Fellows<br />
4 <strong>de</strong>parting research groups<br />
*As of December 2011.<br />
IGC ANNUAL REPORT ‘11<br />
THE IGC AT A GLANCE<br />
12
30 Nationalities working at <strong>the</strong> IGC<br />
1<br />
1<br />
1<br />
10<br />
1<br />
1<br />
1<br />
1<br />
Angola<br />
Argentina<br />
Belgium<br />
Brazil<br />
Bulgaria<br />
Colombia<br />
Denmark<br />
Estonia<br />
14<br />
7<br />
3<br />
1<br />
4<br />
1<br />
4<br />
2<br />
France<br />
Germany<br />
Greece<br />
Hungary<br />
India<br />
Israel<br />
Italy<br />
Japan<br />
4<br />
1<br />
5<br />
2<br />
4<br />
275<br />
1<br />
1<br />
Lituania<br />
Luxemburg<br />
Mexico<br />
Ne<strong>the</strong>rlands<br />
Poland<br />
Portugal<br />
Romania<br />
Serbia<br />
7<br />
1<br />
1<br />
1<br />
6<br />
9<br />
Spain<br />
Swe<strong>de</strong>n<br />
Switzerland<br />
Turkey<br />
United Kingdom<br />
USA<br />
IGC ANNUAL REPORT ‘11<br />
THE IGC AT A GLANCE<br />
13
SCIENTIFIC COMMUNICATION<br />
In <strong>the</strong> last 5 years:<br />
655 Scientific Publications (Source: Web of Science)<br />
In 2011:<br />
154 Peer-reviewed publications<br />
3 Book chapters<br />
3 Proceedings<br />
Published Items with IGC address in each Year.<br />
(Source: Web od Science, May 2012)<br />
Citations to IGC papers in each year.<br />
(Source: Web of Science, May 2012)<br />
6 PhD Theses<br />
7 MSc Theses<br />
173 International presentations by IGC researchers<br />
193 Seminars at IGC<br />
• 107 External speakers<br />
15 Conferences, Meetings, Workshops at IGC<br />
COMPETITIVE AWARDS SECURED BY IGC RESEARCHERS<br />
11 Prizes and Honours, including:<br />
• 1 The Scientist - Faculty of 1000 Best Places for Post-docs Award<br />
• 1 Honorary Membership of <strong>the</strong> Or<strong>de</strong>m <strong>de</strong> Sant'Iago da Espada, Portugal<br />
• 1 Roche Organ Transplantation Research Foundation (ROTRF) Recognition Prize<br />
• 2 Gold Medals of Merit, Oeiras City Council (Portugal)<br />
• 1 Ciencia en Acción - Teaching Resources 1st Place, Ciencia en Acción (Spain)<br />
• 5 Nominations for Editorial Boards<br />
Since 1998, around 4,000 scientists have<br />
given talks and/or lectures at <strong>the</strong> IGC.<br />
Around 120 conferences, meetings and workshops<br />
have been held.<br />
The IGC was ranked amongst <strong>the</strong> '10 Best<br />
Places for Post-docs' outsi<strong>de</strong> <strong>the</strong> USA, by<br />
The Scientist - Faculty of 1000' for two<br />
years in a row - in 2010 and 2011.<br />
34 new research grants:<br />
• 1 European Research Council Starting Grant (ERC)<br />
• 2 European Commission Framework Programme 7 (FP7)<br />
• 1 Association for International Cancer Research - AICR<br />
• 1 Wellcome Trust (UK)<br />
• 18 Fundação para a Ciência e a Tecnologia - FCT (Portugal)<br />
• 4 Fundação Bial (Portugal)<br />
• 2 Oeiras City Council (Portugal)<br />
• 2 Luso-American Foundation for Development - FLAD (Portugal)<br />
• 1 Associação Viver a Ciência - Simbiontes (Portugal)<br />
• 1 QREN - PORLisboa (Portugal)<br />
• 1 Socieda<strong>de</strong> Portuguesa <strong>de</strong> Diabetologia/Novo Nordisk (Portugal)<br />
And also:<br />
• 2 AXA Research Fund Post-Doctoral Fellowships (France)<br />
• 1 Volkswagen Foundation Meeting Support Grant (Germany)<br />
• 1 Socieda<strong>de</strong> Portuguesa <strong>de</strong> Imunologia Travel Grant (Portugal)<br />
IGC ANNUAL REPORT ‘11<br />
THE IGC AT A GLANCE<br />
14
2004 - 2011<br />
NEW RESEARCH GRANTS BREAKDOWN BY SOURCE OF FUNDING<br />
Total grants is 277<br />
(Source: IGC Research Funding Affairs)<br />
FCT (Portugal) PUBLIC<br />
EUROPEAN COMMISSION PUBLIC<br />
OTHERS PUBLIC<br />
OTHERS PRIVATE<br />
OTHERS PRIVATE-PUBLIC PARTNERSHIP<br />
TOTAL<br />
Since 2007, half of <strong>the</strong> European Research<br />
Council Grants awar<strong>de</strong>d to life science researchers<br />
working in Portugal have gone<br />
to IGC scientists (6 out of 11, with a fur<strong>the</strong>r<br />
3 grants going to alumni of <strong>the</strong> <strong>Gulbenkian</strong><br />
PhD Programme in Biology and Medicine).<br />
2004 - 2011<br />
PROPORTION OF RESEARCH GRANTS BREAKDOWN BY FUNDING SOURCE<br />
Total grants is 277<br />
(Source: IGC Research Funding Affairs)<br />
4%<br />
59%<br />
11%<br />
9%<br />
Since 2004, IGC researchers have secured<br />
just un<strong>de</strong>r 300 project grants, from national<br />
and international funding agencies,<br />
including EU Framework Programmes, European<br />
Research Council, Howard Hughes<br />
Medical Institute (USA), Bill & Melinda<br />
Gates Foundation (USA), Human Frontiers<br />
Science Programme.<br />
17%<br />
FCT (Portugal) PUBLIC<br />
EUROPEAN COMMISSION PUBLIC<br />
OTHERS PUBLIC<br />
OTHERS PRIVATE<br />
OTHERS PRIVATE-PUBLIC PARTNERSHIP<br />
IGC ANNUAL REPORT ‘11<br />
THE IGC AT A GLANCE<br />
15
RESEARCH<br />
GROUPS
PROTEIN-NUCLEIC ACIDS<br />
INTERACTIONS<br />
Alekos Athanasiadis Principal Investigator<br />
PhD in Structural Biology, University of Crete, 1995<br />
Postdoctoral Fellow, ICGEB/Unido<br />
Postdoctoral Fellow, Massachusetts Institute of Technology, USA<br />
Research Scientist, Massachusetts Institute of Technology, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2009<br />
Sequence is not fate. Proteins <strong>de</strong>monstrate a fundamental ability not only to<br />
recognise and bind to specific pieces of nucleic acid co<strong>de</strong> but also to alter<br />
its information content by catalysing reactions that rearrange its sequence or<br />
specifically change one nucleoti<strong>de</strong> for ano<strong>the</strong>r. We study <strong>the</strong> molecular <strong>de</strong>tails<br />
and <strong>the</strong> fundamental concepts that drive <strong>the</strong>se intimate interactions between<br />
<strong>the</strong> major biological macromolecules.<br />
RECOGNITION OF FOREIGN NUCLEIC ACIDS IN INNATE IMMUNITY<br />
For vertebrates, innate immunity represents <strong>the</strong> front-end of <strong>the</strong>ir <strong>de</strong>fence<br />
against invading viruses and bacteria. Central in <strong>the</strong> pathogen recognition process<br />
is <strong>the</strong> <strong>de</strong>tection of foreign nucleic acids. However, exactly how foreign<br />
nucleic acids are distinguished from self DNA and RNA is poorly un<strong>de</strong>rstood<br />
and of great importance since false recognition leads to severe auto-immune<br />
disor<strong>de</strong>rs. DAI is a protein that was recently i<strong>de</strong>ntified as a receptor for dsDNA<br />
in <strong>the</strong> cytoplasm and is a member of a family of proteins involved in interferon<br />
mediated antiviral responses that share a DNA/RNA binding domain that<br />
specifically recognises <strong>the</strong> left-han<strong>de</strong>d form of nucleic acids helices known as<br />
Z-DNA/Z-RNA. Our aim is to biochemically and structurally characterise <strong>the</strong> proteins<br />
involved in this interferon response pathway that inclu<strong>de</strong>s, besi<strong>de</strong>s DAI,<br />
<strong>the</strong> vertebrate specific RNA editing enzyme ADAR1, as well as viral inhibitors of<br />
this pathway found in Pox and Herpes viruses.<br />
In 2011 we <strong>de</strong>termined <strong>the</strong> structure of a Herpes virus inhibitor of interferon<br />
response that employs <strong>the</strong> same DNA binding domain found in DAI, <strong>the</strong> Zalpha<br />
domain at 1.76A resolution, and show for <strong>the</strong> first time that Zalpha domains can<br />
form dimers through domain swapping (Manuscript in preparation). We have<br />
managed expression of different DAI constructs and obtained preliminary crystals<br />
for some of <strong>the</strong>m with nucleic acids.<br />
A TO I RNA EDITING AND MOLECULAR EVOLUTION<br />
The A to I RNA editing post-transcriptional modification of RNAs is wi<strong>de</strong>spread<br />
in all animal species, affecting transcripts of thousands of genes. Often such<br />
modifications are found in coding sequences where <strong>the</strong>y can alter <strong>the</strong> sequence<br />
of <strong>the</strong> enco<strong>de</strong>d protein. Targeting of <strong>the</strong> modification is directed by intronic sequences<br />
that act as gui<strong>de</strong> RNAs. Un<strong>de</strong>rstanding how this intron enco<strong>de</strong>d modification<br />
alters <strong>the</strong> rates and direction of protein coding gene evolution is <strong>the</strong><br />
aim of this project. Our study is based on simulations of <strong>the</strong> evolution process<br />
in <strong>the</strong> presence of RNA editing and <strong>the</strong> comparative analysis of genes known<br />
to un<strong>de</strong>rgo editing through evolution. At <strong>the</strong> same time we <strong>de</strong>velop methods<br />
for <strong>the</strong> <strong>de</strong>tection of editing sites in transcript sequences and <strong>the</strong> prediction of<br />
editing sites based on <strong>the</strong> genomic sequence.<br />
GROUP MEMBERS<br />
Matteo <strong>de</strong> Rosa (Post-doc)<br />
Diogo Ribeiro (Masters Stu<strong>de</strong>nt; started in September)<br />
Sónia Zacarias (Masters Stu<strong>de</strong>nt; started in August)<br />
Krzysztof Kus (PhD stu<strong>de</strong>nt; started in October)<br />
Ana Rita Tomé (Research Assistant; left in July)<br />
Theokliti Tsigkri (Research Assistant; left in August)<br />
COLLABORATORS<br />
Maas Stefan (Lehigh University/NIH, USA)<br />
Rich Alexan<strong>de</strong>r (Massachusetts Institute of Technology, USA)<br />
Maria Arménia Carrondo (ITQB - <strong>Instituto</strong> <strong>de</strong> Tecnologia Química e Biológica,<br />
Portugal)<br />
FUNDING<br />
FP7 Marie Curie International Reintegration Grant, European Commission<br />
Fundação para a Ciencia e Technologia (FCT), Portugal<br />
<strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência, Portugal<br />
Crystals of <strong>the</strong> herpes virus protein Orf112 <strong>de</strong>veloped at IGC.<br />
Crystal structure of Orf112 at 1.76Å resolution based on data measured at ESRF/<br />
Grenoble. The tetrameric structure is formed by two domain swapped monomers.<br />
In 2011 we <strong>de</strong>veloped <strong>the</strong> software platform for <strong>the</strong> simulation of gene evolution<br />
in <strong>the</strong> presence of RNA editing. We have already explored a wi<strong>de</strong> range of parameters<br />
in this simulation and <strong>de</strong>monstrate that RNA editing can significantly<br />
impact <strong>the</strong> evolutionary rates resulting in acceleration or <strong>de</strong>lay, <strong>de</strong>pending on<br />
<strong>the</strong> efficiency of <strong>the</strong> editing process (Manuscript in preparation).<br />
Simulations show accelerated rates of evolution in <strong>the</strong> presence of RNA editing<br />
at low editing efficiency.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
17
PLANT STRESS<br />
SIGNALING<br />
Elena Baena González Principal Investigator<br />
PhD in Plant Physiology and Molecular Biology, University of Turku, Finland, 2002<br />
Postdoctoral Fellow, Massachusetts General Hospital, Department of Molecular Biology, Boston, MA, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2008<br />
Environmental stress (drought, shading, cold, salinity, pollutants) has a great<br />
impact on plant growth and <strong>de</strong>velopmental <strong>de</strong>cisions. Un<strong>de</strong>r stressful conditions<br />
energy production through photosyn<strong>the</strong>sis and/or respiration is reduced,<br />
causing an energy <strong>de</strong>ficit in <strong>the</strong> cell and subsequent growth arrest. Work in<br />
our laboratory focuses on <strong>the</strong> SnRK1 signalling casca<strong>de</strong>, central to <strong>the</strong> sensing<br />
of stress-triggered energy <strong>de</strong>privation and to <strong>the</strong> subsequent orchestration<br />
of gene expression changes and enzyme regulation necessary for recovery<br />
and adaptation. Our goal is <strong>the</strong> dissection of this key pathway and <strong>the</strong> <strong>de</strong>eper<br />
characterisation of <strong>the</strong> cellular processes un<strong>de</strong>r SnRK1 control as a first step to<br />
un<strong>de</strong>rstand how stress cues are translated into growth and <strong>de</strong>velopmental <strong>de</strong>cisions<br />
that contribute to stress tolerance and adaptation. We use Arabidopsis<br />
thaliana as a mo<strong>de</strong>l and a combination of cell-based assays, functional genomics,<br />
biochemistry, and genetics.<br />
THE ROLE OF miRNAs IN PLANT ENERGY SIGNALLING<br />
Different types of stress converge in an energy <strong>de</strong>ficiency signal that is translated<br />
into a vast transcriptional response by <strong>the</strong> SnRK1 protein kinases. The SnRK1-<br />
mediated metabolic switch <strong>the</strong>reby promotes cell survival and <strong>the</strong> elaboration of<br />
longer-term growth and <strong>de</strong>velopmental responses for adaptation.<br />
GROUP MEMBERS<br />
Ana Confraria Augusto (Post-doc)<br />
Pierre Crozet (Post-doc; started in January)<br />
Leonor Duarte Margalha (PhD stu<strong>de</strong>nt; started in May)<br />
Cláudia Martinho (PhD stu<strong>de</strong>nt)<br />
Mattia Adamo (PhD stu<strong>de</strong>nt; started in November)<br />
Carlos Alexandre Elias (Technician)<br />
Américo Rodrigues (Visiting scientist; started in September)<br />
COLLABORATORS<br />
Jen Sheen (Massachusetts General Hospital, Boston, USA)<br />
Mark Borowsky (Massachusetts General Hospital, Boston, USA)<br />
Brad Chapman (Massachusetts General Hospital, Boston, USA)<br />
Ignacio Rubio Somoza, Detlef Weigel (Max Planck Institute<br />
for Developmental Biology, Tubingen, Germany)<br />
Pedro L. Rodriguez Egea (<strong>Instituto</strong> <strong>de</strong> Biología Molecular y Celular<br />
<strong>de</strong> Plantas, Universidad Politécnica <strong>de</strong> Valencia, Spain)<br />
Markus Teige, Andreas Bachmair (Max F. Perutz Laboratories,<br />
Univ. Vienna, Austria)<br />
FUNDING<br />
FP7 Marie Curie Reintegration Programme, European Commission<br />
European Molecular Biology Organisation (EMBO), UK<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
Marie Curie Initial Training Network, European Commission<br />
Despite <strong>the</strong> importance of <strong>the</strong> SnRK1 pathway, it is not known how energy<strong>de</strong>ficiency<br />
information is translated into gene expression changes. Possible<br />
mediators of this response are transcription factors (TFs), some of which have<br />
already been i<strong>de</strong>ntified. In addition, <strong>the</strong> signal may be conveyed through micro-<br />
RNAs (miRNAs), which have been implicated in <strong>the</strong> response to various nutrients<br />
and stresses. Since some of <strong>the</strong> SnRK1 target genes are known to be regulated<br />
also by miRNAs, we postulate that part of <strong>the</strong> SnRK1-mediated stress response<br />
is executed through miRNAs and we are currently exploring this hypo<strong>the</strong>sis<br />
employing a combination of cell-based assays, biochemistry and transgenics.<br />
Using plants with impaired small RNA biogenesis we have confirmed that a subset<br />
of SnRK1 targets is in<strong>de</strong>ed repressed through miRNAs, and specific effectors<br />
have been i<strong>de</strong>ntified through target mimicry-based knocking down approaches.<br />
To un<strong>de</strong>rstand <strong>the</strong> biological function and connection to <strong>the</strong> SnRK1casca<strong>de</strong> we<br />
are currently characterizing gain- and loss-of-function lines of <strong>the</strong>se miRNAs as<br />
well as of some of <strong>the</strong>ir main targets.<br />
NOVEL REGULATORY MECHANISMS OF THE ENERGY SENSOR KINASES<br />
IN ARABIDOPSIS<br />
Regardless of <strong>the</strong>ir origin, most abiotic stresses converge as energy-<strong>de</strong>privation<br />
signals on <strong>the</strong> SnRK1 protein kinases (PKs), which promote stress tolerance<br />
and maintain homeostasis through massive transcriptional reprogramming. In<br />
<strong>the</strong> long-term, <strong>the</strong> integration of environmental and internal cues through <strong>the</strong><br />
SnRK1 system contributes to <strong>the</strong> optimization of growth and <strong>de</strong>velopment in an<br />
ever-changing environment.<br />
As a first step to un<strong>de</strong>rstand how this is accomplished at <strong>the</strong> molecular level<br />
we seek to gain mechanistic insight into SnRK1 regulation through analysis of<br />
SnRK1 post-translational modification(s) as well as from <strong>the</strong> i<strong>de</strong>ntification and<br />
characterisation of <strong>the</strong> phosphatase(s) that help to reset <strong>the</strong> system.<br />
Using various heterologous systems we have substantial evi<strong>de</strong>nce for <strong>the</strong> posttranslational<br />
modification of SnRK1 and <strong>the</strong> residues affected in <strong>the</strong>se assays<br />
have been i<strong>de</strong>ntified using MS/MS. The occurrence of this modification in vivo is<br />
currently being assessed in various conditions and tissues. In addition, specific<br />
PP2C phosphatases have been i<strong>de</strong>ntified as negative SnRK1 regulators. These<br />
PP2Cs interact with SnRK1 in Y2H and in plants <strong>the</strong>y inactivate SnRK1 through<br />
<strong>de</strong>phosphorylation.<br />
The SnRK1 protein kinase integrates environmental stress cues and internal signals<br />
to promote plant stress tolerance and optimise growth and <strong>de</strong>velopment.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
18
MEIOSIS<br />
AND DEVELOPMENT<br />
Vítor Barbosa Principal Investigator<br />
PhD in Drosophila Genetics, University of Cambridge, UK, 2002<br />
Postdoctoral Fellow, Skirball Institute of Biomolecular Medicine, New York University, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2009<br />
We study links between meiosis and oocyte maturation. The integrity of meiotic<br />
chromatin in flies is monitored by a checkpoint whose activation affects<br />
gamete polarity. Persistent meiotic double strand breaks activate a conserved<br />
DNA damage response (DDR), which causes dorsal-ventral (DV) polarity <strong>de</strong>fects<br />
in <strong>the</strong> eggshell. With a panel of germline mutations that cause such <strong>de</strong>fects we<br />
want to:<br />
1. Characterise a new DDR to structural nuclear <strong>de</strong>fects. We have discovered<br />
that an insulator body (IB) component is un<strong>de</strong>r surveillance of a new checkpoint;<br />
2. Investigate <strong>the</strong> role of IBs in oocyte maturation. We focus on oocyte-specific<br />
transcription and on protein interactions in <strong>the</strong> IBs;<br />
3. Study silencing of selfish genetic elements along oogenesis. Specifically,<br />
we are interested in <strong>the</strong> conserved PIWI-associated family of non-coding<br />
RNAs (piRNAs). piRNA mutants elicit DDRs specifically in <strong>the</strong> germ line at<br />
different time points of oogenesis. We created a biased method to i<strong>de</strong>ntify<br />
piRNA genes.<br />
GROUP MEMBERS<br />
Ana Bernardo (Research Assistant; left in August)<br />
Triin Laos (Research Assistant)<br />
Patrícia Silva (Research Assistant)<br />
Raquel Santos (PhD Stu<strong>de</strong>nt)<br />
COLLABORATORS<br />
Caryn Navarro (Boston University School of Medicine, USA)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
FP7 Marie Curie International Reintegration Grant, European Commission<br />
STUDIES OF CHROMATID COHESION DURING MEIOSIS IN DROSOPHILA<br />
MELANOGASTER REVEAL A NOVEL DNA DAMAGE CHECKPOINT PATHWAY<br />
ESSENTIAL FOR OOCYTE POLARITY<br />
As in vertebrates, Drosophila oocyte differentiation and maturation requires an<br />
ensemble of complex interactions with surrounding cells. Moreover, studying<br />
transcriptional control within <strong>the</strong> germinal vesicle is partly hin<strong>de</strong>red by meiosisrelated<br />
chromatin remo<strong>de</strong>lling. We show an oocyte-specific localisation of <strong>the</strong><br />
cohesion protein dPds5 in foci in mid oogenesis. The dPds5 foci change stereotypically<br />
and are exclu<strong>de</strong>d from <strong>the</strong> meiotic chromatin con<strong>de</strong>nsed into a karyosome.<br />
This project aims to un<strong>de</strong>rstand <strong>the</strong> oocyte-specific function of dPds5<br />
knowing that to its foci co-localise <strong>the</strong> insulator body (IB) component CP190.<br />
We ask what are <strong>the</strong> mechanisms affected by this new nuclear structure. We will<br />
focus on transcription and replication control.<br />
Fur<strong>the</strong>rmore, we aim to i<strong>de</strong>ntify earlier components of <strong>the</strong> checkpoint that<br />
monitor <strong>the</strong> meiotic function of dPds5, and <strong>de</strong>fine downstream effectors of <strong>the</strong><br />
new DDR pathway i<strong>de</strong>ntified through studies on dPds5 mutants.<br />
dPds5 and CP190 physically interact by immunoprecipitation (IP). The same IPs<br />
from egalitarian (egl) mutant ovaries where oocytes are not maintained show a<br />
significant <strong>de</strong>crease compared to controls.<br />
RNA syn<strong>the</strong>sis in oocytes occurs in two transcription “bursts”. The latter (in<br />
stage 10) is inhibited in dPds5 mutants. The dpds5 meiotic products show higher<br />
chromatid number compared to controls.<br />
In oocytes dPds5 surveillance requires dATM and dChk2.<br />
DNA DAMAGE CHECKPOINTS ACTIVATION DURING MEIOSIS AND ITS EFFECTS<br />
IN DROSOPHILA OOGENESIS<br />
Ventralisation of <strong>the</strong> Drosophila egg indicates persistent DNA damage responses<br />
(DDR) to meiotic double strand break (DSB). DDRs activate downstream<br />
“effectors”, which cause incorrect eggshell polarity. What chromatin mechanisms<br />
are un<strong>de</strong>r DDR surveillance and what are <strong>the</strong> “effectors” are our major questions.<br />
We focus on genes of <strong>the</strong> piwi-interacting RNA (piRNA) biogenesis. piR-<br />
NAs are <strong>the</strong> major non-coding RNA in transposon element (TE) silencing. Little<br />
is known about <strong>the</strong> piRNA function as well as <strong>the</strong> cellular responses to TE amplification.<br />
One response is microtubule acetylation, which causes clumps of motor<br />
complex components such as Bicaudal-D (BicD). We found BicD aggregates<br />
The oocyte nucleus is not arrested during meiotic prophase I. Anterior pole of a<br />
Drosophila egg chamber in stage 7 marked with <strong>the</strong> insulator body component<br />
CP190 (red), <strong>the</strong> functional cohesion protein dPDS5 tagged with GFP driven by <strong>the</strong><br />
actin promoter (green), and DNA (blue). Whereas polyploidy nurse cells (n.c.) do<br />
not show IBs, <strong>the</strong> oocyte IBs (arrow) appear far from <strong>the</strong> con<strong>de</strong>nsed chromatin (*),<br />
expand in number during this stage and <strong>the</strong>n disappear.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
19
in known piRNA mutants. We combined eggshell ventralisation with BicD antibody<br />
staining into a screen protocol highly biased toward piRNA mutants. We<br />
will rescreen our collection for new piRNA genes. We will also map <strong>the</strong> candidate<br />
“effector” troya. The troya phenotype suggests susceptibility for DDR activation.<br />
65% of <strong>the</strong> lines are screened. Six show Bic-D clumps. We validated positives by<br />
staining for H2Av and by qPCR TEs. All lines with clumps show DDR activation<br />
and TE overexpression. One is allelic to rhino ano<strong>the</strong>r known piRNA gene. Three<br />
singletons are novel piRNA components as <strong>the</strong>y complement all known piRNA<br />
mutantions on <strong>the</strong> chromosome. troya show clumps and high TE levels when in<br />
trans with any o<strong>the</strong>r 2R mutation in <strong>the</strong> collection. We mapped troya to a region<br />
with two annotated genes.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
20
EPIGENETICS<br />
AND SOMA<br />
Vasco M. Barreto Principal Investigator<br />
PhD in Immunology, Université Paris VI, France, 2001<br />
Research Associate, Laboratory of Molecular Immunology, The Rockefeller University, USA<br />
Principal Investigator at <strong>the</strong> IGC since January 2008<br />
Immunoglobulin genes are remarkable in two ways. Unlike almost any o<strong>the</strong>r<br />
gene, <strong>the</strong>y un<strong>de</strong>rgo a process of somatic editing, ren<strong>de</strong>ring each allele from<br />
each maturing B cell unique, and producing antibodies of improved affinity over<br />
<strong>the</strong> course of an immune reaction. Unlike most o<strong>the</strong>r autosomal genes, immunoglobulin<br />
alleles are monoallelically expressed. We study <strong>the</strong>se two phenomena<br />
as part of B cell biology, but our ultimate goals are to address <strong>the</strong> epigenetic<br />
nature of random monoallelic expression and <strong>the</strong> impact of DNA editing mechanisms<br />
in a broa<strong>de</strong>r context.<br />
ON THE EPIGENETIC NATURE OF IMMUNOGLOBULIN GENE<br />
MONOALLELIC EXPRESSION<br />
In random autosomal monoallelic expression a cell expresses <strong>the</strong> paternal allele<br />
from an autosomal locus and ano<strong>the</strong>r cell from <strong>the</strong> same individual expresses<br />
<strong>the</strong> maternal allele. This type of mosaicism is reminiscent of X-chromosome<br />
inactivation and it has been suggested that <strong>the</strong> two processes share epigenetic<br />
marks. Using <strong>the</strong> heavy and light chain murine immunoglobulin genes as mo<strong>de</strong>ls<br />
for random autosomal monoallelic expression, we have tested whe<strong>the</strong>r <strong>the</strong>re is<br />
an imprint in <strong>the</strong> Ig alleles that, much like X-chromosome inactivation, is established<br />
early in <strong>de</strong>velopment and is <strong>the</strong>n stably propagated as <strong>the</strong> cell divi<strong>de</strong>s<br />
and becomes a B lymphocyte. Our preliminary data support <strong>the</strong> notion that<br />
random autosomal monoallelic expression has unique features, not shared with<br />
X- chromosome inactivation.<br />
GROUP MEMBERS<br />
Catarina Cortesão (Post-doc)<br />
Clara Pereira (PhD Stu<strong>de</strong>nt)<br />
Thiago Guzzela (PhD Stu<strong>de</strong>nt)<br />
Inês Trancoso (PhD Stu<strong>de</strong>nt)<br />
Raquel <strong>de</strong> Freitas (Research Technician; started in August)<br />
Filipa Marta (Research Technician; left in August)<br />
COLLABORATORS<br />
Paulo Vieira (Institut Pasteur, France)<br />
P. Hammarström (Karolinska Institute, Swe<strong>de</strong>n)<br />
Y. Zhao (China Agricultural University, China)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
FP7 Marie Curie International Reintegration Grant, European Commission<br />
A<br />
We have complemented <strong>the</strong> in vitro data of last year with <strong>the</strong> analysis of V(D)<br />
rearrangements in in vitro experiments. We have now conclusive evi<strong>de</strong>nce that<br />
<strong>the</strong>re are no stable epigenetic imprints in hematopoietic stem cells, but that in<br />
<strong>the</strong> CLP stage <strong>the</strong>re are transiently stable imprints. One manuscript is in preparation:<br />
Pereira CF, Vieira P., Barreto VM (in preparation) Immunoglobulin Gene<br />
Alleles Rearrange In<strong>de</strong>pen<strong>de</strong>ntly.<br />
AID AND BEYOND<br />
This proposal revolves around <strong>the</strong> enzyme Activation-Induced Deaminase (AID).<br />
AID plays a pivotal role in adaptive immunity because it un<strong>de</strong>rlies <strong>the</strong> lesions in<br />
<strong>the</strong> immunoglobulin genes that ultimately lead to somatic hypermutation (SHM),<br />
class switch recombination (CSR) and immunoglobulin gene conversion (Ig GC).<br />
However, its mutagenic ability has a pernicious si<strong>de</strong> effect and AID has been<br />
implicated in B lymphomas and o<strong>the</strong>r neoplasias. We study <strong>the</strong> interactions between<br />
AID and factors that are important for CSR, as well as additional aspects<br />
of <strong>the</strong> biology of this molecule, such as its role in <strong>the</strong> germ line.<br />
We have <strong>de</strong>tailed <strong>the</strong> role of residue S38 in <strong>the</strong> phylogeny of AID. We have also<br />
shown that AID does not contribute to <strong>the</strong> frequency of meiotic recombination.<br />
Finally, we have found suggestive evi<strong>de</strong>nce for and interaction between AID and<br />
CSR-specific cofactors. Two manuscripts are in preparation (one on AID and CSR<br />
and one on AID and meiotic recombination).<br />
B<br />
C<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
21
A<br />
B<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
22
VARIATION:<br />
DEVELOPMENT<br />
AND SELECTION<br />
Patrícia Belda<strong>de</strong> Principal Investigator<br />
PhD in Evolution and Development, Lei<strong>de</strong>n University, <strong>the</strong> Ne<strong>the</strong>rlands, 2002<br />
Associate Professor, Institute of Biology, Lei<strong>de</strong>n University, <strong>the</strong> Ne<strong>the</strong>rlands<br />
Principal Investigator at <strong>the</strong> IGC since 2009<br />
link to external website<br />
My research in evolutionary <strong>de</strong>velopmental biology is focused on <strong>the</strong> mechanistic<br />
basis of phenotypic variation and adaptation. Heritable phenotypic variation<br />
is <strong>the</strong> raw material for natural selection, and a universal property of biological<br />
systems - including traits of medical importance. Un<strong>de</strong>rstanding <strong>the</strong> mechanisms<br />
that generate this variation is a key challenge in biological research. How<br />
does <strong>the</strong> external environment regulate organismal <strong>de</strong>velopment to account for<br />
adaptive phenotypic plasticity? What are <strong>the</strong> gene types (e.g. transcription factors<br />
versus enzymes), specific genes, and gene regions (e.g. regulatory versus<br />
coding sequence) that contribute to evolutionarily relevant variation? How do<br />
<strong>the</strong>y affect <strong>de</strong>velopment to produce different adult phenotypes? For <strong>the</strong> dissection<br />
of variation in complex, diversified and ecologically-relevant phenotypes<br />
<strong>the</strong> lab is currently using two systems: wing colour patterns in butterflies and<br />
caste morphology in ants.<br />
EVOLUTIONARY DIVERSIFICATION:<br />
GENETIC BASIS AND ADAPTIVE SIGNIFICANCE OF VARIATION<br />
IN BUTTERFLY WING PATTERNS<br />
Morphological diversity is <strong>the</strong> result of <strong>the</strong> reciprocal interactions between <strong>the</strong><br />
<strong>de</strong>velopmental processes that translate genotype into phenotype and produce<br />
adult morphologies, and <strong>the</strong> evolutionary forces that weigh in <strong>the</strong> performance<br />
of alternative phenotypes to <strong>de</strong>termine <strong>the</strong>ir frequency. The project focuses on<br />
butterfly wing patterns to integrate analysis of genetics in a lab mo<strong>de</strong>l with <strong>the</strong><br />
analysis of morphological and genetic diversification across representatives of<br />
different lineages. This type of integrated analysis (from genotypic variation, to<br />
phenotypic variation within-species, to phenotypic diversification across species)<br />
can provi<strong>de</strong> important insights into fundamental issues in evo-<strong>de</strong>vo and<br />
our un<strong>de</strong>rstanding of morphological diversity. This project analyses different<br />
types of phenotypic variation (quantitative genetic variation and alleles of large<br />
effect) at <strong>the</strong> ecological (fitness of variant morphologies) and genetic (mapping<br />
and expression analysis) levels.<br />
GROUP MEMBERS<br />
Roberto A. Keller (Post-doc)<br />
Inês Conceição (Post-doc; left in March)<br />
Maria A<strong>de</strong>lina Jerónimo (PhD stu<strong>de</strong>nt; started in May)<br />
Leila Shirai (PhD stu<strong>de</strong>nt)<br />
Ana Rita Mateus (PhD stu<strong>de</strong>nt)<br />
Filipa Marta (Technician; started in August)<br />
COLLABORATORS<br />
Anthony Long (University of California at Irvine, USA)<br />
Paul Brakefield (Lei<strong>de</strong>n University, The Ne<strong>the</strong>rlands)<br />
Tom van Dooren (Ėcole Normale Supėrieure <strong>de</strong> Paris, France)<br />
Christian Peeters (Université Pierre-et-Marie Curie, France)<br />
Filipa Abreu (<strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência, Portugal)<br />
Vassilis Douris (Lei<strong>de</strong>n University, The Ne<strong>the</strong>rlands)<br />
Suzanne Saenko (Lei<strong>de</strong>n University, The Ne<strong>the</strong>rlands)<br />
Niklas Wahlberg (University of Turku, Finland)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Speed-dating at Optimus Alive! Festival, Algés, July<br />
Biology in Mo<strong>de</strong>rn Times Seminar for Teachers,<br />
<strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência, May<br />
Work on this project in 2011 was mostly <strong>de</strong>dicated to finishing and publishing<br />
work still not published. Specifically, we completed <strong>the</strong> annotation and comparative<br />
analysis of both protein-coding and non-coding genomic sequence around<br />
eleven genes expressed in <strong>de</strong>veloping wings (Conceição et al. PLoS ONE 2011).<br />
The final report, submitted to FCT (National funding agency) was awar<strong>de</strong>d <strong>the</strong><br />
top gra<strong>de</strong>, “A”.<br />
THE CONTRIBUTION OF NOVEL GENES TO THE FORMATION<br />
OF EVOLUTIONARY NOVELTIES<br />
The origin and modification of evolutionary novelties (i.e. lineage-restricted<br />
traits such as fea<strong>the</strong>rs in birds and wing patterns in butterflies) are key topics<br />
in evolutionary <strong>de</strong>velopmental biology. While <strong>the</strong>re is no doubt that conserved<br />
<strong>de</strong>velopmental pathways can acquire new functions and be recruited for <strong>the</strong><br />
formation of such novel traits, <strong>the</strong> contribution of genes restricted to specific<br />
lineages remains un<strong>de</strong>r-tested. In fact, <strong>the</strong> popular expression that assigns <strong>the</strong><br />
evolution of novelties to “teaching old genes new tricks” might be biased by <strong>the</strong><br />
standard approach which studies “shared genes” known in lab mo<strong>de</strong>ls, ra<strong>the</strong>r<br />
than i<strong>de</strong>ntify and pursue "new ones" in non-mo<strong>de</strong>ls. This project will contribute<br />
to overcome this bias and specifically test <strong>the</strong> involvement of candidate novel<br />
(or highly diverged) new genes in <strong>the</strong> formation of butterfly wing colour patterns<br />
(evolutionary novelties characteristic of lepidopterans and used in visual<br />
communication).<br />
We completed <strong>the</strong> in silico sequence analysis of a few hundred candidate novel<br />
genes, (including search for repetitive and coding regions, putative functional<br />
domains, and orthologous genes in public <strong>de</strong>positories) to generate a short-list<br />
In a paper published in 2011 in <strong>the</strong> Open Access journal EvoDevo, we report on<br />
a phylogenetic-wi<strong>de</strong> analysis of <strong>the</strong> expression of <strong>the</strong> Hox gene Antennapedia<br />
in association with <strong>the</strong> formation and diversification of a mo<strong>de</strong>l novel trait. We<br />
show novel patterns of Antennapedia expression in presumptive eyespot organisers<br />
in larval wing discs (before organiser genes Notch and Distal-less) which are<br />
restricted to a particular lineage of eyespot-bearing butterflies.<br />
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of ca. 30 candidate genes for expression analysis. For <strong>the</strong> latter, we have <strong>de</strong>signed<br />
primers and probes and started optimizing semi-quantitative PCR and in<br />
situ hybridisation protocols for analysis of levels and spatial patterns of gene<br />
expression, respectively.<br />
COPING WITH CHANGING ENVIRONMENTS:<br />
GENETIC AND PHYSIOLOGICAL MECHANISMS OF ADAPTIVE PLASTICITY<br />
Phenotypic plasticity is <strong>the</strong> ability of some genotypes to <strong>de</strong>velop into distinct<br />
phenotypes <strong>de</strong>pending on environmental conditions. Adaptive phenotypic plasticity<br />
leads to a better match between phenotype and selective environment<br />
and can be a solution for <strong>de</strong>aling with fluctuating environments. Many insects<br />
living in such environments have evolved phenotypic plasticity, including seasonal<br />
polyphenisms in butterfly wing patterns. This study investigates <strong>the</strong> proximate<br />
mechanisms (genetic and physiological) behind <strong>de</strong>velopmental plasticity in<br />
butterfly wing patterns, and explores <strong>the</strong>ir potential role in contributing to how<br />
species cope with changing environments.<br />
We analysed <strong>the</strong> data on <strong>the</strong> effects on adult phenotypes (including wing patterns<br />
and body-part allocations) of ecdysteroid manipulations in pupae, and<br />
we started preparing two manuscripts where <strong>the</strong>se results will be reported on<br />
(Mateus et al. in prep; Oostra et al. in prep). We also finished ga<strong>the</strong>ring images<br />
to characterize wing pattern reaction norms for different genetic backgrounds<br />
(to assess genetic-by-environment effects, and <strong>the</strong> role of candidate loci in<br />
plasticity).<br />
EVOLUTION OF CASTE POLYPHENISM IN SOCIAL INSECTS:<br />
PATTERNS OF MORPHOLOGICAL DIVERSIFICATION IN ANTS<br />
Caste <strong>de</strong>termination in ants is a classic example of <strong>de</strong>velopmental plasticity.<br />
Larvae of <strong>the</strong> same genotype can <strong>de</strong>velop into adults with very distinct morphologies,<br />
each adapted for different roles within a colony. Typically, one or a<br />
few larger and winged queens ensure <strong>the</strong> reproductive function, whereas many<br />
wingless workers are responsible for colony maintenance. The <strong>de</strong>velopmental<br />
switch into alternative phenotypes is regulated by larval nutrition, which itself<br />
is un<strong>de</strong>r <strong>the</strong> control of <strong>the</strong> social environment. In collaboration with <strong>the</strong> group<br />
of Christian Peeters in Paris, this project studies how plastic <strong>de</strong>velopmental systems<br />
are regulated, and how <strong>the</strong>y evolve and diversify. Specifically, we want to:<br />
1. Establish a link between caste-specific morphologies and behaviours, in<br />
relation to colony ecology;<br />
2. Characterize <strong>the</strong> environmental regulation of caste <strong>de</strong>velopment.<br />
We analysed <strong>the</strong> data and started to prepare a manuscript (Keller et al. in prep)<br />
on <strong>the</strong> characterisation of caste-specific morphologies and <strong>the</strong>ir correlations<br />
with behaviour (at <strong>the</strong> level of caste-specific roles within a colony, and of reproductive<br />
strategies of whole colonies) for multiple ant species. Roberto Keller<br />
also established new lab populations of <strong>the</strong> ant Aphaenogaster senilis and<br />
established “colony partition” protocols to manipulate frequency of different<br />
sexes and castes produced.<br />
MORPHOLOGICAL DIVERSIFICATION THROUGH THE EVOLUTION<br />
OF DEVELOPMENTAL NETWORKS<br />
The genes that regulate <strong>de</strong>velopment are organized into intricate networks<br />
whose origin and evolution remains a largely unresolved topic. Of great interest<br />
is to what extent <strong>the</strong> different components of such networks contribute to<br />
phenotypic variation and diversification. The evolutionary outcome of changes<br />
on a <strong>de</strong>velopmental network <strong>de</strong>pends on both <strong>the</strong> nature of <strong>the</strong> change and<br />
<strong>the</strong> point in <strong>the</strong> network hierarchy where <strong>the</strong> change occurs. The diversified<br />
eyespot patterns that <strong>de</strong>corate <strong>the</strong> wings of satyrine butterflies offer <strong>the</strong> opportunity<br />
to address <strong>the</strong>se issues. Analysis of cross-species diversity and within-species<br />
variation in wing colour patterns can be integrated with an analysis<br />
of <strong>the</strong> un<strong>de</strong>rlying sequence of <strong>de</strong>velopmental steps and genetic un<strong>de</strong>rpinnings.<br />
Leila Shirai (PhD stu<strong>de</strong>nt) will investigate which type of changes in <strong>the</strong> un<strong>de</strong>rlying<br />
gene networks and respective <strong>de</strong>velopmental mechanisms are responsible<br />
for morphological diversification of this mo<strong>de</strong>l novel trait.<br />
We carried out <strong>the</strong> phylogenetic analysis of <strong>the</strong> recruitment of four conserved<br />
genes for expression in association with <strong>the</strong> early establishment of eyespots and<br />
eyespot-like elements in 13 species. The results of this analysis were prepared<br />
IGC ANNUAL REPORT ‘11<br />
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as a manuscript submitted in 2011 (Shirai et al. BMC Evol Biol 2012). Leila Shirai<br />
has also started to explore a novel technique for <strong>the</strong> functional analysis of <strong>the</strong><br />
Wingless protein in <strong>the</strong> production of colour rings in pupal wings of two eyespot<br />
lab mo<strong>de</strong>ls.<br />
WOUND RESPONSE AND PIGMENTATION PATTERN FORMATION:<br />
CELLULAR, MOLECULAR AND EVOLUTIONARY CONSIDERATIONS<br />
The healing of damage to <strong>the</strong> epi<strong>de</strong>rmis is a vital and universal process which<br />
involves pathways associated with scab formation, tissue repair and immunity.<br />
Despite <strong>the</strong> evolutionary conservation of many aspects of wound response,<br />
<strong>the</strong>re is also much diversity in this process. An interesting example occurs<br />
in Lepidopterans that can <strong>de</strong>velop organized pigmentation patterns around<br />
wound sites, which resemble native pattern elements called eyespots (an evolutionary<br />
novelty). In this project, Maria A<strong>de</strong>lina Jerónimo (PhD stu<strong>de</strong>nt) will<br />
use a butterfly lab mo<strong>de</strong>l to study <strong>the</strong> molecular, cellular and genetic mechanisms<br />
behind <strong>the</strong> formation of damage-induced patterns to gain new insights<br />
both into wound response (healing of <strong>de</strong>veloping tissues and involvement of<br />
melanin-pathway genes) and into <strong>the</strong> origin of evolutionary novelties (such as<br />
butterfly eyespots).<br />
This project started in May 2011 and A<strong>de</strong>lina Jerónimo has focused mostly on<br />
preliminary data collection and data analysis to optimize experimental protocols<br />
and to help gui<strong>de</strong> experimental <strong>de</strong>sign.<br />
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RESEARCH GROUPS<br />
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CELL CYCLE<br />
REGULATION<br />
Mónica Bettencourt-Dias Principal Investigator<br />
PhD in Molecular Cell Biology, UCL, Univ. London, UK<br />
Research Associate, University of Cambridge, UK<br />
Principal Investigator at <strong>the</strong> IGC since 2006<br />
link to external website<br />
Our research focuses on cell cycle progression and <strong>the</strong> cytoskeleton in normal<br />
<strong>de</strong>velopment and disease. We are particularly interested in <strong>the</strong> role played by<br />
microtubule organising structures, such as <strong>the</strong> centrosome, cilia and flagella.<br />
Despite <strong>the</strong>ir importance, we know very little about centrosome and cilia biogenesis<br />
or how <strong>the</strong>y may go awry in human disease. Our laboratory combines<br />
studies in mo<strong>de</strong>l organisms with studies in human cells, bioinformatics and<br />
ma<strong>the</strong>matical mo<strong>de</strong>lling to have an integrated view of this process. An un<strong>de</strong>rstanding<br />
of <strong>the</strong> pathways involved in cell cycle and cytoskeleton can generate<br />
diagnostic and prognostic markers and hopefully provi<strong>de</strong> novel <strong>the</strong>rapeutic targets<br />
in human disease.<br />
CONTROL OF CENTRIOLE STRUCTURE AND NUMBER<br />
In this grant we are asking two fundamental questions that are central to human<br />
disease: how is centriole structure and number established and regulated in<br />
<strong>the</strong> eukaryotic cell? To address <strong>the</strong>se questions we propose to i<strong>de</strong>ntify new<br />
molecular players, and to test <strong>the</strong> role of <strong>the</strong>se and known players in <strong>the</strong> context<br />
of specific mechanistic hypo<strong>the</strong>ses, using in vitro and in vivo mo<strong>de</strong>ls. We<br />
propose to <strong>de</strong>velop novel assays for centriole structure and regulation in or<strong>de</strong>r<br />
to address mechanistic problems not accessible with today’s assays. In our<br />
search for novel components we will use a multidisciplinary approach combining<br />
bioinformatics with high throughput screening. The use of in vitro systems will<br />
allow <strong>the</strong> quantitative dissection of molecular mechanisms, while <strong>the</strong> study of<br />
those mechanisms in Drosophila will allow us to un<strong>de</strong>rstand <strong>the</strong>m at <strong>the</strong> whole<br />
organism level.<br />
GROUP MEMBERS<br />
Adan Guerrero (Post-doc; started November 2011)<br />
Daniela Brito (Post-doc)<br />
Mariana Faria (Post-doc)<br />
Susana Gouveia (Post-doc)<br />
Swadhin Jana (Post-doc; started in June 2011)<br />
Filipe Leal (PhD stu<strong>de</strong>nt)<br />
Inês Bento (PhD stu<strong>de</strong>nt)<br />
Inês Ferreira (PhD stu<strong>de</strong>nt)<br />
Zita Carvalho Santos (PhD stu<strong>de</strong>nt)<br />
Pedro Machado (Technician)<br />
Tiago Amado (Technician)<br />
COLLABORATORS<br />
Eric Karsenti (EMBL, Germany)<br />
David Glover (University of Cambridge, UK)<br />
Michel Bornens (Institut Curie, France)<br />
Keith Gull (University of Oxford, UK)<br />
Juliette Azimza<strong>de</strong>h (University of California at San Francisco, USA)<br />
José Pereira-Leal (IGC, Portugal)<br />
Miguel Godinho Ferreira (IGC, Portugal)<br />
Brian Tsou (Sloan Kettering Institute, USA)<br />
Max Loda (Harvard Medical School, USA)<br />
Paula Chaves (<strong>Instituto</strong> Português <strong>de</strong> Oncologia, Portugal)<br />
FUNDING<br />
European Molecular Biology Organisation (EMBO), UK<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Speed-dating at Optimus Alive! Music Festival, July<br />
During this year we have been <strong>de</strong>veloping tools to follow PLK4 levels and activity<br />
through <strong>the</strong> cell cycle. Moreover we have been <strong>de</strong>veloping assays to follow<br />
centriole biogenesis in vitro. The laboratory will spend some time in <strong>the</strong> Marine<br />
Biology Laboratory to fur<strong>the</strong>r <strong>de</strong>velop those assays.<br />
CAUSES AND CONSEQUENCES OF CENTROSOME AND PLOIDY ABNORMALITIES<br />
IN HUMAN CANCER USING BARRETT'S OESOPHAGUS AS A MODEL<br />
Centrosomes are <strong>the</strong> major microtubule-organising centres in animal cells and<br />
abnormalities in <strong>the</strong>se structures have been observed in cancer. In<strong>de</strong>ed, compelling<br />
data has shown that cells from many cancers have multiple and abnormal<br />
centrosomes that are ei<strong>the</strong>r correlated with tumour malignancy or consi<strong>de</strong>red<br />
an early event during tumorigenesis. However, to this date, a causative link<br />
between centrosome abnormalities, which can be classified as numerical (e.g.<br />
extra centrosomes) or structural (e.g. longer centrioles), and cancer remains elusive.<br />
Our aim is to investigate how centrosome abnormalities contribute to tumorigenesis<br />
using Barrett's oesophagus (BE), a premalignant condition and only<br />
known precursor of oesophageal a<strong>de</strong>nocarcinoma, as a mo<strong>de</strong>l for human cancer.<br />
Our initial studies revealed that BE contain cells with abnormal centriolar structure<br />
but fewer cells contain centrosome amplification. Therefore, we <strong>de</strong>ci<strong>de</strong>d to<br />
extend our work to breast cancer since in this case centrosome amplification is<br />
well characterised.<br />
REGULATION OF CILIA BIOGENESIS IN DEVELOPMENT AND HUMAN DISEASE<br />
The first <strong>de</strong>scribed intermediate in centriole assembly showing nine-fold symmetry<br />
is a structure called cartwheel. Bld10/CEP135 and SAS-6 are two components<br />
of <strong>the</strong> cartwheel. We have recently found that Bld10 is likely to play a<br />
role in <strong>the</strong> assembly of <strong>the</strong> transition zone of Drosophila sperm (A1). Mutants in<br />
Bld10 show axonemes that lack <strong>the</strong> central microtubule pair, are immotile, and<br />
males are sterile. We are exploring <strong>the</strong>se parallels, in particular by studying <strong>the</strong><br />
function, regulation and interaction partners of SAS6 and BLD10 in centriole<br />
and axoneme formation. Drosophila testes are particularly useful to tackle this<br />
question as centrioles/basal bodies are particularly long and easy to image.<br />
Electron microscopy of sperm tails.<br />
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RESEARCH GROUPS<br />
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We have found a new precursor structure of <strong>the</strong> central microtubule pair in<br />
spermatocyte primary cilia. These structures are missing in Bld10 mutants. We<br />
have characterised <strong>the</strong> role of BLD10 in microtubule stabilisation and assembly<br />
of <strong>the</strong> central microtubule pair of <strong>the</strong> axoneme.<br />
REGULATION OF CENTRIOLE NUMBER IN DEVELOPMENT<br />
Oocytes are <strong>de</strong>void of centrioles. Fertilisation brings <strong>the</strong> basal body necessary<br />
to form <strong>the</strong> sperm tail, which becomes <strong>the</strong> first centriole of <strong>the</strong> zygote. The<br />
disappearance of centrioles during oogenesis and <strong>the</strong> inhibition of <strong>de</strong> novo<br />
formation might be central in avoiding par<strong>the</strong>nogenesis. We are now <strong>de</strong>scribing<br />
<strong>the</strong> regulation of centrosome proteins in <strong>the</strong> female germline in or<strong>de</strong>r to get<br />
insights into <strong>the</strong> factors that regulate centriole disappearance and that prevent<br />
<strong>de</strong> novo formation.<br />
We are completing <strong>the</strong> <strong>de</strong>scription of <strong>the</strong> casca<strong>de</strong> of events during oogenesis,<br />
which correlates with centriole loss. We are testing hypo<strong>the</strong>ses regarding how<br />
centriole loss is regulated.<br />
MICROTUBULE REGULATION IN CENTRIOLE BIOGENESIS MECHANISMS<br />
Studies on microtubules (MTs) have originated a vast amount of consistent data<br />
to substantiate <strong>the</strong>ir functional mechanisms. Yet, it is quite paradoxical that<br />
while <strong>the</strong>se polymers are recognised to be <strong>the</strong> major component of centrioles,<br />
little is known about <strong>the</strong>ir regulation in centriole biogenesis. This may stem<br />
from <strong>the</strong> fact that many microtubule regulators (MTRs) have pleiotropic roles.<br />
Our own data and that of o<strong>the</strong>r groups suggest that both known MTRs and<br />
centriole specific proteins play an important role in <strong>the</strong> recruitment of centriole<br />
components and in <strong>the</strong> assembly and elongation of centriole MTs. We propose<br />
to take advantage of that knowledge to gain fur<strong>the</strong>r insight on centriole biogenesis.<br />
We will use a highly multidisciplinary approach. We will investigate <strong>the</strong> function<br />
of two MTRs that we found to play a role in centriole biogenesis. In parallel, we<br />
will acquire a broa<strong>de</strong>r picture of this process, by i<strong>de</strong>ntifying novel MTRs with a<br />
role in centriole initiation and elongation.<br />
We are completing <strong>the</strong> <strong>de</strong>scription of <strong>the</strong> casca<strong>de</strong> of events during oogenesis,<br />
which correlates with centriole loss. We are testing hypo<strong>the</strong>ses regarding how<br />
centriole loss is regulated.<br />
MICROTUBULE REGULATION IN CENTRIOLE BIOGENESIS MECHANISMS<br />
Studies on microtubules (MTs) have originated a vast amount of consistent data<br />
to substantiate <strong>the</strong>ir functional mechanisms. Yet, it is quite paradoxical that<br />
while <strong>the</strong>se polymers are recognized to be <strong>the</strong> major component of centrioles,<br />
little is known about <strong>the</strong>ir regulation in centriole biogenesis. This may stem<br />
from <strong>the</strong> fact that many microtubule regulators (MTRs) have pleiotropic roles.<br />
Our own data and that of o<strong>the</strong>r groups suggest that both known MTRs and<br />
centriole specific proteins play an important role in <strong>the</strong> recruitment of centriole<br />
components and in <strong>the</strong> assembly and elongation of centriole MTs. We propose<br />
to take advantage of that knowledge to gain fur<strong>the</strong>r insight on centriole biogenesis.<br />
We will use a highly multidisciplinary approach. We will investigate <strong>the</strong> function<br />
of two MTRs that we found to play a role in centriole biogenesis. In parallel, we<br />
will acquire a broa<strong>de</strong>r picture of this process, by i<strong>de</strong>ntifying novel MTRs with<br />
a role in centriole initiation and elongation. This grant will be focused on <strong>the</strong><br />
screen, which we will perform in-house. In task 1 we propose to build a list of<br />
candidates to screen for players in centriole elongation.<br />
We <strong>de</strong>signed two assays to uncover players in <strong>the</strong> different phases of <strong>the</strong> centrosome<br />
cycle: centriole duplication and centriole elongation. We are now finishing<br />
<strong>the</strong> characterisation of <strong>the</strong> best centriole markers to finally start <strong>the</strong><br />
screen.<br />
Drosophila sperm tails stained with centriole marker (red), tubulin (green) and DNA.<br />
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RESEARCH GROUPS<br />
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QUANTITATIVE<br />
ORGANISM BIOLOGY<br />
Jorge Carneiro Principal Investigator<br />
PhD in Biomedicine, Universida<strong>de</strong> do Porto, 1997<br />
Post-doctoral Fellow, Theoretical Biology and Bioinformatics,<br />
University of Utrecht, NL<br />
Coordinator of <strong>the</strong> Estudos Avançados <strong>de</strong> Oeiras<br />
Director PhD Programme in Computational Biology<br />
Principal Investigator at <strong>the</strong> IGC since 1998<br />
link to external website<br />
We are broadly interested in <strong>the</strong> mechanisms un<strong>de</strong>rlying organismal properties<br />
(namely immunological tolerance, body form and sensorimotor coordination)<br />
and in creating quantitative mo<strong>de</strong>lling frameworks that bridge between <strong>the</strong> biochemical<br />
micro-dynamics of individual cells and <strong>the</strong> supracellular collective behaviour.<br />
In immunology, we study <strong>the</strong> cell population dynamics and homeostasis<br />
involved in <strong>the</strong> interplay between health, autoimmunity and cancer; and search<br />
for methods to measure repertoire diversity and structure. In cell biology, we<br />
study stochastic gene expression and epigenetic regulation focusing on several<br />
instances of monoallelic gene expression (e.g. antigen-receptor and cytokine<br />
genes). We are also interested in un<strong>de</strong>rstanding cellular form and motility, and<br />
collective tissue dynamics. We are creating new simulation methods and tools<br />
for rigorous comparison of simulation results with live-imaging data.<br />
BIOINSTBOTS:<br />
FROM BIO-INSPIRED TO INSTITUTIONAL-INSPIRED COLLECTIVE ROBOTICS<br />
The main inspiration for collective robotics mo<strong>de</strong>lling, analysis and <strong>de</strong>sign originated<br />
from <strong>the</strong> biology of social insects. Despite <strong>the</strong> success of swarm robotics<br />
in relatively simple applications, <strong>the</strong>re is no systematic method to <strong>de</strong>sign individual<br />
behaviours at <strong>the</strong> micro level, including <strong>the</strong>ir interaction-based actions,<br />
in or<strong>de</strong>r to obtain a <strong>de</strong>sired collective behaviour at <strong>the</strong> macro level. In fact,<br />
<strong>the</strong> emergent nature of <strong>the</strong> collective behaviour is a principle that preclu<strong>de</strong>s<br />
goal- or performance-oriented <strong>de</strong>sign. We seek to study and formalise laws<br />
that govern collective systems with <strong>the</strong> aim of syn<strong>the</strong>sising systems of relatively<br />
simple robots that display complex behaviour. In or<strong>de</strong>r to achieve this goal,<br />
we study both biological systems and social systems. From biology, we focus<br />
on cell populations. A single cell is relatively simple when compared with a cell<br />
population, a cellular tissue or an organism. While from sociology, we focus on<br />
institutional economics. Our objective is to bring toge<strong>the</strong>r <strong>the</strong>ories, i<strong>de</strong>as and<br />
inspiration from institutional economics and cell biology un<strong>de</strong>r a common formal<br />
framework for large robot populations mo<strong>de</strong>lling and analysis.<br />
GROUP MEMBERS<br />
Danesh Tarapore (Post-doc)<br />
Thiago Guzella (PhD stu<strong>de</strong>nt) (co-supervised by Vasco Barreto))<br />
Tiago Macedo (PhD stu<strong>de</strong>nt)<br />
Tom Weber (PhD stu<strong>de</strong>nt)<br />
Pedro Silva (Masters stu<strong>de</strong>nt) (left in September)<br />
COLLABORATORS<br />
Alberto Darszon (<strong>Instituto</strong> <strong>de</strong> Biotecnologia, UNAM, Cuernavaca, Mexico)<br />
Gabriel Corkidi (<strong>Instituto</strong> <strong>de</strong> Biotecnologia, UNAM, Cuernavaca, Mexico)<br />
Michal Or-Guil (Research Center ImmunoSciences (RCIS),<br />
Humboldt University, Berlin, Germany)<br />
Carmen Molina-Paris and Grant Ly<strong>the</strong> (Department of Ma<strong>the</strong>matics.<br />
University of Leeds, UK)<br />
Pedro Lima (Institute of Systems and Robotics. IST/UTL, Portugal)<br />
An<strong>de</strong>rs Lyhne Christensen (<strong>Instituto</strong> <strong>de</strong> Telecomunicações<br />
& <strong>Instituto</strong> Universitário <strong>de</strong> Lisboa (ISCTE-IUL), Portugal)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia, (FCT), Portugal<br />
Conacyt - Consejo Nacional <strong>de</strong> Ciencia y Tecnología, Mexico<br />
For <strong>de</strong>tailed quantitative simulations of cell populations and tissues that can be<br />
rigorously formalised and validated by comparison with <strong>the</strong> natural system, we<br />
focused on two cases studies:<br />
1. CD4 T cell population dynamics;<br />
2. Spatial pattern formation and dynamics in cell aggregates and tissues.<br />
We re<strong>de</strong>ployed T cells dynamics within a multiagent robotic system showing<br />
that <strong>the</strong> collective dynamics brings forth a classification of environmental objects<br />
according to some proto “self-nonself” categorisation that was not prescribed<br />
to <strong>the</strong> individual agents.<br />
MORPHODYNAMIC MODELLING AND IMAGING OF SEA URCHIN SPERMATOZOA<br />
SWIMMING AND CHEMOTAXIS<br />
Flagella and cilia are structurally conserved, present in many cell types and are<br />
fundamental for many biological processes. Multiple diseases, including disruption<br />
of left-right body asymmetry, result from ciliar protein mutations. Flagellar<br />
driven sperm motility is crucial for gamete encounter and fertilisation. The objective<br />
of this collaborative project with <strong>the</strong> group of Alberto Darszon from <strong>the</strong><br />
Institute for Biotechnology, UNAM (Cuernavaca, Mexico) is to gain insight into<br />
sea urchin spermatozoa flagellar morphodynamics, making use of state of <strong>the</strong><br />
art imaging techniques and ma<strong>the</strong>matical mo<strong>de</strong>lling. We search to un<strong>de</strong>rstand<br />
how molecular signals produced by <strong>the</strong> egg regulate intracellular [Ca2+] and flagellar<br />
beating to gui<strong>de</strong> spermatozoon towards <strong>the</strong> egg in <strong>the</strong> 3D world. We aim<br />
to <strong>de</strong>velop morphodynamical mo<strong>de</strong>ls of sperm cells and <strong>de</strong>ploy <strong>the</strong>se mo<strong>de</strong>ls<br />
for quantitative image analysis.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
28
We have previously <strong>de</strong>veloped a spermatozoon mo<strong>de</strong>l that integrates <strong>the</strong> molecular<br />
signalling networks, <strong>the</strong> flagellum morphodynamics, and <strong>the</strong> swimming<br />
behaviour in presence or absence of environmental cues. This mo<strong>de</strong>l semiquantitatively<br />
<strong>de</strong>scribes <strong>the</strong> trajectories of chemotatic and non-chemotatic<br />
spermatozoa of L pictus and S purpuratus, respectively. After calibrating <strong>the</strong><br />
morphodynamical mo<strong>de</strong>l using high temporal timelapse imaging of L pictus<br />
sperm we used <strong>the</strong> mo<strong>de</strong>l to successfully track S purpuratus spermatozoa<br />
[Pedro Silva's Masters <strong>the</strong>sis, 2011].<br />
A<br />
B<br />
C<br />
INTEGRATED MORPHODYNAMICAL MODEL OF A CHEMOTACTIC SEA URCHIN<br />
SPERMATOZOON.<br />
A - signal transduction network controlling intracellular [Ca2 + ] and flagellar beating<br />
pattern. B - observed (left) and mo<strong>de</strong>lled (right) time course of intracellular<br />
[Ca2 + ]-spike trains observed in single cells following <strong>the</strong> response to sperm activating<br />
pepti<strong>de</strong> (SAP). C - observed (blue graph) and mo<strong>de</strong>lled (red graph) chemotactic<br />
trajectory of spermatozoon in response to SAP gradient.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
29
MOLECULAR<br />
NEUROBIOLOGY<br />
Diogo S. Castro Principal Investigator<br />
PhD in Cell and Molecular Biology, Karolinska Institute, 2001<br />
Post doctoral fellow, MRC National Institute for Medical Research, London, UK<br />
Senior Investigator Scientist, MRC National Institute for Medical Research, London, UK<br />
Principal Investigator at <strong>the</strong> IGC since 2010<br />
The assembly of a functional nervous system <strong>de</strong>pends on <strong>the</strong> coordinated<br />
generation of neurons and glia cells from multipotent neural stem cells in <strong>the</strong><br />
<strong>de</strong>veloping embryo. The progression of this differentiation process is associated<br />
and controlled by changes in gene expression programmes that need to<br />
be very tightly regulated. For <strong>the</strong> moment we are mostly interested in un<strong>de</strong>rstanding<br />
<strong>the</strong> role played by various transcription factors, with a special focus<br />
on bHLH proneural proteins, in neurogenesis. We aim at characterising <strong>the</strong>ir<br />
transcriptional networks, as well as un<strong>de</strong>rstanding <strong>the</strong> molecular mechanisms by<br />
which such programmes are regulated, and how <strong>the</strong>y contribute to <strong>the</strong> acquisition<br />
of specific cellular phenotypes. In our work we take advantage of recently<br />
<strong>de</strong>veloped genomic approaches that allow <strong>the</strong> characterisation of transcriptional<br />
programmes at a genome wi<strong>de</strong> level, complemented with more classical<br />
methods to study gene expression, having <strong>the</strong> mouse embryo as a mo<strong>de</strong>l<br />
system.<br />
GROUP MEMBERS<br />
Alexandre Raposo (Post-doc, started in August 2011)<br />
Vera Teixeira (Post-doc, started in May 2011)<br />
Francisca Vasconcelos (PhD stu<strong>de</strong>nt)<br />
Pedro Rosmaninho (PhD stu<strong>de</strong>nt, started in April 2011)<br />
COLLABORATORS<br />
François Guillemot (MRC National Institute for Medical Research, London, UK)<br />
Stefan Momma (Johann Wolfgang Goe<strong>the</strong> University, Frankfurt, Germany)<br />
Deolinda Lima (Faculda<strong>de</strong> <strong>de</strong> Medicina da Universida<strong>de</strong> do Porto,Portugal)<br />
Vania Broccoli (San Raffaele Scientific Institute, Milan, Italy)<br />
Carlos Parras (Hôpital <strong>de</strong> la Pitié-Salpêtrière, Paris, France)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
<strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência (IGC), Portugal<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Biology in Mo<strong>de</strong>rn Times seminars for teachers, IGC, April<br />
TRANSCRIPTIONAL CONTROL OF VERTEBRATE NEUROGENESIS<br />
BY THE PRONEURAL FACTOR MASH1<br />
Vertebrate neurogenesis is controlled, to a large extent, by basic helix-loophelix<br />
proneural factors such as Mash1 (aka Ascl1). The use of Mash1 in reprogramming<br />
protocols aiming at generating mature neurons from o<strong>the</strong>r cell types<br />
stresses <strong>the</strong> importance of un<strong>de</strong>rstanding <strong>the</strong> molecular mechanisms that un<strong>de</strong>rlie<br />
its activity. Recently, we have performed <strong>the</strong> first genome wi<strong>de</strong> characterisation<br />
of a neurogenic programme downstream of Mash1, by <strong>the</strong> large<br />
scale i<strong>de</strong>ntification of its transcriptional targets. Strikingly, our results showed<br />
that Mash1 directly controls both early (eg. cell fate commitment) and late (eg.<br />
neurite outgrowth) steps of neurogenesis. This project aims at investigating<br />
<strong>the</strong> epigenetic and transcriptional mechanisms that contribute to <strong>the</strong> temporal<br />
regulation of neurogenesis by Mash1, by analysing <strong>the</strong> role played by <strong>the</strong><br />
chromatin landscape and interactions with o<strong>the</strong>r transcriptional networks that<br />
operate in neural progenitors.<br />
We have i<strong>de</strong>ntified <strong>the</strong> zinc-finger transcription factor Myt1 as a direct target of<br />
Mash1 in a neurogenic context. A transcriptional synergy between <strong>the</strong> two factors<br />
in promoting differentiation suggests <strong>the</strong>y may <strong>de</strong>fine an important feedforward-loop<br />
at <strong>the</strong> onset of neurogenesis. The genome-wi<strong>de</strong> characterisation<br />
of Myt1 binding events in neural progenitors predict functional interactions with<br />
o<strong>the</strong>r important transcriptional regulators, currently being investigated.<br />
THE TRANSCRIPTIONAL NETWORK OF THE ZINC-FINGER FACTOR ZEB1<br />
AND ITS FUNCTION IN NEURAL STEM/PROGENITOR CELLS<br />
Current interest in neural stem cells <strong>de</strong>rives from <strong>the</strong> prospect of using <strong>the</strong>m<br />
in brain repair strategies, but also to un<strong>de</strong>rstand neuro<strong>de</strong>velopmental pathologies.<br />
This will require, however, a significant improvement of our un<strong>de</strong>rstanding<br />
of <strong>the</strong> gene expression programmes associated with <strong>the</strong>ir maintenance and differentiation,<br />
and how <strong>the</strong>se are regulated. Recently, several lines of evi<strong>de</strong>nce<br />
suggest a regulatory function for <strong>the</strong> zinc-finger transcription factor ZEB1, both<br />
in embryonic neural stem/progenitor cells, and in human tumours of neural<br />
origin. Here we propose to use a multidisciplinary approach, combining mouse<br />
genetics and genomics, to characterise <strong>the</strong> function of ZEB1 in neural <strong>de</strong>velopment.<br />
Moreover, a comparison of <strong>the</strong> ZEB1 transcriptional programmes in human<br />
foetal- and glioma-<strong>de</strong>rived stem cells will be carried out, providing important<br />
insights into ZEB1 function in tumour initiation and <strong>de</strong>velopment.<br />
We have begun to characterise <strong>the</strong> transcriptional programme downstream of<br />
Zeb1 in neural stem/progenitor cells, having performed its genome-wi<strong>de</strong> location<br />
analysis, by chromatin immunoprecipitation followed by <strong>de</strong>ep sequencing<br />
(ChIP-seq).<br />
HES6 PROMOTER.<br />
Genome-wi<strong>de</strong> location analysis by ChIP-seq shows binding of <strong>the</strong> transcription<br />
factors Mash1, Hes1 and Myt1 to <strong>the</strong> proximal promoter region of <strong>the</strong> neurogenic<br />
gene Hes6.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
30
POPULATION<br />
AND CONSERVATION<br />
GENETICS<br />
Lounès Chikhi Principal Investigator<br />
PhD in Population Genetics, Pierre et Marie Curie (Paris VI), 1995<br />
Chargé <strong>de</strong> Recherche 1ère classe CNRS (Centre National <strong>de</strong> la Recherche Scientifique)<br />
Principal Investigator at <strong>the</strong> IGC since 2007<br />
link to external website<br />
The Population and Conservation Genetics Group (PCG) carry out research in<br />
<strong>the</strong> area of conservation and human population genetics. Genetic data can be<br />
used to reconstruct <strong>the</strong> recent <strong>de</strong>mographic history of populations and species<br />
to i<strong>de</strong>ntify key features of that history such as contractions and expansions.<br />
We are interested in un<strong>de</strong>rstanding <strong>the</strong> statistical properties of genetic data<br />
in wild or managed populations to <strong>de</strong>termine when and how genetic data can<br />
be used to make statements about populations’ recent evolutionary history.<br />
We are also working on <strong>the</strong> conservation of rare and endangered species providing<br />
estimates of <strong>the</strong> numbers of remaining lemurs in <strong>the</strong> north and northwest<br />
of Madagascar. Our work involves field and lab work toge<strong>the</strong>r with data analysis,<br />
computer simulations, and <strong>the</strong> <strong>de</strong>velopment of simulation tools.<br />
DEMOGRAPHIC AND GENETIC RESPONSES TO HABITAT FRAGMENTATION<br />
AND HABITAT LOSS IN TWO LARGE FOREST MAMMALS<br />
Habitat loss and habitat fragmentation are among <strong>the</strong> major causes of biodiversity<br />
loss affecting tropical forests across <strong>the</strong> world. The project fosuses on<br />
two endangered species from Borneo whose environment has un<strong>de</strong>rgone intensive<br />
<strong>de</strong>forestation in <strong>the</strong> last 100-150 years. The Bornean Asian forest elephant<br />
(Elephas maximus borneensis) and <strong>the</strong> Bornean orang-utan (Pongo pygmaeus)<br />
are among <strong>the</strong> most endangered species living in Sabah (North Borneo), and are<br />
affected by <strong>the</strong> increasing conversion of forest into oil-palm plantations. While<br />
genetic data are accumulating on African great apes and elephants, <strong>the</strong> data<br />
on <strong>the</strong>ir Asian relatives are very few and mostly based on captive populations.<br />
There is a need for comparative data (across species and habitats), and for<br />
conceptual and <strong>the</strong>oretical tools. The project aims at using population genetics<br />
mo<strong>de</strong>lling and genomic data from non-invasive samples to analyse <strong>the</strong> patterns<br />
of genetic diversity within and between populations.<br />
The genomic markers i<strong>de</strong>ntified using NGS techniques have been tested and typed<br />
on DNA extracted from blood and faecal material. Very limited genetic diversity<br />
across microsatellites and SNPs was i<strong>de</strong>ntified this way. Altoge<strong>the</strong>r eight papers<br />
were published (three in 2009, four in 2010 and one in 2012), including two in Genetics,<br />
one in Molecular Ecology, one in Heredity, and two in Mol. Ecol. Resources.<br />
Three are currently being written. We thus expect 11 papers for this project.<br />
GROUP MEMBERS<br />
Cécile Vanpé (Post-doc)<br />
Reeta Sharma (Post-doc)<br />
Bárbara Parreira (PhD stu<strong>de</strong>nt)<br />
Isabel Alves (PhD stu<strong>de</strong>nt, started in May)<br />
João Alves (PhD stu<strong>de</strong>nt)<br />
Jordi Salmona (PhD stu<strong>de</strong>nt)<br />
Rita Rasteiro (PhD stu<strong>de</strong>nt, left in September)<br />
Isa Pais (Research Assistant)<br />
Célia Rodrigues (Trainee & Optimus Alive Research Fellow)<br />
Sam Viana (Optimus Alive Research Fellow, left in March)<br />
COLLABORATORS<br />
Benoît Goossens (School of Biosciences, Cardiff University, UK & Danau<br />
Girang Field Center - Sabah Wildlife <strong>de</strong>partment, Malaysia)<br />
Nurzhafarina Othman (Universiti Malaysia Sabah, Kota Kinabalu, Malaysia)<br />
Michael Bruford (School of Biosciences, Cardiff University, UK)<br />
Marc Ancrenaz (Kinabatangan Orang-utan Conservation Project, Sukau,<br />
Sabah, Malaysia)<br />
Isabelle Lackman-Ancrenaz (Kinabatangan Orang-utan Conservation Project,<br />
Sukau, Sabah, Malaysia)<br />
Brigitte Crouau-Roy (Univ. <strong>de</strong> Toulouse, France)<br />
Christophe Thébaud (Univ. <strong>de</strong> Toulouse, France)<br />
Clément Rabarivola (Univ. Mahajanga, Madagascar)<br />
Brigitte Crouau-Roy (Univ. <strong>de</strong> Toulouse, France)<br />
Christophe Thébaud (Univ. <strong>de</strong> Toulouse, France)<br />
Clément Rabarivola (Univ. Mahajanga, Madagascar)<br />
Ute Ra<strong>de</strong>spiel (Institute of Zoology, Univ. of Veterinary Medicine Hannover,<br />
Germany)<br />
Mark Beaumont (University of Bristol, UK)<br />
Mathias Currat (Department of Anthropology and Ecology, University<br />
of Geneva, Switzerland)<br />
Juan Montoya-Burgos (University of Geneva, Switzerland)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
Fondation pour la Recherche sur la Biodiversité, France<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Talks for school stu<strong>de</strong>nts, Porto (May)<br />
Optimus Alive! Biodiversity Activity, Algés (July)<br />
GENETIC EFFECTS OF HABITAT LOSS AND FRAGMENTATION:<br />
COMPARATIVE ANALYSIS OF SEVERAL LEMUR SPECIES<br />
IN TWO NEIGHBOURING REGIONS OF MADAGASCAR - I<br />
Madagascar is well known for its extremely diverse and mostly en<strong>de</strong>mic fauna and<br />
flora. However, <strong>the</strong> island has suffered from drastic environmental changes in last<br />
millennia, leading to <strong>the</strong> extinction of many species. Lemurs are forest-dwelling<br />
animals and are thus particularly affected by <strong>the</strong>se changes. The relative importance<br />
of natural and anthropogenic factors in <strong>the</strong> extinction of populations and<br />
species is likely to have varied from one region to ano<strong>the</strong>r and from a group of<br />
species to ano<strong>the</strong>r. However, <strong>the</strong> consequences of <strong>the</strong>se disturbances on <strong>the</strong><br />
genetic structure of fragmented populations have not been studied for many<br />
species and are still poorly un<strong>de</strong>rstood. Our aim in this project is to carry out<br />
<strong>the</strong> first comparative analyses across several lemurs genera and study <strong>the</strong> effect<br />
of habitat loss and fragmentation in <strong>the</strong> north and northwest of Madagascar,<br />
and to <strong>de</strong>velop new genetic markers for this aim.<br />
Non-invasive material has been collected and <strong>de</strong>nsities have been estimated for<br />
several Propi<strong>the</strong>cus species increasing <strong>the</strong> regional sampling that had been initiated<br />
in <strong>the</strong> previous years. Papers have been published on both <strong>the</strong> genetic and <strong>de</strong>nsity<br />
estimation work. Sampling of <strong>the</strong> Eulemur species has proven more difficult and<br />
sample sizes for wild animals are still limited. Altoge<strong>the</strong>r eleven papers were published<br />
(in Proc. Roy Soc. B, BMC Evol. Biol., Biol. Cons., Am J Prim, Mol Ecol, Genetics.)<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
31
GENETIC EFFECTS OF HABITAT LOSS AND FRAGMENTATION:<br />
COMPARATIVE ANALYSIS OF SEVERAL LEMUR SPECIES<br />
IN TWO NEIGHBOURING REGIONS OF MADAGASCAR – II<br />
The island of Madagascar is one of <strong>the</strong> most important biodiversity hot spots<br />
in <strong>the</strong> world with extremely high levels of en<strong>de</strong>mism in primates, amphibians,<br />
reptiles, and plants. Lemurs, with around 100 species represent one of <strong>the</strong> most<br />
spectacular adaptive radiation. However, landscapes are now reduced to a mosaic<br />
of fragmented forests. Despite this alarming situation, most genetic studies<br />
focus on <strong>the</strong> i<strong>de</strong>ntification of new species, or on <strong>the</strong> diversity within one or two<br />
populations, and analyse one species in one geographical area. In this project<br />
our aim is to:<br />
1. Study HL&F across lemur taxa in two neighbouring regions;<br />
2. Develop inferential methods that explicitly mo<strong>de</strong>l and account for <strong>the</strong> past<br />
<strong>de</strong>mographic history of populations and species;<br />
3. Develop genomic markers to answer <strong>the</strong>se questions.<br />
Population sizes and <strong>de</strong>nsities have been estimated in <strong>the</strong> field for nocturnal<br />
(Microcebus and Lepilemur genera) and dirunal (Propi<strong>the</strong>cus) lemurs. Microcebus<br />
and Lepilemur have been captured and biopsies collected for both genera.<br />
Five papers were published, including one on <strong>the</strong> <strong>de</strong>nsity of Microcebus and<br />
Lepilemur, and one on Propi<strong>the</strong>cus coronatus, and some <strong>the</strong>oretical papers on<br />
spatial processes. Three manuscripts have been submitted.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
32
NEUROBIOLOGY<br />
OF ACTION<br />
Rui M. Costa Principal Investigator<br />
PhD in Biomedical Sciences, Universida<strong>de</strong> do Porto, Portugal, 2002<br />
Section Chief, NIH, USA<br />
THIS GROUP IS A MEMBER OF THE CHAMPALIMAUD NEUROSCIENCE PROGRAMME AT THE IGC<br />
Member of IGC Ethics Committee<br />
Principal Investigator at <strong>the</strong> IGC since 2009<br />
link to external website<br />
To study actions is to study <strong>the</strong> way we do things, which is different than studying<br />
how we remember stimuli, or facts and events. Some actions are innate or<br />
prewired. O<strong>the</strong>rs are learned anew throughout life, likely through a process of<br />
trial and feedback. We currently focus on un<strong>de</strong>rstanding <strong>the</strong> processes mediating<br />
<strong>the</strong> latter.<br />
Our overall goal is to un<strong>de</strong>rstand how changes in molecular networks in <strong>the</strong><br />
brain modify neural circuits to allow <strong>the</strong> generation of novel actions and <strong>the</strong>ir<br />
shaping by experience. To achieve this, we subdivi<strong>de</strong>d our experiments into different<br />
sub-goals to study action generation, action shaping and automatisation<br />
and action goals.<br />
NEURAL MECHANISMS OF SKILL AND SEQUENCE LEARNING<br />
Un<strong>de</strong>rstanding how novel actions are learned and consolidated as sequences<br />
of movements and skills are <strong>the</strong> main aims of this project. We have uncovered<br />
neural activity in basal ganglial circuits that are related to <strong>the</strong> learning and execution<br />
of sequences of movements. We also used optogenetics to i<strong>de</strong>ntify and<br />
manipulate <strong>the</strong> neurons mediating this activity.<br />
CORTICOSTRIATAL MECHANISMS UNDERLYING GOAL-DIRECTED<br />
ACTIONS AND HABITS<br />
Our goal is un<strong>de</strong>rstanding <strong>the</strong> difference in <strong>the</strong> brain between intentional actions<br />
and habits or routines. We have uncovered that <strong>the</strong> dopamine transporter is a<br />
critical gate for habit formations; and also that different corticostriatal circuits<br />
dynamically interact during <strong>the</strong> shift between goal-directed actions and habits.<br />
GROUP MEMBERS<br />
Ca<strong>the</strong>rine French (Post-doc)<br />
Cristina Afonso (Post-doc)<br />
Fatuel Aguilar (Post-doc)<br />
Gabriela Martins (Post-doc)<br />
Rodrigo Oliveira (Post-doc, started in April)<br />
Vitor Paixão (Post-doc)<br />
Albino Maia (Clinical Research Fellow)<br />
Rosalina Fonseca (Clinical Research Fellow)<br />
Ana Mafalda Vicente (PhD stu<strong>de</strong>nt)<br />
Eduardo Ferreira (PhD stu<strong>de</strong>nt)<br />
Fernando Santos (PhD stu<strong>de</strong>nt)<br />
Ana Maria Vaz (Research Technician)<br />
COLLABORATORS<br />
Jose Carmena (UC Berkeley, USA)<br />
FUNDING<br />
European Research Council (ERC), European Commission;<br />
FP7 Marie Curie Integration grant, European Commission<br />
Champalimaud Foundation, Portugal<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
Contract research, EcBio, Portugal<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Brain Awareness week, Lisbon area, March<br />
Visits to schools, Lisbon and Guarda<br />
NEURAL MECHANISMS UNDERLYING THE GENERATION OF NOVEL ACTIONS<br />
This project aims to un<strong>de</strong>rstand how new self-initiated actions are generated<br />
and how this ability is hampered in Parkinson´s disease. We have <strong>de</strong>veloped a<br />
new methodology to classify in an unbiased manner different behavioural and<br />
neural states.<br />
SPECIFICITY OF CRE EXPRESSION IN in PV Cre AND ChAT Cre MICE.<br />
A - Montage of images from an adult brain section through <strong>the</strong> striatum <strong>de</strong>monstrating<br />
YFP colocalisation with PV in <strong>the</strong> PV Cre mouse line crossed with a ROSA26-<br />
YFP reporter mouse. B-G - The inset in dorso-lateral striatum <strong>de</strong>picts <strong>the</strong> location<br />
from where <strong>the</strong> smaller images were obtained. B-D - The first column <strong>de</strong>monstrates<br />
PV immuno-reactivity (in red; B), YFP expression (green; C), and colocalisation<br />
of both (yellow; D) in <strong>the</strong> PV Cre -ROSA-YFP mouse striatum. E-G - The second<br />
panel shows ChAT immuno-reactivity (in red; E), YFP expression (green, F), and<br />
colocalisation of both (yellow; G) in a ChAT Cre -ROSA-YFP mouse striatum. Scale<br />
bars = (A) 500µm; (D) 125µm for (B-G). (by Gabriela Martins)<br />
THE ROLE OF DIFFERENT STRIATAL CIRCUITS IN ACTION LEARNING.<br />
Left - Mice performing a behaviour task-walking on a rotating rod-which requires<br />
action learning that <strong>de</strong>pends on striatal circuits in <strong>the</strong> brain. Right - I<strong>de</strong>ntification<br />
of striatal medium spiny neurons of <strong>the</strong> direct pathway expressing D1 dopamine<br />
receptor (in red) and striatal medium spiny neurons of <strong>the</strong> indirect pathway expressing<br />
D2 receptor (in green). Note <strong>the</strong> two populations do not overlap.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
33
LYMPHOCYTE<br />
PHYSIOLOGY<br />
Jocelyne Demengeot Principal Investigator<br />
PhD in Cellular and Molecular Biology, Université AIX-MARSEILLE II, 1989<br />
Post-doctoral Fellow, Columbia University, NY, USA<br />
HHMI Research Associate - Harvard Medical School, Boston, USA<br />
Research Associate, Institut Pasteur, Paris, France<br />
Deputy Director for Scientific Affairs<br />
Scientific supervisor of <strong>the</strong> Antibody production facility<br />
Head of <strong>the</strong> Animal House facility<br />
Principal Investigator at <strong>the</strong> IGC since 1998<br />
We are concerned with those properties of <strong>the</strong> immune system that guarantee<br />
tissue integrity as well as tolerance to commensals and food antigens while<br />
maintaining <strong>the</strong> ability to mount efficient responses to infectious agents. We<br />
approach <strong>the</strong> cellular and molecular bases of immune regulation through <strong>the</strong><br />
analysis of various mouse mo<strong>de</strong>ls, notably of spontaneous or induced autoimmune<br />
and immuno-pathological inflammation. Keeping in mind that <strong>the</strong> vertebrate<br />
immune system relies on <strong>the</strong> production of a very large diversity of<br />
antigen receptors through genomic rearrangement by <strong>the</strong> RAG recombinases,<br />
we also maintain a line of research assessing <strong>the</strong> consequences of <strong>de</strong>regulated<br />
RAG activity on genomic integrity and on lymphocyte homeostasis. Our<br />
interests merge within various collaborative projects, notably addressing <strong>the</strong><br />
efficiency of immuno<strong>the</strong>rapies for Systemic Lupus Ery<strong>the</strong>matosus, Rheumatoid-<br />
Arthritis and Type-1 Diabetes.<br />
GROUP MEMBERS<br />
Andreia Lino (Post-doc)<br />
Elodie Mohr (Post-doc)<br />
Marie Bonnet (Post-doc)<br />
Marie Louise Bergman (Post-doc)<br />
Ricardo Paiva (PhD stu<strong>de</strong>nt)<br />
Sandra Gama Garcies (PhD stu<strong>de</strong>nt, left in October)<br />
Aleksandra Gumienny (Technician, started in October)<br />
Ana Paula Regalado (Technician, started in November)<br />
Catarina Martins (Technician)<br />
Maria Espírito Santos (Technician, left in June)<br />
Rosa Maria Santos (Technician, left in November)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
Framework Programme 7, European Commission<br />
RAG MEDIATED DNA REARRANGEMENT<br />
The adaptive immune system of <strong>the</strong> jawed vertebrates emerged about 500<br />
million years ago involving, as a major novelty, <strong>the</strong> somatic generation of an<br />
extremely large diversity of antigen receptors by a mechanism of site specific<br />
DNA recombination. The Rags introduce DNA breaks at specific sequences -<br />
named Recombination Signal Sequences (RSS) found at <strong>the</strong> bor<strong>de</strong>r of a large set<br />
of gene segments. RSS are composed of ei<strong>the</strong>r 28 or 39 nucleoti<strong>de</strong>s, only a few<br />
of which are conserved. Given this <strong>de</strong>generacy, RSS-like sequences can be i<strong>de</strong>ntified<br />
outsi<strong>de</strong> <strong>the</strong> antigen receptor loci. Such “cryptic-RSS” (cRSS) have been occasionally<br />
tested, shown to support Rag mediated recombination and involved<br />
in <strong>the</strong> emergence of some lymphoid tumours. With <strong>the</strong> aim to formally establish<br />
<strong>the</strong> frequency, efficiency and nature of cRSS in <strong>the</strong> genome, we joined with five<br />
o<strong>the</strong>r groups at IGC to combine experimental, bio-informatic and ma<strong>the</strong>matical<br />
approaches to perform unbiased large-scale analyses.<br />
To calibrate a novel mo<strong>de</strong>l i<strong>de</strong>ntifying RAG targets, we experimentally scored<br />
60 RSS pairs using our new fluorescence based reporter of Rag activity. We also<br />
classified epigenetic markers and <strong>de</strong>fined <strong>the</strong> genetic repertoire in differentiating<br />
lymphocytes, at <strong>the</strong> corresponding V locus. In parallel, we confirmed that our<br />
novel transgenic mouse mo<strong>de</strong>l, where Rag activity can be induced upon oral administration<br />
of tamoxiphen, is amenable to test <strong>the</strong> effect of Rag activity in vivo.<br />
IMMUNE REGULATION<br />
A subset of T cells, expressing <strong>the</strong> transcription factor Foxp3, dampens immune<br />
responses in an antigen specific manner. These cells are first selected in <strong>the</strong><br />
thymus through interaction with an MHC-pepti<strong>de</strong> expressed locally and <strong>the</strong>refore<br />
encompass a TCR repertoire enriched in self-reactivities. Yet, a wi<strong>de</strong> array<br />
of molecules produced by commensals, brought in by food or expressed by <strong>the</strong><br />
foetuses is also tolerated by <strong>the</strong> immune system. This paradox calls for a formal<br />
evaluation of <strong>the</strong> rules governing Treg differentiation, <strong>the</strong>ir maintenance and<br />
expansion as well as <strong>the</strong>ir domain of competences. Our specific aims are:<br />
1. To establish <strong>the</strong> origin of <strong>the</strong> antigens that drive regulatory T cells;<br />
2. To establish <strong>the</strong> origin of regulatory T cell specific to strictly peripheral<br />
antigens;<br />
3. Along with <strong>the</strong> hygiene <strong>the</strong>ory, to test <strong>the</strong> role of <strong>the</strong> microbiota in modulating<br />
immune tolerance;<br />
4. To asses <strong>the</strong> role of B cells and B cell products in <strong>the</strong> control of T cell<br />
homeostasis.<br />
CONFOCAL MICROSCOPY IMAGES OF SPLEEN SECTIONS REVEALING A SPECIFIC<br />
ROLE FOR SECRETED IMMUNOGLOBULIN M (IGM) IN THE CONTROL OF MARGINAL<br />
ZONE (MZ) B CELLS NUMBER.<br />
Arrowheads indicate <strong>the</strong> MZ B cells (IgM+, blue) at <strong>the</strong> periphery of <strong>the</strong> periarteriolar<br />
lymphatic sheaths formed by <strong>the</strong> T zone (CD3e+, green) and <strong>the</strong> follicles<br />
(IgM+IgD+, pink). A) wild-type mice. B) AID-/- mutant that produces IgM but no<br />
o<strong>the</strong>r immunoglobulins. C) µS-/- mutant that cannot secrete IgM but produces<br />
o<strong>the</strong>r immunoglobulins.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
34
During this year we <strong>de</strong>monstrated that:<br />
• Thymic epi<strong>the</strong>lial cells present and cross-present antigens to drive Treg<br />
differentiation.<br />
• Pregnancy associates with <strong>the</strong> <strong>de</strong> novo differentiation of foetus specific<br />
Foxp3+ cells, necessary for <strong>the</strong> mo<strong>the</strong>r's survival.<br />
• Recent thymic emigrants are <strong>the</strong> precursors of Treg differentiated in <strong>the</strong><br />
periphery.<br />
• B cells and immunoglobulins control lymphocytes homeostasis (see picture).<br />
IMMUNOTHERAPIES<br />
The use of specific monoclonal antibodies, a class of "biologicals" in <strong>the</strong> treatment<br />
of autoimmune patients has provi<strong>de</strong>d spectacular clinical results. However<br />
a large fraction of patients <strong>de</strong>velop an immune response against <strong>the</strong> drug and<br />
produce antibodies, thus subverting <strong>the</strong> benefit of <strong>the</strong> <strong>the</strong>rapy. We aimed at<br />
conducting a pilot study to assess <strong>the</strong> relevance of drug immunogenicity in<br />
clinical practice in Portugal.<br />
We implemented ELISA assays to measure anti-drug antibody levels and drug<br />
level in sera. We monitored 30 patients treated with neutralizing anti-TNF antibodies.<br />
A retrospective analysis of <strong>the</strong> clinical data and <strong>the</strong>ir correlation with<br />
<strong>the</strong> ELISA data reveal that routine monitoring is highly advisable for <strong>the</strong> proper<br />
management of patients and for economic concerns.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
35
PLANT<br />
MOLECULAR BIOLOGY<br />
Paula Duque Principal Investigator<br />
PhD in Physiology and Biochemistry, Universida<strong>de</strong> <strong>de</strong> Lisboa, 1998<br />
Postdoctoral Fellow, The Rockefeller University, New York, USA<br />
Postdoctoral Associate, The Rockefeller University, New York, USA<br />
Adjunct Assistant Professor, Queens College, City University of New York, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2006<br />
The Plant Molecular Biology group uses Arabidopsis thaliana as a mo<strong>de</strong>l system<br />
to investigate how plants perceive and respond to environmental signals and<br />
endogenous <strong>de</strong>velopmental cues at <strong>the</strong> molecular level. In particular, we focus<br />
on <strong>the</strong> role of pre-mRNA splicing in <strong>the</strong> regulation of gene expression. The versatility<br />
of this mo<strong>de</strong> of regulation suggests that it is likely to play an important<br />
contribution in ensuring <strong>the</strong> <strong>de</strong>velopmental plasticity and stress tolerance that<br />
are essential for plant survival. Ano<strong>the</strong>r major line of work in <strong>the</strong> lab is examining<br />
<strong>the</strong> role of Major Facilitator Superfamily membrane transporters in plant<br />
tolerance to abiotic stresses.<br />
THE FUNCTIONAL SIGNIFICANCE OF ALTERNATIVE SPLICING IN ARABIDOPSIS<br />
Alternative splicing is a key post-transcriptional mechanism for expanding proteomic<br />
diversity and regulating gene expression in higher eukaryotes, with its<br />
prevalence in many genomes pointing to crucial roles in biological processes.<br />
In plants, stress-associated genes are particularly prone to alternative splicing,<br />
which is also markedly affected by a wi<strong>de</strong> variety of abiotic stresses.<br />
In support of a functional role for alternative splicing in plant stress responses,<br />
SR proteins, which are wi<strong>de</strong>ly recognised as <strong>the</strong> major modulators of alternative<br />
splicing, are stress-regulated at <strong>the</strong> transcriptional, post-transciptional and<br />
translational levels in plants, indicating that <strong>the</strong>se splicing factors may act as<br />
central coordinators of responses to environmental changes. This project aims<br />
at investigating <strong>the</strong> potential in vivo stress roles of plant-specific SR proteins.<br />
GROUP MEMBERS<br />
Estelle Remy (Post-doc)<br />
Raquel Carvalho (PhD Stu<strong>de</strong>nt)<br />
Sofia Carvalho (PhD Stu<strong>de</strong>nt)<br />
Rita Batista (Trainee, left in August)<br />
Carolina Feijão (Trainee, started in December)<br />
COLLABORATORS<br />
Ji He (The Samuel Roberts Noble Foundation, USA)<br />
John Brown (The James Hutton Institute, UK)<br />
Anthony Kinney (Dupont, USA)<br />
Elena Baena-González (IGC, Portugal)<br />
Isabel Sá-Correia (<strong>Instituto</strong> Superior Técnico, Portugal)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Public Talk, Centro Ciência Viva <strong>de</strong> Bragança, Portugal, June<br />
Functional analysis of two Arabidopsis SR genes has revealed roles in <strong>the</strong> regulation<br />
of sugar signalling and osmotic/salt stress responses during <strong>the</strong> early<br />
stages of plant <strong>de</strong>velopment, via modulation of <strong>the</strong> abscisic acid (ABA) stress<br />
signalling pathway. The i<strong>de</strong>ntification of endogenous targets of <strong>the</strong>se splicing<br />
factors is uncovering <strong>the</strong> first mechanistic links between SR protein function<br />
and plant stress tolerance. We have started preparing two manuscripts reporting<br />
<strong>the</strong>se findings.<br />
ROLE OF PLANT MAJOR FACILITATOR SUPERFAMILY TRANSPORTERS<br />
IN ABIOTIC STRESS TOLERANCE<br />
One way by which a living cell can achieve multiple drug resistance (MDR) is<br />
by actively extruding toxic compounds via membrane pumps that catalyse<br />
<strong>the</strong> efflux of a broad range of chemically distinct substrates. In Saccharomyces<br />
cerevisiae, TPO1, a plasma membrane MDR transporter belonging to <strong>the</strong><br />
Major Facilitator Superfamily (MFS), <strong>de</strong>termines <strong>the</strong> resistance to one of <strong>the</strong><br />
most wi<strong>de</strong>ly used herbici<strong>de</strong>s worldwi<strong>de</strong>, 2,4-dichlorophenoxyacetic acid (2,4-D)<br />
and to o<strong>the</strong>r xenobiotic compounds, presumably via active direct extrusion<br />
from <strong>the</strong> yeast cell. Based on <strong>the</strong> role played by this MFS transporter in yeast<br />
adaptation to toxic compounds, and in view of <strong>the</strong> substantial conservation of<br />
molecular pathways among eukaryotic organisms, we are collaborating with <strong>the</strong><br />
<strong>Instituto</strong> <strong>de</strong> Biotecnologia e Bioengenharia at <strong>Instituto</strong> Superior Técnico with<br />
<strong>the</strong> main goal of evaluating <strong>the</strong> role played by Arabidopsis thaliana MFS transporters<br />
in 2,4-D resistance in particular and MDR in general.<br />
The Arabidopsis sr45-1 mutant is hypersensitive to glucose during early seedling<br />
<strong>de</strong>velopment.<br />
Using reverse genetics, we have found that three Arabidopsis MFS genes encoding<br />
transporters sharing homology with <strong>the</strong> yeast TPO1 positively regulate<br />
different aspects of abiotic stress response in plants, such as drought tolerance<br />
(Remy et al., submitted) phosphate uptake during phosphorus starvation (Remy<br />
et al., submitted) and resistance to elevated zinc levels in <strong>the</strong> soil (Remy et al.,<br />
in prep.).<br />
The ZIF2 MFS transporter conferring zinc resistance is specifically expressed in <strong>the</strong><br />
cortex and endo<strong>de</strong>rmis of <strong>the</strong> Arabidopsis root.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
36
CELL<br />
BIOPHYSICS<br />
AND DEVELOPMENT<br />
José A. Feijó Principal Investigator<br />
PhD in Cell Biology, Universida<strong>de</strong> <strong>de</strong> Lisboa, 1995<br />
Full Professor, University of Lisbon, Portugal<br />
Head of Cell Imaging & Ion Dynamics Facilities<br />
Principal Investigator at <strong>the</strong> IGC since 2005<br />
Research in our group is focused on <strong>de</strong>veloping integrated mo<strong>de</strong>ls of cellular<br />
growth and morphogenesis using <strong>the</strong> pollen tube as a biological mo<strong>de</strong>l, ion<br />
dynamics as an experimental paradigm and <strong>the</strong>oretical mo<strong>de</strong>ling as an integrative<br />
tool.<br />
We have characterised novel ion channels essential for <strong>the</strong> pollen tube, by<br />
means of imaging, electrophysiology, genetics and molecular biology. Fur<strong>the</strong>rmore,<br />
we contributed to or <strong>de</strong>ciphered some of <strong>the</strong> genetic and cellular mechanisms<br />
behind pollen tube guidance and fertilisation in plants. Our group has<br />
provi<strong>de</strong>d novel insights into <strong>the</strong> transcriptional status of plant male gametes<br />
and its consequences for plant reproduction and improvement.<br />
The members of <strong>the</strong> group were involved in imaging, transcriptomics and vibrating<br />
probe electrophysiology services of <strong>the</strong> IGC.<br />
ELECTROPHYSIOLOGICAL CHARACTERISATION OF MEMBRANE TRANSPORTERS<br />
IN Arabidopsis thaliana POLLEN TUBE<br />
In this project we are carrying out patch-clamp characterisation of chlori<strong>de</strong>channels<br />
in pollen protoplasts, as well as genetic and transport phenotype<br />
characterisation of three different classes of chlori<strong>de</strong> channels expressed in<br />
Arabidopsis pollen.<br />
GROUP MEMBERS<br />
Ana Bicho (Post-doc)<br />
Claúdia Campos (Post-doc)<br />
Kai Konrad (Post-doc, left in December)<br />
Maria Teresa Portes (Post-doc, started in January)<br />
Michael Wudick (Post-doc, started in February)<br />
Ana Barbara Santos (PhD Stu<strong>de</strong>nt, left in June)<br />
Patrícia Domingos (PhD Stu<strong>de</strong>nt)<br />
Pedro Dias (PhD Stu<strong>de</strong>nt)<br />
Pedro Lima (PhD Stu<strong>de</strong>nt)<br />
COLLABORATORS<br />
Liam Dolan (Oxford University, UK)<br />
Ana Lourenço (FCT/UNL- REQUIMTE, Portugal)<br />
Alice Cheung (University of Massachusstes, Amherst, USA)<br />
Gerhard Obermeyer (University of Salzburg, Austria)<br />
Mat<strong>the</strong>w Gilliham (University of A<strong>de</strong>lai<strong>de</strong>, Australia)<br />
Rob Martienssen (Cold Spring Harbor Laboratory, USA)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
We established, for <strong>the</strong> first time, <strong>the</strong> existence of reliable and reproducible<br />
anion currents in pollen protoplasts of lily and Arabidopsis. These are grouped<br />
within three populations of currents, are sensitive to Ca2+ and show at least an<br />
equal affinity to chlori<strong>de</strong> and nitrate. These might be <strong>the</strong> first bona fi<strong>de</strong> chlori<strong>de</strong><br />
channels in plasma membrane of plant cells. Based on <strong>the</strong> electrophysiological<br />
profiles, we started a systematic screen of mutants of putative chlori<strong>de</strong> channels.<br />
A SYSTEMS APPROACH TO APICAL CELL GROWTH<br />
The aims of this project are <strong>the</strong> <strong>de</strong>finition of electrical equivalent mo<strong>de</strong>ls based<br />
on <strong>the</strong> individual fluxes <strong>de</strong>scribed; mo<strong>de</strong>lling of internal ion concentrations<br />
based on membrane activity, and <strong>the</strong> <strong>de</strong>scription of glutamate receptors as possible<br />
calcium channels in pollen. We established numerical methods to mo<strong>de</strong>l<br />
how membrane activity results in specific patterns of cytosolic free concentration<br />
of a given ion.<br />
Based on experimental data from tobacco and lily, <strong>the</strong>se mo<strong>de</strong>ls seem to be a<br />
good representation for Ca2+ and pH dynamics. The mo<strong>de</strong>l appears to predict<br />
that observed proton fluxes at <strong>the</strong> plasma membrane are sufficient to explain<br />
<strong>the</strong> cytosolic choreography of this ion. On <strong>the</strong> contrary, intracellular sequestration,<br />
besi<strong>de</strong>s plasma membrane activity, is nee<strong>de</strong>d needs to be consi<strong>de</strong>red to<br />
explain cytosolic free Ca2+.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
37
TELOMERES<br />
AND GENOME STABILITY<br />
Miguel Godinho Ferreira Principal Investigator<br />
PhD in Cell Biology, University College London, UK, 1999<br />
Post-doc, LRI - Cancer Research UK, London, UK<br />
Post-doc, University of Colorado Health Sciences Centre, Denver, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2006<br />
link to external website<br />
The strongest risk factor for cancer is age, with 75 per cent of cases diagnosed<br />
in people aged 60 and ol<strong>de</strong>r. Thanks to our ever-increasing knowledge of tumour<br />
formation, emergent <strong>the</strong>rapies have improved our ability to fight cancer.<br />
Our challenge now lies in un<strong>de</strong>rstanding <strong>the</strong> molecular mechanisms responsible<br />
for ageing in or<strong>de</strong>r to reduce <strong>the</strong> lifetime risk for cancer, leading to a healthier<br />
life. Telomeres protect <strong>the</strong> ends of linear eukaryotic chromosomes from being<br />
recognized as <strong>de</strong>leterious DNA double strand breaks (DSB). Just a single DSB is<br />
able to stop cell division and activate repair processes. In contrast, all telomeres<br />
prohibit DNA repair, as this may lead to chromosome-end fusions - a source of<br />
genomic instability and a step in tumorigenesis. Our goal is to investigate <strong>the</strong><br />
mechanisms un<strong>de</strong>rlying chromosome-end protection and <strong>the</strong> outcomes of its<br />
failure, from <strong>the</strong> cellular level to <strong>the</strong> organism level. Ultimately, we aim to prevent<br />
<strong>the</strong> inci<strong>de</strong>nce of cancer associated with ageing.<br />
THE ROLE OF TELOMERES IN AGEING AND CANCER<br />
To analyse <strong>the</strong> consequences of telomere dysfunction in <strong>the</strong> whole organism,<br />
we have chosen to work with zebrafish, an organism with naturally shorter telomeres.<br />
Our goal is to use <strong>the</strong> knowledge acquired on <strong>the</strong> molecular nature of<br />
telomere protection to un<strong>de</strong>rstand <strong>the</strong> consequences of its failure at <strong>the</strong> organism<br />
level. Our fundamental hypo<strong>the</strong>sis implies that telomere dysfunction signals<br />
a casca<strong>de</strong> of events that triggers cellular senescence and organism ageing. We<br />
aim to test whe<strong>the</strong>r telomere protection in a few key tissues will postpone ageing<br />
in <strong>the</strong> whole organism and, as a consequence, reduce <strong>the</strong> frequency of ageassociated<br />
diseases, in particular, cancer. We will test this i<strong>de</strong>a by manipulating<br />
telomere dysfunction (in a time- and tissue-specific manner), using transgenic<br />
zebrafish.<br />
We have two main projects running in our lab. The first concerns <strong>the</strong> broa<strong>de</strong>r<br />
question of whe<strong>the</strong>r telomere <strong>de</strong>fects are cell-autonomous or, alternatively,<br />
whe<strong>the</strong>r telomere dysfunction acquired in specific tissues somehow signals<br />
o<strong>the</strong>r organs, <strong>the</strong>reby coordinating organism ageing. The second question relies<br />
on use of telomerase-mutant zebrafish to genetically <strong>de</strong>termine <strong>the</strong> stage<br />
at which telomerase expression is required during cancer <strong>de</strong>velopment, using<br />
an established mo<strong>de</strong>l of invasive melanoma.<br />
CONSEQUENCES OF GENOME INSTABILITY TO ADAPTATION AND SPECIATION<br />
As a consequence of telomere <strong>de</strong>protection, chromosomes un<strong>de</strong>rgo breakagefusion-bridge<br />
cycles resulting in gross chromosome rearrangements (GCRs).<br />
Even if most of <strong>the</strong>se events are <strong>de</strong>leterious, several clones survive when telomere<br />
function is restored. GCRs comprise <strong>the</strong> chromosome instability observed<br />
in most human cancers. Similar to cancer cells, we propose that GCRs, when not<br />
lethal, may be adaptive and causative of reproductive isolation in speciation<br />
evolutionary processes. We will investigate how chromosome rearrangements<br />
impact on cell proliferation and adaptation. We will use fission yeast as a biological<br />
mo<strong>de</strong>l to manipulate genomic instability.<br />
GROUP MEMBERS<br />
Catarina Henriques (Post-doc)<br />
Clara Reis (Post-doc)<br />
Tiago Carneiro (Post-doc)<br />
Ana Teresa Avelar (PhD Stu<strong>de</strong>nt)<br />
Hugo Almeida (PhD Stu<strong>de</strong>nt)<br />
Madalena Carneiro (PhD Stu<strong>de</strong>nt, started in June)<br />
Joana Nabais (Trainee)<br />
COLLABORATORS<br />
Isabel Gordo (IGC, Portugal)<br />
António Jacinto (CEDOC –Centre for Chronic Diseases, Portugal)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Pecha Kucha at Researchers' Night, Pavilhão do Conhecimento, Lisbon,<br />
September<br />
We use fission yeast to un<strong>de</strong>rstand <strong>the</strong> molecular nature of telomere protection<br />
(in <strong>the</strong> top two pictures, <strong>the</strong> sub-telomeres of chromosome III are stained in green,<br />
highlighting a telomere fusion. Red - SPB and blue - DNA).<br />
We use zebrafish to study <strong>the</strong> consequences of telomere dysfunction in cancer and<br />
ageing (<strong>the</strong> two pictures show crypts and villi of <strong>the</strong> intestine with proliferating<br />
cells in red and apoptotic cells in green. Blue - DNA).<br />
We generated ten GCR-containing S. pombe strains (2 inversions and 8 translocations)<br />
using a pre-established Cre-loxP system. These GCRs constitute <strong>the</strong><br />
sole difference from <strong>the</strong> parental wt strain. We show that for three specific<br />
translocations, chromosome structure is required for optimal growth. In contrast,<br />
<strong>the</strong> remaining GCRs are neutral in normal growth conditions. As expected,<br />
we observed reduced viability of offspring in hybrid crosses that varied from<br />
10-40%.<br />
MODEL FOR THE NON-CELL AUTONOMOUS EFFECTS OF TELOMERE SHORTENING<br />
IN AGEING.<br />
Cell divisions ero<strong>de</strong> telomeres in proliferative tissues. In time, non-proliferative<br />
tissues become damaged and <strong>the</strong> whole organism wastes.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
38
GENOME-WIDE ANALYSIS OF TELOMERE PROTECTION IN S. pombe<br />
We aim to carry out a whole genome screen for genes involved in chromosomeend<br />
protection, to characterise telomere length and <strong>the</strong> localisation of <strong>the</strong><br />
newly i<strong>de</strong>ntified factors with telomeres. Finally, we aim to study <strong>the</strong> physical<br />
interactions between telomere components.<br />
We started using <strong>the</strong> fission yeast whole genome <strong>de</strong>letion library looking for<br />
telomere protection factors by sou<strong>the</strong>rn blot on <strong>the</strong> available ca. 3000 viable<br />
mutants. All telomere protection mutants <strong>de</strong>scribed to date are non-essential,<br />
thus this strategy should produce several remaining players. Presently, we have<br />
screened 80% of <strong>the</strong> <strong>de</strong>letion library.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
39
COLLECTIVE<br />
DYNAMICS<br />
Gabriela Gomes Principal Investigator<br />
PhD in Ma<strong>the</strong>matics, University of Warwick, UK, 1993<br />
Post-doctoral Researcher, Ma<strong>the</strong>matics Institute, University of Warwick<br />
Wellcome Trust Research Training Fellow in Ma<strong>the</strong>matical Biology, Department of Biological Sciences, University of Warwick<br />
Principal Investigator at <strong>the</strong> IGC since 2002<br />
We study collective phenomena, such as self-<strong>organisation</strong>, criticality, and pattern<br />
formation, arising from spatial and temporal constraints in physical and<br />
biological systems, with a current focus on infectious disease ecology and evolution.<br />
The central <strong>the</strong>me of our research <strong>de</strong>rives from a conceptual mo<strong>de</strong>l of<br />
partial immunity whose collective outcome - <strong>the</strong> reinfection threshold - un<strong>de</strong>rlies<br />
a phenomenological transition in epi<strong>de</strong>mic dynamics, with practical implications<br />
ranging from extreme geographical variability in <strong>the</strong> effect of vaccination<br />
programmes to <strong>de</strong>stabilised transmission favouring polymorphism in antigenically<br />
diverse pathogens. We are interested in refining concepts and methodologies<br />
by performing specific experiments in <strong>the</strong> laboratory and in natural<br />
populations.<br />
MOLECULAR EPIDEMIOLOGY OF MYCOBACTERIUM TUBERCULOSIS IN PORTUGAL:<br />
IMPLEMENTING AND ANALYSING A DATABASE<br />
We propose to genotype all <strong>the</strong> strains from sputum of smear positive pulmonary<br />
tuberculosis cases with recent methods based on <strong>the</strong> variability of mycobacterial<br />
interspersed repetitive units (MIRU) and variable number tan<strong>de</strong>m<br />
repeats (VNTR). A database that inclu<strong>de</strong>s mycobacterial genotype and clinical<br />
and <strong>de</strong>mographic information about patients will be implemented, constituting<br />
a valuable resource for molecular epi<strong>de</strong>miology studies, transmission mo<strong>de</strong>ls<br />
and applied research on mycobacterial evolution and pathogenesis.<br />
A total of 2286 isolates of M. tuberculosis DNA were genotyped for 90 SNPs.<br />
About 300 strains were genotyped in <strong>the</strong> first year and 743 strains were genotyped<br />
during <strong>the</strong> second year. In <strong>the</strong> last period of <strong>the</strong> project, 1239 more samples<br />
were inclu<strong>de</strong>d. Increasing <strong>the</strong> number of genotyped strains is our immediate<br />
goal and will allow us to infer on <strong>the</strong> genetic diversity of M. tuberculosis<br />
circulating in <strong>the</strong> Portuguese population.<br />
EXPLORING PATHOGEN DIVERSITY IN DISEASE EPIDEMIOLOGY<br />
AND VACCINE RESEARCH<br />
Viruses, bacteria and parasitic pathogens have evolved multiple strategies to<br />
eva<strong>de</strong> innate and acquired immune responses, facilitating transmission, allowing<br />
<strong>the</strong> establishment of persistent and recurrent infections, and often hampering<br />
<strong>the</strong> <strong>de</strong>velopment of effective vaccines. Antigenic variation of immune<br />
response targets is one such pathogen strategy that can only be confronted<br />
with <strong>the</strong> support of a highly specialised research programme combining basic<br />
and applied research. This is <strong>the</strong> <strong>the</strong>me of this project. The team integrates basic<br />
research in infection, population genetics, and ma<strong>the</strong>matical epi<strong>de</strong>miology,<br />
with a range of practical aspects of experimental <strong>de</strong>sign from <strong>the</strong> laboratory<br />
to <strong>the</strong> field. The overall research strategy is to unravel <strong>the</strong> molecular bases and<br />
epi<strong>de</strong>miological significance of immunity in or<strong>de</strong>r to gui<strong>de</strong> vaccine <strong>de</strong>sign and<br />
<strong>de</strong>ployment.<br />
GROUP MEMBERS<br />
João Sollari Lopes (Post-doc, started in April)<br />
Ana Isabel Franco (Post-doc, started in September)<br />
Cátia Ban<strong>de</strong>iras (Trainee, started in December)<br />
Delphine Pessoa (Trainee)<br />
Bruno Ceña (Trainee)<br />
Caetano Souto Maior Men<strong>de</strong>s (Trainee, started in October)<br />
COLLABORATORS<br />
José Pereira-Leal (IGC, Portugal)<br />
Isabel Marques (IGC, Portugal)<br />
Carlos Penha-Gonçalves (IGC, Portugal)<br />
Lounes Chikhi (IGC, Portugal)<br />
Ana Godinho (IGC, Portugal)<br />
Anabela Miranda<br />
(INSA - <strong>Instituto</strong> Nacional <strong>de</strong> Saú<strong>de</strong> Dr. Ricardo Jorge, Portugal)<br />
Ana Abecasis (CMDT-IHMT - <strong>Instituto</strong> <strong>de</strong> Higiene e Medicina Tropical,<br />
Portugal)<br />
Diogo Pinheiro (ISEG - <strong>Instituto</strong> Superior <strong>de</strong> Economia e Gestão, Portugal)<br />
Raquel Sá-Leão (ITQB - <strong>Instituto</strong> <strong>de</strong> Tecnologia Química e Biológica,<br />
Portugal)<br />
Cláudia Co<strong>de</strong>ço (Fundação Oswaldo Cruz, Brazil)<br />
Alessandro Vespignani (Institute for Scientific Interchange, Italy)<br />
Lewi Stone (Tel Aviv University, Israel)<br />
Dirk Brockmann (Max Planck Institute Gottingen, Germany)<br />
Ronald Smallenburg (Grote Griepmeting, The Ne<strong>the</strong>rlands)<br />
John Edmunds (London School of Hygiene and Tropical Medicine, UK)<br />
Olof Nyrén (Swedish Institute for Infectious Disease Control, Swe<strong>de</strong>n)<br />
Marc van Ranst (Rega Institute for Medical Research, Belgium)<br />
Shlomo Havlin (Bar Ilan University, Israel)<br />
Stefano Merler (Fondazione Bruno Kessler, Italy)<br />
Daniele Miorandi (Center for Research and Telecommunication<br />
Experimentation for NETworked communities, Italy)<br />
Mário Silva (Faculda<strong>de</strong> <strong>de</strong> Ciências, Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal)<br />
Natalia Mantilla (Universidad Nacional Autónoma <strong>de</strong> México, México)<br />
Glória Teixeira (Universida<strong>de</strong> Fe<strong>de</strong>ral da Bahia, Brazil)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
Framework Programme 7, European Commission<br />
We compared key parameters un<strong>de</strong>rlying pneumococcal transmission in Portuguese<br />
and Finnish day care centres using a continuous-time event history mo<strong>de</strong>l<br />
in a Bayesian framework. We <strong>de</strong>veloped ma<strong>the</strong>matical and statistical mo<strong>de</strong>ls to<br />
elucidate <strong>the</strong> <strong>de</strong>sign of novel pre-clinical and clinical trials to assess intervention<br />
efficacy both in <strong>the</strong> laboratory and in <strong>the</strong> field. The new <strong>de</strong>signs are being<br />
refined using Drosophila-Wolbachia as an experimental system.<br />
EPIWORK - DEVELOPING THE FRAMEWORK FOR AN EPIDEMIC FORECAST<br />
INFRASTRUCTURE<br />
In recent years a huge flow of quantitative social, <strong>de</strong>mographic and behavioural<br />
data is becoming available, spurring <strong>the</strong> quest for innovative technologies that<br />
can improve <strong>the</strong> traditional disease-surveillance systems, providing faster and<br />
better localised <strong>de</strong>tection capabilities and resulting in a broad practical impact.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
40
Improved ICT techniques and methodologies support <strong>the</strong> inter-linkage and integration<br />
of datasets causing a qualitative change in <strong>the</strong> ways we can mo<strong>de</strong>l epi<strong>de</strong>mic<br />
processes. The EPIWORK project proposes a multidisciplinary research<br />
effort aimed at <strong>de</strong>veloping <strong>the</strong> appropriate framework of tools and knowledge<br />
nee<strong>de</strong>d for <strong>the</strong> <strong>de</strong>sign of epi<strong>de</strong>mic forecast infrastructures. The research consi<strong>de</strong>rs<br />
most of <strong>the</strong> much-nee<strong>de</strong>d <strong>de</strong>velopment of mo<strong>de</strong>lling, computational and<br />
ICT tools.<br />
We have focused on two specific project <strong>de</strong>liverables:<br />
1. Mo<strong>de</strong>ls of disease transmission un<strong>de</strong>r seasonality and o<strong>the</strong>r external drivers;<br />
2. Mo<strong>de</strong>ls of spread, impact and evolution of vector-borne pathogens, including<br />
<strong>the</strong> <strong>de</strong>mography and ecology of host species.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
41
EVOLUTIONARY<br />
BIOLOGY<br />
Isabel Gordo Principal Investigator<br />
PhD in Evolutionary Biology, Edinburgh, 2002<br />
Principal Investigator at IGC since 2004<br />
link to external website<br />
All natural populations have to adapt to new environments. Knowledge of <strong>the</strong><br />
genetics of adaptation should provi<strong>de</strong> <strong>the</strong> centrepiece of a unified <strong>the</strong>ory of<br />
evolution. Despite its extreme importance, <strong>the</strong> process of adaptation is far from<br />
being un<strong>de</strong>rstood. For example: What is <strong>the</strong> rate at which positive Darwinian<br />
selection occurs? Does <strong>the</strong> rate of adaptation <strong>de</strong>pend on genetic background?<br />
What is <strong>the</strong> distribution of fitness effects of mutations? Does adaptation involve<br />
<strong>the</strong> fixation of mutations with small or large effects? How do mutations interact?<br />
What are <strong>the</strong> relative costs and benefits in bacterial cells with high mutation<br />
rates? These are some of <strong>the</strong> questions that we try to address.<br />
ANTIBIOTIC RESISTANCE AND THE GEOMETRY OF COMPENSATORY EVOLUTION<br />
The distribution of effects of beneficial mutations is key to our un<strong>de</strong>rstanding<br />
of biological adaptation. Fisher geometrical mo<strong>de</strong>l of adaptation predicts<br />
that this distribution should have a given functional form and should <strong>de</strong>pend<br />
on <strong>the</strong> genotype. Yet empirical estimates of this distribution are scarce and its<br />
functional form is largely unknown. Here we study <strong>the</strong> rate and distribution of<br />
adaptive mutations that compensate for <strong>the</strong> effect of a single <strong>de</strong>leterious mutation,<br />
which causes antibiotic resistance.<br />
GROUP MEMBERS<br />
Ana Margarida Sousa (Post-doc)<br />
Patrícia Brito (Post-doc)<br />
João Batista (PhD stu<strong>de</strong>nt)<br />
Migla Miskinyte (PhD stu<strong>de</strong>nt)<br />
Sandra Trinda<strong>de</strong> (PhD stu<strong>de</strong>nt)<br />
Catarina Bourgard (Technician)<br />
Maria Azevedo (Technician)<br />
COLLABORATORS<br />
Jocelyne Demengeot (IGC, Portugal)<br />
Karina Xavier (IGC, Portugal)<br />
Miguel Godinho Ferreira (IGC, Portugal)<br />
Paulo Campos (Universida<strong>de</strong> Fe<strong>de</strong>ral Rural <strong>de</strong> Pernambuco, Brasil)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
European Research Council (ERC); European Commission<br />
The following manuscripts have resulted form work carried out up to an including<br />
2011: Sousa, Magalhães and Gordo 2011, Cost of resistance and <strong>the</strong> geometry<br />
of adaptation Molecular Biology and Evolution; Trinda<strong>de</strong>, Sousa and Gordo<br />
Robustness in Antibiotic Resistance (submitted). Silva RF, Mendonça SC, Carvalho<br />
LM, Reis AM, Gordo I, Trinda<strong>de</strong> S, Dionisio F. PLoS Genet. 2011 Jul; 7(7):e1002181.<br />
ADAPTATION WITHIN ECOSYSTEMS<br />
Experimental evolution with bacteria presents us with <strong>the</strong> opportunity to directly<br />
measure key parameters and to test <strong>the</strong>oretical predictions about <strong>the</strong><br />
genetic basis of adaptive evolution in increasingly complex ecosystems. As<br />
Dobzansky pointed out “The greater <strong>the</strong> diversity of inhabitants in a territory,<br />
<strong>the</strong> more adaptive opportunities exist in it.” The main goal of this research project<br />
is to measure rates and effects of adaptive mutations, as well as patterns of<br />
epistasis amongst beneficial mutations in different environments with different<br />
strengths of abiotic versus biotic interactions. In this way <strong>the</strong> importance of<br />
ecology is increasingly emphasized so as to un<strong>de</strong>rstand its impact on <strong>the</strong> statistical<br />
laws governing adaptation.<br />
The following manuscripts have been completed: Trinda<strong>de</strong>, Sousa and Gordo<br />
(submitted), Robustness and Stress in Antibiotic Resistance; Gordo and Campos<br />
(submitted), Evolution of clonal populations approaching a fitness peak; Batista,<br />
Sousa, Bergman, Xavier, Demengeot and Gordo, Adaptation of Escherichia coli<br />
in its natural ecosystem, and M Miskinyte, ML Bergman, I Caramalho, S Magalhães,<br />
J Demengeot and I Gordo Rapid microbial adaptation to escape <strong>the</strong> sentinels<br />
of innate immunity.<br />
ADAPTATION OF COMMENSAL BACTERIA TO THE MAMMALIAN GUT<br />
The conduction of this project will for <strong>the</strong> first time <strong>de</strong>termine <strong>the</strong> dynamics<br />
of adaptation of E. coli in mice bearing a normal immune system and a complex<br />
microbiota and <strong>de</strong>termine <strong>the</strong> importance of clonal interference during<br />
adaptation in vivo. Next, it will <strong>de</strong>termine <strong>the</strong> contribution of <strong>the</strong> microflora on<br />
<strong>the</strong>se dynamics. Finally, <strong>the</strong> possible double-edged contribution of <strong>the</strong> immune<br />
system, an original hypo<strong>the</strong>sis, will be formally tested. This work will also open<br />
new avenues for <strong>the</strong> community and for <strong>the</strong> three groups involved. Future investigations<br />
will likely address <strong>the</strong> nature of <strong>the</strong> mutations, <strong>the</strong> effect of specific<br />
bacterial species and variants and <strong>the</strong> precise immune mechanism behind <strong>the</strong><br />
selective pressure. This project was started in 2011<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
42
ACTIN<br />
DYNAMICS<br />
Florence Janody Principal Investigator<br />
PhD in Cell biology, Structural Biology and Microbiology, Université <strong>de</strong> la Méditerranée, France, 1999<br />
Research Associate, Developmental Biology Institute of Marseille Luminy (IBDML), France<br />
Research Associate, Skirball Institute, New York, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2006<br />
The actin cytoskeleton controls numerous cellular processes. Actin filaments<br />
(F-actin) are not found in <strong>the</strong> cells as disorganised mesh-works, but ra<strong>the</strong>r as<br />
networks with precise <strong>organisation</strong>s, assembled in specific locations within <strong>the</strong><br />
cell cytoplasm. For instance, at least 15 distinct actin filament structures have<br />
been i<strong>de</strong>ntified in mammalian cells in culture, but it is likely that many more exist.<br />
Numerous lines of evi<strong>de</strong>nce indicate that <strong>the</strong> geometrical, mechanical and<br />
dynamic properties of each F-actin network are specifically adapted to perform<br />
a particular cellular function.<br />
In or<strong>de</strong>r to un<strong>de</strong>rstand <strong>the</strong> cell biology and pathologies linked to <strong>the</strong> actin microfilament<br />
system, we aim to reveal mechanisms that control actin filament i<strong>de</strong>ntity<br />
in epi<strong>the</strong>lia and characterise <strong>the</strong> function of distinct F-actin networks, in particular,<br />
in mediating signal transduction pathways involved in tissue growth control.<br />
ACTIN-CAPPING PROTEIN AND THE HIPPO PATHWAY REGULATE F-ACTIN<br />
AND TISSUE GROWTH IN DROSOPHILA<br />
The actin cytoskeleton is a key cellular component, controlling numerous processes<br />
that inclu<strong>de</strong> <strong>the</strong> generation and maintenance of cell morphology and<br />
polarity, endocytosis, intracellular trafficking, contractility and cell division.<br />
Actin filament (F-actin) growth, stability, disassembly and <strong>organisation</strong> into<br />
higher-or<strong>de</strong>r networks are controlled by a plethora of cytoskeletal proteins,<br />
strongly conserved between species. There is little doubt that several of <strong>the</strong>se<br />
proteins are positively associated with cancer. However, <strong>the</strong> contribution of<br />
F-actin dynamics to oncogenic transformation is far from clear.<br />
GROUP MEMBERS<br />
Beatriz García Fernán<strong>de</strong>z (Post-doc)<br />
Catarina Bras Pereira (Post-doc)<br />
Pedro Miguel Gaspar (PhD Stu<strong>de</strong>nt)<br />
Barbara Jezowska (PhD Stu<strong>de</strong>nt)<br />
Ana Rita Amândio (Technician, started in November)<br />
COLLABORATORS<br />
Fernando Casares (Universidad Pablo <strong>de</strong> Olavi<strong>de</strong>, Spain)<br />
Nicolas Tapon (Cancer Research UK, London, UK)<br />
Jochen Guck (IPATIMUP Porto, Portugal)<br />
Laurent Perrin (Technological Advances for Genomics and Clinics,<br />
INSERM U928, Marseille, France)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Media interviews (May, July, September)<br />
Talks for school stu<strong>de</strong>nts, IGC (December)<br />
We aimed in this project to get insight into <strong>the</strong> role of <strong>the</strong> actin microfilament<br />
system in preventing oncogenic transformation. We took advantage of Drosophila<br />
genetics, which allows easy manipulation of gene expression in <strong>the</strong> context<br />
of intact epi<strong>the</strong>lia, to i<strong>de</strong>ntify ABPs that are involved and <strong>de</strong>termine how<br />
tumor suppressors and oncogenes regulate <strong>the</strong> actin cytoskeleton.<br />
The conserved Hippo tumor suppressor pathway is a key kinase casca<strong>de</strong> that<br />
controls tissue growth. Our work reveals an inter<strong>de</strong>pen<strong>de</strong>ncy between Hippo<br />
signaling activity and actin filament dynamics in which actin-Capping Protein<br />
(CP) and Hippo pathway activities inhibit F-actin accumulation, and <strong>the</strong> reduction<br />
in F-actin in turn sustains Hippo pathway activity, preventing Yorkie nuclear<br />
translocation and up-regulation of proliferation and survival genes (García<br />
Fernán<strong>de</strong>z et al., 2011).<br />
A DUAL FUNCTION OF DROSOPHILA CAPPING PROTEIN<br />
ON DE-CADHERIN MAINTAINS EPITHELIUM INTEGRITY<br />
AND PREVENTS JNK-MEDIATED APOPTOSIS.<br />
E-Cadherin (E-Cad) plays a pivotal role in epi<strong>the</strong>lial cell polarity, cell signaling and<br />
tumor suppression. We have shown that Capping Protein (CP), which prevents<br />
F-actin polymerisation, stabilises DE-Cad at cell-cell junctions and inhibits upregulation<br />
of <strong>the</strong> DE-cad gene. DE-Cad would o<strong>the</strong>rwise provi<strong>de</strong> an active signal,<br />
which promotes JNK-mediated apoptosis. However, when cells are kept alive,<br />
JNK is converted into a potent inducer of proliferation (Jezowska et al., 2011).<br />
ACTIN FILAMENT DYNAMICS TRIGGERS NEOPLASTIC TUMOR<br />
TRANSFORMATION DOWNSTREAM OF THE SRC PROTO-ONCOGENE.<br />
c-Src is <strong>the</strong> ol<strong>de</strong>st and most investigated proto-oncogene that is activated in a<br />
broad range of cancer types. Our work reveals that in restricted Drosophila epi<strong>the</strong>lia,<br />
over-activation of Src promotes apical F-actin accumulation through <strong>the</strong><br />
Tec kinase Btk29A and Rho1. In turn, F-actin appears to have a dual function on Src<br />
signalling activity: it controls <strong>the</strong> balance between proliferation and cell <strong>de</strong>ath and<br />
triggers Src activation through phosphorylation (Jezowska et al., in preparation).<br />
(A-A´ to C-C´) Capping actin filaments inhibits proliferation of "un<strong>de</strong>ad" Src overexpressing<br />
tissues. (D) Mo<strong>de</strong>l of <strong>the</strong> interplay between F-actin and signaling activity<br />
through Hippo and Src. Hpo activity controls <strong>the</strong> sub-apical F-actin meshwork,<br />
which regulates Yorkie (Yki) transcriptional activity, while Src, Btk29A and Rho1<br />
regulate <strong>the</strong> circumferential F-actin cable, which mediates Src signaling activity.<br />
Capping Protein regulates both F-actin networks.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
43
THE HIPPO TUMOR SUPPRESSOR PATHWAY AND THE SRC PROTO-ONCOGENE<br />
REGULATE DISTINCT F-ACTIN NETWORKS.<br />
Eukaryotic cells generate a diversity of F-actin networks. We observed that<br />
Hippo and Src signaling activities control distinct F-actin webs at specific subcellular<br />
locations. Moreover, we i<strong>de</strong>ntified ABPs specifically involved in mediating<br />
Hpo or Src signaling activities. This argues that <strong>the</strong> geometrical, mechanical<br />
and dynamic properties of each F-actin network are specifically adapted to<br />
regulate Hippo and Src signaling activities (Gaspar et al., in preparation).<br />
THE EYE SELECTOR GENE DACHSHUND PROMOTES CYTOSKELETAL<br />
REARRANGEMENT AND EXIT FROM THE FURROW STATE.<br />
Despite <strong>the</strong> fact that epi<strong>the</strong>lium architecture constrains cells in <strong>the</strong>ir ability to<br />
move, <strong>the</strong>y can be engaged in a large number of morphogenetic rearrangements<br />
and adopt a different repertoire of cell shape. Actin filaments (F-actin) are major<br />
<strong>de</strong>terminant of cell shape and can form a diversity of networks with precise<br />
mechanical and dynamic properties. Although it becomes increasingly clear that<br />
cell shape has a critical impact on cell differentiation and tissue morphogenesis,<br />
<strong>the</strong> role of cell architecture in <strong>the</strong>se processes is far from clear.<br />
We aimed in this project to get insight on how F-actin is regulated to promote<br />
cell shape changes and how this impacts on tissue morphogenesis and cell differentiation.<br />
To do so, we used <strong>the</strong> <strong>de</strong>veloping Drosophila eye, to investigate<br />
<strong>the</strong> role of actin isoforms, actin regulatory proteins, eye selector genes and<br />
signaling pathways in triggering cell shape changes required for neuronal differentiation.<br />
Dachshund (dac), <strong>the</strong> most downstream element among <strong>the</strong> known RDGN,<br />
enco<strong>de</strong>s a nuclear protein related to <strong>the</strong> Sno/Ski protein family of proto-oncogenes.<br />
We found that Dac promotes cell shape required for proper differentiation<br />
of <strong>the</strong> retina. Our results argue that one function of <strong>the</strong> Dac nuclear<br />
factor is to regulate cytoskeletal rearrangement required to exit <strong>the</strong> furrow<br />
state <strong>the</strong>reby controlling <strong>the</strong> timing of differentiation (Brás-Pereira et al., in<br />
preparation).<br />
THE RETINAL DETERMINATION GENE DACHSHUND ENSURES PATTERNED CELL<br />
PROLIFERATION BY LIMITING YORKIE FUNCTION<br />
Recent studies have <strong>de</strong>monstrated an important role for <strong>the</strong> human Dac homolog<br />
DACH1 in tumorigenesis. We showed that in <strong>the</strong> Drosophila eye imaginal<br />
disc, Dac suppresses inappropriate tissue growth by inhibiting Yorkie activity,<br />
which mediates Hippo signaling. Since Dac interacts physically with <strong>the</strong> Yorkiebinding<br />
partner Homothorax, our findings indicate that Dac is recruited to <strong>the</strong><br />
promoter of Yorkie targets to inactivate proliferation and survival genes (Brás-<br />
Pereira et al., in preparation).<br />
HOMEOSTASIS OF THE DROSOPHILA ADULT RETINA BY CAPPING PROTEIN<br />
AND THE HIPPO PATHWAY<br />
The conserved Hippo signaling pathway regulates multiple cellular events, including<br />
tissue growth, cell fate <strong>de</strong>cision and neuronal homeostasis. We provi<strong>de</strong><br />
evi<strong>de</strong>nce that <strong>the</strong> actin cytoskeleton promotes neuronal homeostasis of <strong>the</strong><br />
adult Drosophila retina through misregulation of <strong>the</strong> Hippo pathway. We propose<br />
a mo<strong>de</strong>l by which F-actin dynamics is involved in all processes that require<br />
<strong>the</strong> activity of <strong>the</strong> core Hippo kinase module (Brás-Pereira et al., 2011).<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
44
EPIGENETIC<br />
MECHANISMS<br />
Lars Jansen Principal Investigator<br />
PhD in Molecular Genetics, Lei<strong>de</strong>n University, 2002<br />
Postdoc, Ludwig Institute for Cancer Research, La Jolla, CA, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2008<br />
In addition to genomic information embed<strong>de</strong>d in <strong>the</strong> primary DNA sequence,<br />
additional epigenetic information is propagated along cell divisions that “memorises”<br />
gene activity states and specific chromatin structures. Epigenetic inheritance<br />
forms <strong>the</strong> basis for many aspects of biology that inclu<strong>de</strong>s <strong>de</strong>velopment,<br />
gene regulation and disease. Several molecular components such as histone<br />
proteins and modifications <strong>the</strong>reof have been implicated in this process but in<br />
most cases we don’t un<strong>de</strong>rstand <strong>the</strong> logic of how something o<strong>the</strong>r than DNA<br />
can be faithfully duplicated when a cell divi<strong>de</strong>s. We have a broad interest in how<br />
this works. We use <strong>the</strong> mammalian centromere as a mo<strong>de</strong>l for chromatin-based<br />
epigenetic inheritance. We employ molecular genetic and cell biological tools<br />
with a focus on novel fluorescent labelling techniques, high-end microscopy and<br />
<strong>the</strong> latest tricks in genetic engineering of human cells to tackle a wi<strong>de</strong> range of<br />
problems in this emerging and fascinating area of biology.<br />
DETERMINING THE EPIGENETIC MECHANISM OF CENTROMERE PROPAGATION<br />
The centromere is a unique specialised chromatin domain responsible for driving<br />
chromosome segregation. The centromere complex is maintained epigenetically,<br />
in<strong>de</strong>pen<strong>de</strong>nt of direct DNA sequence information. How this works is poorly<br />
un<strong>de</strong>rstood. We have <strong>de</strong>vised fluorescent pulse labelling techniques which<br />
have established that <strong>the</strong> centromeric histone H3 variant CENP-A generates<br />
an extremely stable chromatin structure, consistent with providing epigenetic<br />
i<strong>de</strong>ntity to <strong>the</strong> centromere. Replenishment of new CENP-A is tightly coupled to<br />
<strong>the</strong> cell cycle ensuring synchrony between cell division and centromere propagation.<br />
We focus on <strong>de</strong>termining <strong>the</strong> mechanism of CENP-A maintenance, and<br />
its cell cycle coupling. We use novel cell-biological tools, human somatic cell<br />
gene knockouts in conjunction with o<strong>the</strong>r molecular genetic and biochemical<br />
assays to <strong>de</strong>termine <strong>the</strong> logic and mechanism of epigenetic centromere maintenance.<br />
We have shown that <strong>the</strong> Cdk1 and Cdk2 kinases maintain <strong>the</strong> CENP-A<br />
assembly machinery in an inactive state throughout S, G2 phase and mitosis<br />
<strong>the</strong>reby restricting CENP-A loading to G1 phase of <strong>the</strong> cell cycle (Silva et al,<br />
Developmental Cell). In a collaborative effort we have shown that centromeric<br />
DNA transcription is involved in CENP-A assembly by generating a chromatin<br />
structure that allows recruitment of a key CENP-A assembly factor. (Bergman et<br />
al, EMBO Journal).<br />
HISTONE VARIANT ASSEMBLY AND MAINTENANCE ACROSS THE CELL CYCLE<br />
Histone proteins that package DNA into chromatin are implicated in carrying<br />
epigenetic information through locus specific post translational modification or<br />
incorporation of histone variants. We are <strong>de</strong>termining how epigenetic markers<br />
are propagated across mitotic divisions with a specific focus on <strong>the</strong> histone H3<br />
variants H3.1 and H3.3. These variants are implicated in maintaining centromere<br />
i<strong>de</strong>ntity and gene activity respectively. We are aiming at <strong>de</strong>veloping a temporal<br />
affinity purification strategy that is based on using <strong>the</strong> SNAP-tag as an affinity<br />
tag. This will allow us to <strong>de</strong>termine protein turnover and assembly at specific<br />
cell cycle positions at gene resolution. This biochemical approach also allows<br />
broa<strong>de</strong>ning of our focus and answers critical question e.g. on <strong>the</strong> H3.3 replacement<br />
histone that is associated with epigenetic memory of gene activity.<br />
GROUP MEMBERS<br />
Luis Valente (Post-doc)<br />
Mariana Silva (PhD stu<strong>de</strong>nt)<br />
Mariluz Gomez (PhD stu<strong>de</strong>nt)<br />
João Mata (Research Technician)<br />
Dani Bodor (Trainee)<br />
COLLABORATORS<br />
Helfrid Hochegger (Sussex Centre for Genome Damage and Stability, UK)<br />
Don W. Cleveland (Ludwig Institute for Cancer Research, San Diego, USA)<br />
Daniel R. Foltz (University of Virginia, USA)<br />
Ben E. Black (University of Pennsylvania, USA)<br />
Genevieve Almouzni (Institut Curie, Paris, France)<br />
Bill Earnshaw (Wellcome Trust Centre for Cell Biology, Edinburgh, UK)<br />
FUNDING<br />
FP7 - Marie Curie Programme, European Commission<br />
European Molecular Biology Organisation (EMBO)<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
COUNTING MOLECULES AND CHROMOSOMES.<br />
Fluorescent proteins and cell compartment markers (nucleus - green, cell - red)<br />
are used to accurately <strong>de</strong>termine how much of a specific protein is where in <strong>the</strong><br />
cell. Dots are centromeres, protein clusters that organise chromosome segregation<br />
during cell division.<br />
We have <strong>de</strong>veloped a protocol to <strong>de</strong>tect and isolate in vivo pulse labelled histone<br />
proteins in chromatin. Using this method we are in <strong>the</strong> process of measuring<br />
histone variant turnover rates at gene resolution and are <strong>de</strong>termining <strong>the</strong><br />
role of gene transcription in histone dynamics. In a collaborative effort we have<br />
<strong>de</strong>termined <strong>the</strong> role of histone H3.1 and H3.3 specific chaperones in chromatin<br />
assembly (Ray-Gallet, Mol Cell).<br />
DNA staining of specific chromosomes (green and red dots) reveals normal diploid<br />
(top) or aberrant chromosome numbers after severe mitotic failure.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
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ORGANOGENESIS<br />
Joaquín Rodríguez León Principal Investigator<br />
PhD in Biology, University of Extremadura, Spain, 2000<br />
Principal Investigator at <strong>the</strong> IGC since 2008<br />
Our group focuses on <strong>the</strong> study of <strong>the</strong> cellular and molecular mechanisms controlling<br />
limb <strong>de</strong>velopment and fin regeneration. We are trying to un<strong>de</strong>rstand<br />
how <strong>the</strong> main signalling centre in limb <strong>de</strong>velopment, <strong>the</strong> Apical Ecto<strong>de</strong>rmal<br />
Ridge (AER), is established and maintained through <strong>de</strong>velopment and how different<br />
molecules, namely those related to stemness, are involved in <strong>the</strong>se processes.<br />
Also, we have <strong>de</strong>veloped a line of research directed to <strong>de</strong>pict how ion<br />
dynamics can control limb <strong>de</strong>velopment, digit differentiation and fin regeneration.<br />
In <strong>the</strong>se studies we use <strong>the</strong> chicken and zebrafish embryos as well as adult<br />
zebrafish as animal mo<strong>de</strong>ls.<br />
ROLE OF STEMNESS GENES DURING FORMATION OF COMPLEX ORGANS<br />
This project is framed into a general line of work in our lab that focuses on<br />
<strong>the</strong> study of different genes that are involved in <strong>the</strong> maintenance of stemness<br />
in vitro, and <strong>the</strong>ir in vivo role during <strong>de</strong>velopment of complex organs. We are<br />
studying how oct4 plays a role in <strong>the</strong> formation of limbs during vertebrate<br />
<strong>de</strong>velopment. Our main objective is to unveil how oct4 controls <strong>the</strong> activity of<br />
a signalling centre essential for limb formation, <strong>the</strong> Apical Ecto<strong>de</strong>rmal Ridge<br />
(AER). The aims of this project are:<br />
GROUP MEMBERS<br />
Ana Catarina Certal Afonso (Post-doc, left September)<br />
Rui Castanhinha (PhD Stu<strong>de</strong>nt)<br />
Joana Monteiro (External PhD stu<strong>de</strong>nt)<br />
Rita Felix (Masters Stu<strong>de</strong>nt)<br />
Ana Rita Aires (Research Technician)<br />
COLLABORATORS<br />
Yolanda Gañán Presmanes (University of Extremadura, Spain)<br />
Domingo Macías Rodríguez (University of Extremadura, Spain)<br />
Michael Levin (Tufts University, USA)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Talk for school stu<strong>de</strong>nts, Colegio Arias Montano, Badajoz, Spain (April)<br />
Talk for school stu<strong>de</strong>nts, Escola Santo António e Escola António Aleixo,<br />
Figueira <strong>de</strong> Castelo Rodrigo, Portugal (November)<br />
1. To characterise oct4 expression during limb bud <strong>de</strong>velopment;<br />
2. To characterise <strong>the</strong> dynamics of proliferation versus apoptosis in <strong>the</strong> Apical<br />
Ecto<strong>de</strong>rmal Ridge during limb bud <strong>de</strong>velopment;<br />
3. To un<strong>de</strong>rstand <strong>the</strong> role of oct4 during limb bud <strong>de</strong>velopment and its implication<br />
in <strong>the</strong> maintenance of AER structure, function and cell behaviour;<br />
4. To correlate <strong>the</strong> activity of FGFs, Wnts and RA and <strong>the</strong> control of oct4<br />
expression with <strong>the</strong> AER structure, function and cell behaviour.<br />
We have found that Wnts and Fgfs control and maintain oct4 expression in <strong>the</strong> proliferative<br />
areas of <strong>the</strong> AER. On <strong>the</strong> contrary, BMPs and Retinoic Acid signaling act<br />
as negative factors that abolish oct4 expression in <strong>the</strong> apoptotic areas of <strong>the</strong> AER.<br />
We have also performed experiments involving pulses of BrdU and <strong>the</strong>se manipulations<br />
show that proliferative cells in <strong>the</strong> dorsal and ventral si<strong>de</strong>s of <strong>the</strong> AER will<br />
migrate towards its centre and will die by apoptosis. Manuscript is in preparation.<br />
ION DYNAMICS DURING FIN REGENERATION<br />
With this project we intend to assess <strong>the</strong> role of electric currents as coordinating<br />
signals during <strong>the</strong> re-establishment of <strong>the</strong> P-D axis after amputation of<br />
adult vertebrate appendages. We want to extend <strong>the</strong> current knowledge on <strong>the</strong><br />
molecular and cellular bases of bioelectric signals as well as <strong>the</strong> mechanisms<br />
that convert <strong>the</strong>m into cellular responses. The aims of this project are:<br />
Limb bud after oct4 overexpression and double in situ for fgf8 (orange) and msx-1<br />
(blue).<br />
1. To <strong>de</strong>scribe <strong>the</strong> ion composition of electric currents associated with <strong>the</strong> regeneration<br />
of caudal fins and to generate a spatial-temporal map of <strong>the</strong> intracellular<br />
and extracellular dynamics of particular ion species during regeneration;<br />
2. To unveil <strong>the</strong> molecular and cellular bases of ion dynamics associated with<br />
regeneration;<br />
3. To un<strong>de</strong>rstand <strong>the</strong> role of specific ion transporters in <strong>the</strong> regeneration<br />
mechanism;<br />
4. To establish a link between ion dynamics and known molecular pathways<br />
involved in <strong>the</strong> regeneration process.<br />
We have <strong>de</strong>monstrated that during regeneration, a proton outward flux gradient is<br />
established along <strong>the</strong> proximo-distal axis. Moreover, we have i<strong>de</strong>ntified <strong>the</strong> V-AT-<br />
Pase as <strong>the</strong> most likely molecular source that triggers <strong>the</strong> <strong>de</strong>tected regenerationspecific<br />
H+ efflux. Inhibition of this ion pump <strong>de</strong>creases regeneration rate. Hence,<br />
we suggest that V-ATPase mediated proton flux in involved in <strong>the</strong> spatial coordination<br />
of genes that will dictate <strong>the</strong> position-<strong>de</strong>pen<strong>de</strong>nt rate of regeneration.<br />
Scanning electron microscopy micrograph showing <strong>the</strong> surface of <strong>the</strong> regenerating<br />
blastema in a zebrafish caudal fin 6 hours after amputation.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
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SYSTEMS<br />
NEUROSCIENCE<br />
THIS GROUP IS A MEMBER OF THE CHAMPALIMAUD NEUROSCIENCE PROGRAMME AT THE IGC<br />
Zachary Mainen Principal Investigator<br />
PhD in Neurosciences, University of California, San Diego, 1995<br />
Associate Professor, Cold Spring Harbor Laboratory, New York, USA<br />
Head of <strong>the</strong> Champalimaud Neuroscience Programme at IGC<br />
Principal Investigator at <strong>the</strong> IGC since 2007<br />
link to external website<br />
We are interested in un<strong>de</strong>rstanding <strong>the</strong> principles un<strong>de</strong>rlying <strong>the</strong> complex adaptive<br />
behaviour of organisms. Starting with quantitative observations of animal<br />
behaviour, we aim to integrate quantitative cellular and systems level experimental<br />
analysis of un<strong>de</strong>rlying neural mechanisms with <strong>the</strong>oretical, ecological<br />
and evolutionary contexts. Rats and mice provi<strong>de</strong> flexible animal mo<strong>de</strong>ls that<br />
allow us monitor and manipulate neural circuits using electrophysiological, optical<br />
and molecular techniques. We have ma<strong>de</strong> progress using highly-controlled<br />
studies of a simple learned odour-cued <strong>de</strong>cision task and are extending our<br />
focus toward more complex behaviours. Projects in <strong>the</strong> lab are wi<strong>de</strong>-ranging<br />
and continually evolving. Current topics inclu<strong>de</strong>:<br />
1. Olfactory sensory <strong>de</strong>cision-making;<br />
2. The function of <strong>the</strong> serotonin system;<br />
3. The role of uncertainty in brain function and behaviour;<br />
4. The neural dynamics of choice.<br />
OPTOGENETIC IDENTIFICATION AND CONTROL OF SEROTONIN NEURONS<br />
IN BEHAVING ANIMALS<br />
Serotonin (5-HT) is an important neurotransmitter implicated in a wi<strong>de</strong> variety<br />
of physiological functions and psychopathologies, but whose function is not<br />
well un<strong>de</strong>rstood. Critically, very little is known about <strong>the</strong> activity of serotoninreleasing<br />
neurons in <strong>the</strong> brain. This problem is greatly exacerbated by <strong>the</strong> difficulty<br />
in i<strong>de</strong>ntifying <strong>the</strong>se neurons during physiological recordings. To address<br />
<strong>the</strong>se problems, we will <strong>de</strong>velop and validate optogenetic methods that target<br />
5-HT neurons, gaining access to record and perturb this system optically with<br />
high temporal and genetic specificity. We will combine <strong>the</strong>se tools with behavioural<br />
analysis and electrophysiological recordings toward un<strong>de</strong>rstanding <strong>the</strong><br />
role of 5-HT in adaptive behaviour. Our aims are to use <strong>the</strong>se approaches to<br />
stimulate, silence and monitor 5-HT function in <strong>the</strong> context of spontaneous<br />
behaviours, value-related <strong>de</strong>cision-making, sensorimotor function and behavioural<br />
timing.<br />
GROUP MEMBERS<br />
Cindy Poo (Post-doc, started in May)<br />
Eran Lottem (Post-doc, started in January)<br />
Enrica Au<strong>de</strong>ro (Post-doc/Project manager, started in February)<br />
Eric Dewitt (Post-doc)<br />
Magor Lorincz (Post-doc)<br />
Hope Johnson (Post-doc)<br />
Masayoshi Murakami (Post-doc)<br />
Guillaume Dugué (Post-doc)<br />
Niccolò Bonacchi (PhD Stu<strong>de</strong>nt)<br />
Ana Rita Fonseca (PhD Stu<strong>de</strong>nt)<br />
André Mendonça (PhD Stu<strong>de</strong>nt)<br />
Maria Inês Vicente (PhD Stu<strong>de</strong>nt)<br />
Patricia Correia (PhD Stu<strong>de</strong>nt)<br />
Sara Matias (PhD Stu<strong>de</strong>nt)<br />
Gil Costa (PhD Stu<strong>de</strong>nt)<br />
COLLABORATORS<br />
Adam Kepecs (Cold Spring Harbor Laboratory, USA)<br />
Alex Pouget (Department of Brain and Cognitive Sciences,<br />
University of Rochester, USA)<br />
Matthieu Luis (Centre for Genomic Regulation (CRG), Barcelona, Spain)<br />
Trevor Sharp (Department of Pharmacology, University of Oxford, UK)<br />
FUNDING<br />
European Research Council (ERC), European Commission<br />
Human Frontiers Science Programme (HFSP)<br />
Champalimaud Foundation (CF), Portugal<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
We continued to validate techniques for stimulating light-gated channelrhodopsin-2<br />
in 5-HT neurons, using slice physiology, pharmacology, microdialysis,<br />
in vivo recordings and <strong>de</strong>monstrated a light-activated field potential as a measure<br />
of 5-HT stimulation (manuscript in preparation). We found effects of 5-HT<br />
stimulation on olfactory neural activity in <strong>the</strong> piriform cortex. We <strong>de</strong>monstrated<br />
a new system for chronically monitoring neural activity in genetically-<strong>de</strong>fined<br />
neuronal populations.<br />
OLFACTORY OBJECTS AND DECISIONS:<br />
FROM PSYCHOPHYSICS TO NEURAL COMPUTATION<br />
Object recognition is an important and difficult problem solved by <strong>the</strong> nervous<br />
system. According to <strong>the</strong>oretical accounts, object recognition can be un<strong>de</strong>rstood<br />
as a process of probabilistic inference. Un<strong>de</strong>r this hypo<strong>the</strong>sis, complex<br />
stimuli are represented using a probabilistic population co<strong>de</strong>. To link <strong>the</strong>se normative<br />
i<strong>de</strong>as to specific neurophysiological and behavioural predictions, we are<br />
formalising <strong>the</strong>m using computational mo<strong>de</strong>ls. Experimentally, our primary goal<br />
is to monitor and perturb object representations in <strong>the</strong> functioning, computing<br />
brain. To this end, we <strong>de</strong>ploy olfactory psychophysical tasks in rats, which formalise<br />
complex real-world problems. By combining such quantitative paradigms<br />
with large-scale neural ensemble recordings in <strong>the</strong> olfactory cortex, we can<br />
study how populations of neurons enco<strong>de</strong> and process complex odour scenes,<br />
attempt to account for behavioural performance, and test <strong>the</strong> predictions of<br />
our <strong>the</strong>oretical mo<strong>de</strong>ls.<br />
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We compared speed-accuracy tra<strong>de</strong>-offs (SATs) in odour <strong>de</strong>tection and categorisation<br />
and found large differences between tasks, <strong>de</strong>monstrating that SAT is<br />
problem-specific and suggesting that <strong>the</strong> locus of performance-limiting noise<br />
is a critical variable (manuscript in preparation). We <strong>de</strong>veloped a computational<br />
mo<strong>de</strong>l of <strong>the</strong>se tasks, which can be fit to <strong>the</strong> data, and which has allowed us to<br />
formalise <strong>the</strong>se hypo<strong>the</strong>ses.<br />
ACTION SELECTION AND ACTION TIMING IN THE PREMOTOR CORTEX<br />
Executing <strong>the</strong> right action at <strong>the</strong> right moment is important for adaptive behaviour.<br />
Thus, not only how we choose one action among multiple options but also<br />
how we <strong>de</strong>termine <strong>the</strong> timing of actions are fundamental questions.<br />
Our goal is to un<strong>de</strong>rstand what features of future actions are represented in<br />
<strong>the</strong> neuronal firing patterns in <strong>the</strong>se areas, and how <strong>the</strong> interaction between<br />
neurons gives rise to <strong>the</strong> action selection and action timing processes.<br />
To achieve this goal, we are using multiple single-unit recording techniques<br />
in behaving ro<strong>de</strong>nts. By correlating <strong>the</strong> activity of neurons with <strong>the</strong> animal’s<br />
behaviour, we are seeking to un<strong>de</strong>rstand <strong>the</strong> internal representation of future<br />
actions in <strong>the</strong> motor cortex. Fur<strong>the</strong>rmore, by analysing <strong>the</strong> relationships of<br />
spiking activity amongst multiple neurons, we hope to gain insight into computations<br />
within <strong>the</strong> microcircuits in <strong>the</strong> motor cortex. Finally, we will apply<br />
optogenetic techniques to perturb specific circuits and observe <strong>the</strong> impact on<br />
behaviour.<br />
We analysed neural correlates of action timing in <strong>the</strong> premotor cortex, documenting<br />
two classes of waiting-time predictive neurons and a dynamical systems<br />
analysis of <strong>the</strong> ensemble activity (manuscript submitted). We also <strong>de</strong>veloped a<br />
task in which we can manipulate <strong>the</strong> availability of potential action options. We<br />
began testing optogenetic interventions in <strong>the</strong>se contexts.<br />
EVALUATING THE RELIABILITY OF KNOWLEDGE:<br />
NEURAL MECHANISMS OF CONFIDENCE ESTIMATION<br />
Humans and o<strong>the</strong>r animals must often make <strong>de</strong>cisions on <strong>the</strong> basis of imperfect<br />
evi<strong>de</strong>nce. What is <strong>the</strong> neural basis for such judgments? How does <strong>the</strong> brain<br />
compute confi<strong>de</strong>nce estimates about predictions, memories and judgments?<br />
Previously, we found that a population of neurons in <strong>the</strong> orbitofrontal cortex<br />
(OFC) tracks <strong>the</strong> confi<strong>de</strong>nce in <strong>de</strong>cision outcomes. We are seeking to extend<br />
<strong>the</strong>se observations by testing whe<strong>the</strong>r confi<strong>de</strong>nce-related neural activity in <strong>the</strong><br />
OFC is causally related to confi<strong>de</strong>nce judgments. We are also addressing how<br />
<strong>the</strong> uncertainty about a stimulus in <strong>the</strong> course of <strong>de</strong>cision-making is computed<br />
in olfactory sensory cortex. We are currently establishing similar confi<strong>de</strong>ncereporting<br />
tasks in humans and testing <strong>the</strong>m in a range of behaviours. These<br />
experiments will give us fur<strong>the</strong>r insights into <strong>the</strong> nature of <strong>the</strong> neural processes<br />
un<strong>de</strong>rlying confi<strong>de</strong>nce estimation.<br />
In rats, we used chronic multi-electro<strong>de</strong> recordings to assay neural ensemble<br />
function in <strong>the</strong> olfactory tubercule of rats performing a confi<strong>de</strong>nce reporting<br />
task (study in progress). We also found that inactivation of <strong>the</strong> rat orbitofrontal<br />
cortex impairs confi<strong>de</strong>nce reporting but not choice behaviour (manuscript un<strong>de</strong>r<br />
review). In humans we tested confi<strong>de</strong>nce reporting tasks similar to those we<br />
<strong>de</strong>ployed in rats un<strong>de</strong>r several different psychophysical paradigms.<br />
IGC ANNUAL REPORT ‘11<br />
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PATTERNING<br />
AND MORPHOGENESIS<br />
Moisés Mallo Principal Investigator<br />
PhD in Molecular Biology, Santiago <strong>de</strong> Compostela, Spain, 1991<br />
Postdoctoral Fellow, Roche Institute of Molecular Biology, Nutley, NJ, USA<br />
Junior Group Lea<strong>de</strong>r, Max Planck Institute of Immunobiology, Freiburg, Germany<br />
Head of <strong>the</strong> IGC Transgenics Unit<br />
Principal Investigator at <strong>the</strong> IGC since 2001<br />
Our group is interested in several aspects of vertebrate embryonic <strong>de</strong>velopment.<br />
The ultimate goal of our research is to un<strong>de</strong>rstand <strong>the</strong> molecular mechanisms<br />
that translate patterning information into morphogenetic processes<br />
during formation of <strong>the</strong> vertebrate embryo. For a number of years, we have<br />
explored different <strong>de</strong>velopmental processes, including ear formation, neural<br />
crest induction/migration and differentiation of branchial arches. Our most<br />
recent work is focused on <strong>the</strong> <strong>de</strong>velopment and evolution of <strong>the</strong> vertebrate axial<br />
skeleton, mostly focused on <strong>the</strong> role that Hox genes play in <strong>the</strong>se processes.<br />
We are particularly interested in un<strong>de</strong>rstanding <strong>the</strong> molecular mechanisms that<br />
mediate Hox activity, with special focus on <strong>the</strong> functional interactions between<br />
Hox genes and chromatin.<br />
GROUP MEMBERS<br />
Ana Cristina Santos (Post-doc)<br />
Ana Casaca (Post-doc)<br />
Arnon Jurberg (PhD Stu<strong>de</strong>nt)<br />
Ozlem Isik (PhD Stu<strong>de</strong>nt)<br />
Ana Nóvoa (Research Technician)<br />
Andreia Nunes (Trainee)<br />
COLLABORATORS<br />
Sara Monteiro (<strong>Instituto</strong> Superior <strong>de</strong> Agronomia <strong>de</strong> Lisboa, Portugal)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
THE ROLE OF SPECIFIC PEPTIDE MOTIFS AND POST-TRANSLATIONAL<br />
MODIFICATIONS IN ACTIVITY OF HOX GROUP 10 GENES<br />
Functional assays using transgenic embryos showed that different Hox genes<br />
display remarkable <strong>de</strong>grees of specificity. A paradigmatic example of this is <strong>the</strong><br />
ability of Hox10 genes to block rib formation, a property that is not shared by<br />
any o<strong>the</strong>r Hox gene tested un<strong>de</strong>r <strong>the</strong> same assay conditions. We set to i<strong>de</strong>ntify<br />
<strong>the</strong> characteristics that provi<strong>de</strong> Hox10 proteins <strong>the</strong>ir rib-repressing activity.<br />
We searched for motifs shared by Hox10 genes, which are not shared by o<strong>the</strong>r<br />
Hox proteins. We i<strong>de</strong>ntified at least two of <strong>the</strong>m. In this project we are analysing<br />
<strong>the</strong> contribution of <strong>the</strong>se motifs to <strong>the</strong> protein's function by mutating <strong>the</strong>m or<br />
<strong>the</strong>ir introduction into ano<strong>the</strong>r Hox protein without rib-repressing properties<br />
to test <strong>the</strong>ir functional effects. We also want to analyse how <strong>the</strong>se motifs affect<br />
post-translational modifications in <strong>the</strong>se proteins to <strong>de</strong>termine if any of <strong>the</strong>se<br />
modifications is required for <strong>the</strong> protein's function.<br />
We have shown that one of <strong>the</strong> motifs that we found to be specific to Hox10<br />
proteins is in<strong>de</strong>ed essential for <strong>the</strong> rib-repressing activity of <strong>the</strong>se proteins.<br />
M1 needs to be phosphorylated to produce an active Hox10 protein. This motif<br />
interacts with <strong>the</strong> N-terminal sequences of <strong>the</strong> protein and with <strong>the</strong> homeodomain<br />
to modulate <strong>the</strong> phosphorylation status of two conserved tyrosine<br />
residues that influence <strong>the</strong> DNA binding properties of <strong>the</strong> molecule. We have<br />
submitted a paper with <strong>the</strong>se findings.<br />
THE CONTROL OF MYF5 AND MYF6 EXPRESSION BY HOX GENES<br />
We have previously shown that Myf5 and Myf6 expression are controlled by Hox<br />
genes of groups 6 and 10, specifically in <strong>the</strong> hypaxial myotome. This regulation<br />
is a key element of <strong>the</strong> mechanism by which genes of those two Hox groups<br />
control rib formation. The control of Myf5/6 expression by Hox genes involves<br />
direct interaction with a specific enhancer located 56 kb upstream of Myf5. In<br />
this process, Hox proteins interact with Pax3, which is also essential to regulate<br />
this enhancer. We now want to un<strong>de</strong>rstand <strong>the</strong> mechanisms of this control. Given<br />
<strong>the</strong> long distance between <strong>the</strong> Hox/Pax responsive enhancer and <strong>the</strong> genes it<br />
controls, we hypo<strong>the</strong>sised that part of this control involves modulation of chromatin<br />
structure. In addition, some data suggest that Hox10 genes could act as<br />
pioneer factors to promote or block Pax3 activity on this enhancer. Therefore,<br />
one of <strong>the</strong> main aims of this project is to <strong>de</strong>termine <strong>the</strong> effect of Hox and Pax<br />
activity on <strong>the</strong> chromosome structure at <strong>the</strong> Myf5/6 locus.<br />
We have generated a BAC reporter assay to study <strong>the</strong> chromatin structure associated<br />
to <strong>the</strong> Hox/Pax-responsive enhancer of Myf5. For this, we introduced a<br />
small sequence tag next to <strong>the</strong> enhancer, in <strong>the</strong> context of a BAC that contains<br />
all relevant areas of <strong>the</strong> Myf5 locus required to control <strong>de</strong>velopmental expression<br />
of this gene. We have created transgenic mouse lines with <strong>the</strong>se BACs,<br />
which will be used to analyse <strong>the</strong> effect of Hox activity on <strong>the</strong> chromosome<br />
structure of <strong>the</strong> Myf5 genomic region.<br />
Wild Type<br />
Mouse-Type H1 enhancer<br />
Dll1-mHoxa10<br />
Dll1-snkHoxa10<br />
Skeletons of a wild type embryo and of two transgenic embryos expressing ei<strong>the</strong>r<br />
<strong>the</strong> mouse or snake Hoxa10 genes (Dll1-mHoxa10 and Dll1-snkHoxa10, respectively).<br />
The data shows that <strong>the</strong> snake Hoxa10 gene is able to block rib formation as efficiently<br />
as its mouse counterpart.<br />
Snake-Type H1 enhancer<br />
β-galactosidase expression from BAC reporter transgenes in which <strong>the</strong><br />
β-galactosidase gene was inserted into <strong>the</strong> Myf5 transcription unit. In <strong>the</strong> embryo<br />
on <strong>the</strong> left, <strong>the</strong> BAC contains <strong>the</strong> Hox-responding H1 enhancer normally found<br />
in <strong>the</strong> mouse genome. In <strong>the</strong> embryo on <strong>the</strong> right, <strong>the</strong> H1 enhancer of <strong>the</strong> BAC<br />
was modified to introduce <strong>the</strong> polymorphism that we have i<strong>de</strong>ntified in <strong>the</strong> snake<br />
genome. In <strong>the</strong> latter embryo, expression is exten<strong>de</strong>d in <strong>the</strong> hypaxial myotome at<br />
<strong>the</strong> hind limb level, showing that this polymorphism is in<strong>de</strong>ed functional in vivo.<br />
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HOXA10 AND THE EVOLUTION OF THE VERTEBRATE BODY PLAN<br />
One of <strong>the</strong> functions of Hox genes of <strong>the</strong> paralogue group 10 during patterning<br />
of <strong>the</strong> axial skeleton is to block rib formation. This function is essential for <strong>the</strong><br />
formation of <strong>the</strong> rib-less areas of <strong>the</strong> vertebral column caudal to <strong>the</strong> ribcage,<br />
such as <strong>the</strong> lumbar vertebrae. It has been shown that in snakes Hoxa10 is expressed<br />
within <strong>the</strong> rib-forming area, suggesting that in snakes this gene has lost<br />
<strong>the</strong> ability to block rib formation. Whe<strong>the</strong>r this is an intrinsic property of <strong>the</strong><br />
protein itself or due to alterations in <strong>the</strong> networks downstream to this gene,<br />
remains to be <strong>de</strong>termined. In this project we aim at un<strong>de</strong>rstanding this problem.<br />
We found that <strong>the</strong> snake Hoxa10 blocks rib formation when assayed in mouse<br />
embryos. Therefore, <strong>the</strong> absence of activity in <strong>the</strong> snake is not due to intrinsic<br />
properties of <strong>the</strong> protein. We i<strong>de</strong>ntified a polymorphism in <strong>the</strong> Hox-responsive<br />
enhancer of Myf5 that ren<strong>de</strong>rs <strong>the</strong> enhancer unable to bind Hox proteins. When<br />
assayed in transgenic mice using a BAC reporter approach, we saw that this<br />
polymorphism is functionally relevant, which explains <strong>the</strong> inability of Hoxa10 to<br />
block rib formation in snakes.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
50
EARLY FLY<br />
DEVELOPMENT<br />
Rui Gonçalo Martinho Principal Investigator<br />
PhD in Biology, University of Sussex, UK, 2000<br />
Associate to Howard Hughes, Skirball Institute - New York Medical Center, NYC, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2006<br />
Our main research interests relates to mitosis, cell proliferation, and tissue morphogenesis.<br />
More specifically:<br />
1. We are taking advantage of Drosophila melanogaster as a mo<strong>de</strong>l system<br />
to better <strong>de</strong>fine <strong>the</strong> molecular mechanisms responsible for <strong>the</strong> correct orientation<br />
of <strong>the</strong> mitotic spindle during symmetric mitosis of epi<strong>the</strong>lial cells;<br />
2. We want to un<strong>de</strong>rstand <strong>the</strong> differential requirements of protein N-terminal<br />
acetylation in somatic and germ-line stem cells mitosis;<br />
3. Explain why a known human tumour suppressor gene is specifically important<br />
for <strong>the</strong> onset of zygotic expression and tissue morphogenesis in <strong>the</strong><br />
earliest stages of Drosophila <strong>de</strong>velopment.<br />
GROUP MEMBERS<br />
Leonardo Gaston Guilgur (Post-doc)<br />
Paulo Costa(Post-doc, started in September)<br />
Tania Ferreira (PhD Stu<strong>de</strong>nt)<br />
Pedro Prudêncio (Laboratory Manager)<br />
Ana Ribeiro (Trainee, started in November)<br />
Barbara Kellen (Trainee)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
CHARACTERISATION OF MESENCHYMAL TO EPITHELIAL TRANSITION<br />
IN Drosophila melanogaster<br />
This project aims at <strong>de</strong>fining <strong>the</strong> role of atypical protein kinase C (aPKC) during<br />
tissue morphogenesis, MET, and cell proliferation (submitted manuscript).<br />
ANALYSIS OF THE ROLE OF N-TERMINAL ACETYLTRANSFERASES<br />
DURING DROSOPHILA DEVELOPMENT<br />
Defining <strong>the</strong> role of N-terminal acetylation during cell proliferation is <strong>the</strong> main<br />
objective of this research project. Findings have been submmited for publication.<br />
CONSTRAINTS ON GENE EXPRESSION DURING EARLY EMBRYONIC<br />
DEVELOPMENT<br />
The main aim is <strong>the</strong> characterisation of Drosophila early zygotic transcription.<br />
We i<strong>de</strong>ntified a mutant that is specifically <strong>de</strong>fective for pre-mRNA splicing of<br />
early zygotic transcripts.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
51
DEVELOPMENT,<br />
EVOLUTION<br />
AND THE ENVIRONMENT<br />
Christen Mirth Principal Investigator<br />
PhD in Zoology, University of Cambridge, UK, 2002<br />
Post-doctoral associate, Department of Zoology, University of Wahsington, Seattle, USA<br />
Research Specialist, Janelia Farm Research Campus, HHMI, Ashburn, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2010<br />
link to external website<br />
Our lab studies <strong>the</strong> regulation and evolution of environmentally-<strong>de</strong>pen<strong>de</strong>nt<br />
traits in species from <strong>the</strong> genus Drosophila. Recently, our efforts have focused<br />
on two traits that <strong>de</strong>pend on nutritional cues:<br />
1. Body size;<br />
2. Larval foraging behaviour.<br />
We use <strong>the</strong> genetic tools available in Drosophila melanogaster to dissect how environmental<br />
signals, like nutrition, regulate larval growth and foraging choices.<br />
By analysing <strong>the</strong> changes in <strong>the</strong>se mechanisms across species, we hope to i<strong>de</strong>ntify<br />
how <strong>the</strong>se environmentally-<strong>de</strong>pen<strong>de</strong>nt traits evolve to create species-specific<br />
differences in foraging behaviour and adult body size.<br />
GROUP MEMBERS<br />
Takashi Koyama (Post-doc)<br />
Marisa Oliveira (PhD Stu<strong>de</strong>nt)<br />
Cláudia Men<strong>de</strong>s (PhD Stu<strong>de</strong>nt, started in April)<br />
Sara Lennox (Technician)<br />
Marisa Rodrigues (Trainee)<br />
COLLABORATORS<br />
Alexan<strong>de</strong>r Shingleton (Department of Zoology, Michigan State University, USA)<br />
Élio Sucena (IGC, Portugal)<br />
Marta Zlatic (Janelia Farm Research Campus, Howard Hughes Medical<br />
Institute, USA)<br />
FUNDING<br />
Calouste <strong>Gulbenkian</strong> Foundation, Portugal<br />
NUTRITION-DEPENDENT REGULATION OF BODY SIZE<br />
IN Drosophila melanogaster<br />
Organisms of all phyla regulate <strong>the</strong>ir body size in response to a number of environmental<br />
factors, including nutrition. Both <strong>the</strong> rate of growth and <strong>the</strong> length of<br />
<strong>the</strong> growth period <strong>de</strong>termine final body size. Nutrition regulates growth rates<br />
via <strong>the</strong> insulin and target of rapamycin (TOR) pathways. In insects, a size-<strong>de</strong>pen<strong>de</strong>nt<br />
checkpoint, known as critical weight, <strong>de</strong>termines when growth ceases.<br />
Insulin and TOR signaling in <strong>the</strong> prothoracic gland (PG) regulates critical weight<br />
by controlling on <strong>the</strong> production of <strong>the</strong> steroid hormone ecdysone. Thus nutrition<br />
directly affects both <strong>the</strong> rate and duration of <strong>the</strong> growth period. We aim to<br />
un<strong>de</strong>rstand how nutrition regulates final body size by:<br />
1. Investigating how insulin/TOR controls <strong>the</strong> nutrition-<strong>de</strong>pen<strong>de</strong>nt syn<strong>the</strong>sis<br />
of ecdysone;<br />
2. Determine <strong>the</strong> role of ecdysone signalling on <strong>the</strong> growth and differentiation<br />
of <strong>the</strong> <strong>de</strong>veloping adult tissues.<br />
Two manuscripts are in preparations:<br />
Oliveira, M.M., Shingleton, A.W. & Mirth, C.K. (in preparation). How old are you?<br />
A new tool using gene patterning to characterise <strong>de</strong>velopmental time in Drosophila<br />
larvae.<br />
Mirth, C.K.,Tang,H.Y., Makhon-Moore, S., Salhadar, S., Riddiford, L.M. & Shingleton,<br />
A.W. (in preparation). Juvenile Hormone controls body size by regulating<br />
insulin signalling in Drosophila.<br />
THE ENVIRONMENTAL REGULATION AND EVOLUTION OF FORAGING<br />
STRATEGIES IN THE GENUS Drosophila<br />
The environment and evolution act to generate a vast diversity of foraging strategies<br />
in insects. We examine two aspects of foraging behaviour: how environmental<br />
cues interact with <strong>de</strong>velopment to regulate larval foraging behaviour in<br />
D. melanogaster and how behavioural suites evolve to produce differences in<br />
larval foraging strategies between species of <strong>the</strong> genus Drosophila.<br />
Our most recent efforts investigate <strong>the</strong> evolution of larval foraging behaviour<br />
using a collection of 47 species of Drosophila. To date, we have analysed all<br />
species for burrowing behaviour. We are continuing our exploration by characterising<br />
<strong>the</strong> array of behaviours observed when larvae come into contact on<br />
<strong>the</strong> surface of <strong>the</strong> food. Exploring <strong>the</strong>se behaviours allows us to generate a<br />
behavioural profile for each species.<br />
We use <strong>the</strong>se profiles to i<strong>de</strong>ntify closely related species exhibiting divergent<br />
behaviours. Our ultimate goal is to i<strong>de</strong>ntify genomic sites responsible for <strong>the</strong><br />
evolution of foraging strategies. A manuscript is in preparation:<br />
Rivera Alba, M., Kelstrup, H.C.P., Riddiford, L.M. & Mirth, C.K. (in preparation).<br />
The evolution of burrowing behaviour in fruit flies from <strong>the</strong> genus Drosophila.<br />
Knocking down FoxO and Usp in <strong>the</strong> prothoracic gland (PG) causes premature<br />
expression of Senseless (Sens) in wing discs of larvae starved of protein. A) A<br />
wing disc from a control larva (PG>). B) A wing disc from a larva in which FoxO is<br />
knocked down in <strong>the</strong> PG. C) A wing disc from a larva in which Usp is knocked down<br />
in <strong>the</strong> PG. D) A wing disc from a larva in which both FoxO and Usp are knocked<br />
down in <strong>the</strong> PG. Arrows point to Sens positive sensory organ precursors.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
52
BEHAVIOURAL<br />
NEUROSCIENCE<br />
THIS GROUP IS A MEMBER OF THE CHAMPALIMAUD NEUROSCIENCE PROGRAMME AT THE IGC<br />
Marta Moita Principal Investigator<br />
PhD in Neuroscience, Universida<strong>de</strong> do Porto, Portugal<br />
Post-doctoral Fellow, Cold Spring Harbor Laboratory, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2004<br />
link to external website<br />
We are interested in un<strong>de</strong>rstanding <strong>the</strong> neural mechanisms un<strong>de</strong>rlying behavioural<br />
plasticity using a combination of behavioural, pharmacological, molecular<br />
and electrophysiological tools. In particular, we are studying how prior experience<br />
and how social interactions shape behaviour. To this end, we are studying<br />
fear; both how animals learn to fear cues that are predictive of aversive events<br />
or threats, and how fear can be socially transmitted, i.e. how animal respond to<br />
<strong>the</strong> distress of con-specifics. We chose fear learning since it is conserved across<br />
species, entailing fast robust learning and very long lasting memories. We are<br />
also studying <strong>de</strong>cision-making in <strong>the</strong> context of social interactions, using game<br />
<strong>the</strong>ory to test how rats learn and evaluate <strong>the</strong> payoffs that result from <strong>the</strong> interaction<br />
with ano<strong>the</strong>r individual.<br />
NEURAL MECHANISMS OF TRACE AUDITORY FEAR CONDITIONING<br />
This project focuses on <strong>the</strong> role of different memory systems in trace auditory<br />
fear conditioning (tAFC). We hypo<strong>the</strong>sised that <strong>the</strong> mechanism un<strong>de</strong>rlying <strong>the</strong><br />
association between a tone and a shock <strong>de</strong>pends on <strong>the</strong> length of <strong>the</strong> trace<br />
interval memory and in <strong>the</strong> case of long intervals <strong>the</strong>y rely on episodic memory<br />
between <strong>the</strong> two stimuli, where in <strong>the</strong> case of a short interval rats rely on working<br />
memory.<br />
GROUP MEMBERS<br />
Kensaku Nomoto (Post-doc)<br />
Ana Pereira (PhD stu<strong>de</strong>nt)<br />
Andreia Pereira (PhD stu<strong>de</strong>nt)<br />
Elizabeth Rickenbacher (PhD stu<strong>de</strong>nt)<br />
Marta Guimarãis (PhD stu<strong>de</strong>nt)<br />
Scott Rennie (PhD stu<strong>de</strong>nt)<br />
COLLABORATORS<br />
Hugh Blair (University of California Los Angeles (UCLA), USA)<br />
Alfonso Renart (Champalimaud Foundation, Portugal)<br />
Susana Lima (Champalimaud Neuroscience Programme, Portugal)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
Champalimaud Foundation, Portugal<br />
We have tested <strong>the</strong> role of contextual learning in auditory trace fear conditioning.<br />
We found that <strong>de</strong>creasing <strong>the</strong> saliency of <strong>the</strong> training environment disrupts<br />
learning to fear a tone that prece<strong>de</strong>s shock by several seconds and that inactivating<br />
<strong>the</strong> hippocampus does not <strong>de</strong>crease it fur<strong>the</strong>r. In addition we are studying<br />
<strong>the</strong> role prefrontal cortex in trace conditioning by performing single-unit<br />
recordings in this structure during learning.<br />
COOPERATION IN SOCIAL DILEMMAS IN RATS<br />
Game <strong>the</strong>ory has constituted a powerful tool in <strong>the</strong> study of <strong>the</strong> mechanisms of<br />
reciprocity. Having shown that, in a Prisoner’s Dilemma game, rats shape <strong>the</strong>ir<br />
behaviour according to <strong>the</strong> opponent’s strategy and <strong>the</strong> relative size of <strong>the</strong><br />
payoff resulting from cooperative or <strong>de</strong>fective moves, we now aim at dissecting<br />
<strong>the</strong> mechanisms.<br />
We tested whe<strong>the</strong>r rats learn to coordinate in a game where coordination with a<br />
conspecific leads to highest number of rewards. We have found that rats learn to<br />
coordinate and that <strong>the</strong>y are not simply following <strong>the</strong> o<strong>the</strong>r rat, since <strong>de</strong>creasing<br />
<strong>the</strong> reward for coordinating leads to a significant <strong>de</strong>crease in coordination.<br />
NEURAL MECHANISMS OF SOCIAL TRANSMISSION OF FEAR IN RATS<br />
This project aims at investigating <strong>the</strong> mechanisms un<strong>de</strong>rlying social transmission<br />
of fear (STF) in rats, i.e. how rats respond to <strong>the</strong> fear displayed by a<br />
conspecific. In or<strong>de</strong>r to unravel <strong>the</strong> neural circuit un<strong>de</strong>rlying STF, we will first<br />
<strong>de</strong>termine how prior self-experience with shock contributes to STF and what<br />
are <strong>the</strong> sensory cues that mediate this process.<br />
We found that rats do not rely on visual cues, alarm calls or short range chemical<br />
signals to <strong>de</strong>tect fear in a conspecific. Instead, <strong>the</strong>y use auditory cues which are<br />
likely to signal <strong>the</strong> sud<strong>de</strong>n transition from motion to immobility. Through sound<br />
playback experiments, we found that <strong>the</strong> absence of movement-evoked sound<br />
was necessary and sufficient to induce fear in rats. In addition we have found that<br />
prior experience with shock is necessary, but not sufficient for vicarious fear.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
53
INFECTION<br />
AND IMMUNITY<br />
Michael Parkhouse Principal Investigator<br />
PhD in Biochemistry, University of London<br />
Head Immunology, Institute Animal Health, Pirbright, UK<br />
Director, Centro Nacional <strong>de</strong> Biotechnologia, Madrid, Spain<br />
Special Appointment-equivalent to University Professor, National Institute for Medical Research, Mill Hill, London<br />
Principal Investigator at <strong>the</strong> IGC since 2000<br />
The <strong>the</strong>me of <strong>the</strong> group is <strong>the</strong> reciprocal adaptation between an infectious<br />
organism and its host. The necessity to recognise and <strong>de</strong>stroy invading pathogens<br />
has played a crucial role in <strong>the</strong> evolution of <strong>the</strong> immune system of both<br />
vertebrates and invertebrates. At <strong>the</strong> same time, pathogens, in particular viruses,<br />
have evolved strategies to manipulate <strong>the</strong> immune system. An efficient<br />
immune system must select <strong>the</strong> immune effector mechanism most appropriate<br />
to <strong>the</strong> biology of <strong>the</strong> pathogen. Thus, <strong>the</strong> study of how pathogens control immune<br />
responses will offer novel approaches for <strong>the</strong> manipulation of <strong>the</strong> immune<br />
responses in health and disease, with novel vaccines and strategies to<br />
downregulate <strong>the</strong> immune system (e.g. inflammation) being <strong>the</strong> most obvious<br />
possibilities. Therefore, we are i<strong>de</strong>ntifying and characterising virus host evasion<br />
genes directed towards subversion of cell biology and innate immunity. The two<br />
viruses that we have selected are Herpesvirus and <strong>the</strong> African Swine Fever Virus.<br />
EVALUATING AND CONTROLLING THE RISK OF AFRICAN SWINE FEVER (ASF)<br />
IN THE EU<br />
The aim is to provi<strong>de</strong> new tools and strategies for <strong>the</strong> control of ASF in Africa and<br />
reduce <strong>the</strong> risk of importation and/or spread of <strong>the</strong> disease in EU member states.<br />
GROUP MEMBERS<br />
Rute Nascimento (Post-doc, started in July )<br />
Sílvia Correia (Post-doc)<br />
Helena Costa (PhD stu<strong>de</strong>nt)<br />
Sónia Ventura (PhD stu<strong>de</strong>nt)<br />
Emanuel Costa (Research Technician)<br />
COLLABORATORS<br />
Sun Huaichang (College of Veterinary Medicine, Yangzhou University, China)<br />
Alexandre Leitão (Faculda<strong>de</strong> <strong>de</strong> Medicina Veterinária, Universida<strong>de</strong> Técnica<br />
<strong>de</strong> Lisboa, Portugal)<br />
John Sinclair (University of Cambridge, UK)<br />
Steve Goodbourn (St. George's Hospital, University of London, UK)<br />
FUNDING<br />
Framework Programme 7 (FP7), European Commission<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
We produced B602L, p54, A104R and K205R recombinant proteins which have<br />
been used as antigens to field test ASFV isolates in new recombinant ELISAs by<br />
Dr Carmina Gallardo, CISA-INIA. As <strong>the</strong> K205R protein revealed high IgM titres,<br />
it has been produced and sent to Dr Carmen Vela, INGENASA, to <strong>de</strong>velop a new<br />
commercial kit able to <strong>de</strong>tect recently ASFV infected animals. An additional ASFV<br />
Interferon evasion gene has been i<strong>de</strong>ntified using luciferase reporter assays.<br />
INHIBITION OF THE RESPONSE OF THE AFRICAN SWINE FEVER VIRUS AGAINST<br />
HOST INTERFERON<br />
Our objective is to <strong>de</strong>termine <strong>the</strong> mechanisms and consequences of three nonhomologous<br />
host evasion genes (I329L, K205R and A276R) of <strong>the</strong> economically<br />
important, frequently fatal African Swine Fever Virus (ASFV). All three genes<br />
inhibit a major component of innate immunity, <strong>the</strong> Interferon (IFN) response,<br />
and may have practical application through <strong>the</strong> <strong>de</strong>velopment of novel pharmaceuticals<br />
that manipulate IFN responses and through <strong>the</strong> construction of an<br />
attenuated gene <strong>de</strong>letion ASFV vaccine.<br />
We i<strong>de</strong>ntified <strong>the</strong> I329L gene as an inhibitor of TLR3 signalling pathway through<br />
targeting of TRIF (Ventura et al. 2012, in prep). The K205R gene was i<strong>de</strong>ntified<br />
as an interacting partner of STAT2, <strong>the</strong>refore inhibits <strong>the</strong> host antiviral response<br />
by inhibiting <strong>the</strong> expression of interferon stimulating genes (ISGs) (Correia et al<br />
2012, in prep). Definition of <strong>the</strong>ir cellular targets and impact on cellular processes<br />
is a necessary step prior to <strong>the</strong> construction of a <strong>de</strong>letion mutant virus vaccine.<br />
MECHANISM AND CONSEQUENCES OF AN IL-8 INDUCING HERPESVIRUS GENE<br />
The project builds on our own observations and experience with UL76 gene<br />
from Human Cytomegalovirus (HCMV), a novel virus host evasion gene previously<br />
lacking a function and, with <strong>the</strong> exception of <strong>the</strong> herpesviruses, still without<br />
any homologue in <strong>the</strong> database. The main objective of this project is to <strong>de</strong>fine<br />
<strong>the</strong> mechanisms employed by UL76 to induce IL-8 expression and G2/M cell<br />
cycle arrest. Un<strong>de</strong>rstanding this virus strategy for manipulating cell division and<br />
stimulating IL-8 expression may be exploitable for <strong>the</strong> rational control of <strong>the</strong>se<br />
important infections in humans, for example, <strong>the</strong> construction of attenuated<br />
herpes virus vaccines, and <strong>the</strong> <strong>de</strong>velopment of possible novel approaches for<br />
<strong>the</strong> manipulation of host cell biology in health and disease.<br />
We <strong>de</strong>monstrated that UL76 induces IL-8 expression through NF-kB activation<br />
using <strong>de</strong>letion mutants of IL-8 promoter luciferase reporter. The activation of<br />
NF-kB by UL76 is <strong>de</strong>pen<strong>de</strong>nt of IKK-beta and <strong>the</strong> <strong>de</strong>gradation of IKB-alpha proteins.<br />
Moreover, expression of UL76 results in p65 translocation to <strong>the</strong> nucleus<br />
and in increased binding of p65 to <strong>the</strong> IL-8 promoter region as shown by chromatin<br />
immunoprecipitation.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
54
DISEASE<br />
GENETICS<br />
Carlos Penha Gonçalves Principal Investigator<br />
PhD in Immunology, University of Umea, 1999<br />
Full Professor, Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Head of Genomics Unit<br />
Principal Investigator at <strong>the</strong> IGC since 2005<br />
Our scientific interests are concerned with <strong>the</strong> genetic basis of resistance/susceptibility<br />
to disease with special focus on malaria and diabetes. We aim to<br />
<strong>de</strong>velop research programmes based on <strong>the</strong> systematic analysis of individual<br />
genetic factors involved in disease resistance/susceptibility, both in humans<br />
and in mouse mo<strong>de</strong>ls. Two diseases are <strong>the</strong> focus of our work: malaria and<br />
type-1 diabetes (T1D). We aim to investigate <strong>the</strong> pathogenesis of <strong>the</strong>se diseases<br />
by combining cell and molecular biology methodologies with classical genetics<br />
techniques. In coming years a strong <strong>the</strong>me in <strong>the</strong> lab will be <strong>de</strong>ciphering <strong>the</strong><br />
role of particular cell types of <strong>the</strong> innate immune system in:<br />
1. Mediating pathogen-induced pathology (in pregnancy and cerebral malaria);<br />
2. Conferring infection resistance (in malaria liver stage);<br />
3. Shaping <strong>the</strong> responsiveness to auto-antigens (in T1D).<br />
PREGNANCY-ASSOCIATED MALARIA<br />
Pregnancy-associated malaria (PAM) is a severe clinical complication of P. falciparum<br />
infection threatening <strong>the</strong> life of <strong>the</strong> mo<strong>the</strong>r and <strong>the</strong> foetus. Infected red<br />
blood cells (iRBC) adhesion and sequestration in <strong>the</strong> placenta are <strong>the</strong> inaugural<br />
events in placental malaria pathology but key investigations on <strong>the</strong> pathogenesis<br />
mechanisms are not amenable in human placenta. We <strong>de</strong>veloped two mouse<br />
mo<strong>de</strong>ls of PAM using Plasmodium berghei ANKA infected BALB/c females enabling<br />
us to follow several lines of investigations:<br />
GROUP MEMBERS<br />
Luciana Moraes (Post-doc)<br />
Nadia Duarte (Post-doc)<br />
Ligia Deus (PhD stu<strong>de</strong>nt)<br />
Joana Corte-Real (PhD stu<strong>de</strong>nt, left in December)<br />
Joana Rodo (PhD stu<strong>de</strong>nt)<br />
Lur<strong>de</strong>s Duarte (PhD stu<strong>de</strong>nt)<br />
Elizabeth Ball (PhD stu<strong>de</strong>nt)<br />
COLLABORATORS<br />
Lars Hviid (University of Copenhagen, Denmark)<br />
Chris Jansen (Lei<strong>de</strong>n University Medical Center, Ne<strong>the</strong>rlands)<br />
Claúdio Marinho (Universida<strong>de</strong> <strong>de</strong> São Paulo, Brazil)<br />
Maria Mota (<strong>Instituto</strong> <strong>de</strong> Medicina Molecular, Portugal)<br />
Jon Clardy (Harvard Medical School, USA)<br />
Peter Crompton (National Institute of Health, USA)<br />
Taane Clark (London School of Hygiene and Tropical Medicine, UK)<br />
Rosário Sambo (Hospital Pediátrico <strong>de</strong> Luanda, Angola)<br />
Maria Jesus Trovoada (Centro Nacional <strong>de</strong> En<strong>de</strong>mias, S. Tomé e Príncipe)<br />
Dan Holmberg (University of Conpenhagen, Denmark)<br />
Linda Wicker (University of Cambridge, UK)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
Calouste <strong>Gulbenkian</strong> Foundation, Portugal<br />
• We use confocal and two-photon intra-vital microscopy techniques to measure<br />
<strong>the</strong> dynamics of increased adhesion of PAM parasite to <strong>the</strong> placenta<br />
tissue, in vivo;<br />
• We are testing <strong>the</strong> hypo<strong>the</strong>sis that PM is not driven by a systemic condition<br />
but is ra<strong>the</strong>r a heterogeneous and localised inflammatory process.<br />
We propose that locally-acting immuno-mediators provi<strong>de</strong>d by <strong>the</strong> foetal tissues<br />
would have a crucial role in recruiting cellular components to <strong>the</strong> inflammatory<br />
infiltrate.<br />
Two manuscripts summarise <strong>the</strong> results obtained in 2011:<br />
Intravital placenta imaging reveals microcirculatory impact on sequestration<br />
dynamics and phagocytosis of Plasmodium-infected erythrocytes (Submitted).<br />
Distinct placental malaria patterns caused by Plasmodium berghei-<strong>de</strong>rived<br />
strains that fail to induce cerebral malaria in <strong>the</strong> C57Bl/6 mouse (Submitted).<br />
PLASMODIUM DEVELOPMENT IN HEPATOCYTES<br />
The Plasmodium liver stage is an appealing target for <strong>the</strong> <strong>de</strong>velopment of strategies<br />
to control malaria infection and has been a source of promising candidate<br />
vaccines. During malaria liver stage infection single parasites infect individual<br />
hepatocytes and <strong>de</strong>velop into thousands of merozoites. This <strong>de</strong>velopmental<br />
process is largely asymptomatic and not amenable to study in humans, <strong>the</strong>refore<br />
malaria mouse mo<strong>de</strong>ls are instrumental in revealing parasite and host factors<br />
involved in <strong>the</strong> establishment of <strong>the</strong> liver stage infection. We propose to<br />
investigate mouse genetic mo<strong>de</strong>ls where we found alterations of liver parasite<br />
expansion with <strong>the</strong> aim of i<strong>de</strong>ntifying host factors that hin<strong>de</strong>r <strong>the</strong> regulation<br />
and efficiency of Plasmodium <strong>de</strong>velopment in <strong>the</strong> liver. For this purpose we will<br />
use an exclusive tool set that inclu<strong>de</strong>s a significant collection of relevant mouse<br />
strains and parasite mutants as well as our established expertise on mouse primary<br />
hepatocyte cultures and imaging techniques.<br />
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One manuscript summarizes results obtained in 2011:<br />
Fas Signalling and Macrophage-Derived HGF Induce Hepatocyte Apoptosis in<br />
Response to Plasmodium Liver Stage Infection. (Submitted).<br />
MALARIA IMMUNOGENETICS<br />
This project aims to i<strong>de</strong>ntify genetic and immunological components in clinical<br />
and asymptomatic malaria infections by interrogating human sample collections<br />
from Angola and <strong>the</strong> Island of Principe.<br />
In <strong>the</strong> Angola collection malaria cases will be compared will healthy controls and<br />
with relatives to i<strong>de</strong>ntify genetic variants controlling different clinical forms of<br />
severe malaria. The Island of Principe covers approximately 142 square kilometres<br />
with only about 6000 inhabitants and little emigration. We collected<br />
samples from a total of 1867 healthy individuals in 10 different localities in<br />
Principe in <strong>the</strong> years 2004, 2005 and 2008. This may represent one of <strong>the</strong> very<br />
few examples of a whole-population based study in malaria. We found out that<br />
in 2005, while <strong>the</strong> disease coursed at <strong>the</strong> mesoen<strong>de</strong>mic level, 20% of <strong>the</strong> apparently<br />
healthy individuals were infected with Plasmodium. We aim to use this<br />
collection to i<strong>de</strong>ntify genetic factors that are <strong>de</strong>termining <strong>the</strong> non-symptomatic<br />
carrier status.<br />
One manuscript summarizes results obtained in 2011:<br />
Involvement of IFNAR1 in cerebral malaria reveals a pathogenesis mechanism<br />
<strong>de</strong>pen<strong>de</strong>nt on CD8+ cells (Submitted).<br />
B1 CELLS AND NATURAL ANTIBODIES IN TYPE 1 DIABETES (T1D) PATHOGENESIS<br />
Type-1 diabetes (T1D) is generally known as a T-cell mediated autoimmune disease<br />
where <strong>the</strong> pancreatic β-cells are <strong>de</strong>stroyed and insulin secretion abrogated.<br />
Yet, B lymphocytes were proven necessary in disease pathogenesis and<br />
<strong>the</strong> <strong>de</strong>tection of autoantibodies to Beta-cell antigens are one of <strong>the</strong> earliest indicators<br />
of disease. We propose that autoreactive natural antibodies (NAbs) act<br />
as effector molecules that fuel <strong>the</strong> autoimmune process through complement<br />
system activation, increased antigen presentation to T cells and/or autoreactive<br />
B cell proliferation in <strong>the</strong> pancreatic lymph no<strong>de</strong>s. By exploring on one hand <strong>the</strong><br />
involvement of B1 cells and in particular autoreactive NAbs in T1D pathogenesis<br />
and on <strong>the</strong> o<strong>the</strong>r hand <strong>the</strong> genetic factors <strong>de</strong>termining <strong>the</strong> dysfunctions in this<br />
cell compartment, we will be able to uncover <strong>the</strong> missing links. This project will<br />
elucidate mechanisms that link early B1 cell <strong>de</strong>velopment to autoantibody secretion<br />
and to T1D pathogenesis in murine and human disease.<br />
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COMPUTATIONAL<br />
GENOMICS<br />
José Pereira-Leal Principal Investigator<br />
PhD in Biomedical Sciences, Universida<strong>de</strong> do Porto, Portugal, 2001<br />
Post-Doc at EMBL European Bioinformatics Institute - Cambridge, UK<br />
Post-doc & Career Development Fellow at MRC Laboratory of Molecular Biology,<br />
Cambridge, UK<br />
Head of Bioinformatics Unit<br />
Principal Investigator at <strong>the</strong> IGC since 2006<br />
link to external website<br />
We are interested in <strong>the</strong> evolutionary mechanisms un<strong>de</strong>rlying <strong>the</strong> origins and<br />
evolution of cellular life and <strong>the</strong> complex structures within <strong>the</strong> cell, <strong>the</strong> transitions<br />
to multi-cellularity, and <strong>the</strong> medical applications of evolutionary genomics.<br />
Our research encompasses <strong>the</strong>mes that are broadly classified as evolutionary<br />
cell biology, systems biology, pathogenomics, and translational or medical<br />
bioinformatics.<br />
EVOLUTIONARY CELL BIOLOGY<br />
The aims of this project are to study <strong>the</strong> origins of cellular structures, and to<br />
<strong>de</strong>velop <strong>the</strong> methods and resources that enable evolutionary studies in cell<br />
biology. We have <strong>de</strong>veloped three data integration platforms: TrafficDB, CentrioleDB<br />
and SporeDB, where automated methods for sequence classification are<br />
integrated with morphological information, <strong>de</strong>scribed by image data and novel<br />
controlled vocabularies.<br />
GROUP MEMBERS<br />
Joana Cardoso (Post-doc, started in May)<br />
Pedro Coelho (Post-doc, started in October)<br />
Sofia Braga (PhD stu<strong>de</strong>nt)<br />
Yoan Diekmman (PhD stu<strong>de</strong>nt)<br />
Beatriz Gomes (MSc stu<strong>de</strong>nt, started in October)<br />
Diogo Santos (Research stu<strong>de</strong>nt, started in November)<br />
COLLABORATORS<br />
José Luis Passos Coelho (<strong>Instituto</strong> Português <strong>de</strong> Oncologia<br />
Dr. Francisco Gentil, Portugal)<br />
Paula Chaves (<strong>Instituto</strong> Português <strong>de</strong> Oncologia Dr. Francisco Gentil,<br />
Portugal)<br />
David Pellman (Harvard Medical School, USA)<br />
Max Loda (Harvard Medical Shool, USA)<br />
Monica Bettencourt-Dias (IGC, Portugal)<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Public lecture - AR, Champalimaud Centre for <strong>the</strong> Unknown, November<br />
In collaboration with <strong>the</strong> Cell Cycle Regulation laboratory we characterised <strong>the</strong><br />
evolutionary pathway of <strong>the</strong> centriolar duplication machinery using both computational<br />
and experimental approaches (published). We have also discovered<br />
that <strong>the</strong>re is a selective loss of genetic redundancy when bacteria adopt an<br />
obligate intracellular lifestyle, such as chloroplasts and mitochondria (accepted<br />
for publication).<br />
CELL BIOLOGY OF CANCER<br />
Within this project we aim to un<strong>de</strong>rstand <strong>the</strong> molecular basis of tumour heterogeneity<br />
and cancer progression.<br />
We are studying <strong>the</strong> molecular and clinical heterogeneity of breast cancer, and<br />
our preliminary results suggest two distinct entities, driven by different molecules<br />
and processes and with distinct outcomes. Using gene expression data<br />
we have i<strong>de</strong>ntified novel prognostic markers for breast cancer. We are currently<br />
collaborating with pathologists at Portuguese hospitals to test our computational<br />
predictions by immunohistochemistry in human samples.<br />
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BEHAVIOUR<br />
AND METABOLISM<br />
THIS GROUP IS A MEMBER OF THE CHAMPALIMAUD NEUROSCIENCE PROGRAMME AT THE IGC<br />
Carlos Ribeiro Principal Investigator<br />
PhD in Cell Biology, University of Basel, Basel, Switzerland, 2003<br />
Postdoctoral fellow, Biozentrum, University of Basel, Switzerland<br />
Postdoctoral fellow, Research Institute of Molecular Pathology (IMP)<br />
and Institute of Molecular Biotechnology (IMBA) of <strong>the</strong> Austrian Aca<strong>de</strong>my of Sciences, Vienna, Austria<br />
Principal Investigator at <strong>the</strong> IGC since 2009<br />
link to external website<br />
We are interested in un<strong>de</strong>rstanding how molecular and cellular mechanisms control<br />
complex biological processes at <strong>the</strong> level of <strong>the</strong> whole organism. For this<br />
we are focusing on how <strong>the</strong> internal metabolic state of <strong>the</strong> fruit fly Drosophila<br />
melanogaster affects its behavioural <strong>de</strong>cisions. Starting from novel behavioural<br />
paradigms we use molecular genetic techniques to i<strong>de</strong>ntify and characterise<br />
genes and neuronal populations involved in producing <strong>the</strong> appropriate behavioural<br />
response to a specific metabolic need of <strong>the</strong> fly.<br />
MOLECULAR MECHANISMS OF NUTRIENT CHOICE<br />
We want to un<strong>de</strong>rstand how Drosophila knows what type of nutrients it needs<br />
and which are <strong>the</strong> molecular mechanisms used by <strong>the</strong> nervous system to change<br />
<strong>the</strong> behaviour of <strong>the</strong> animal to allow it to find and eat <strong>the</strong> required nutrients.<br />
We have continued investigating how conserved nutrient sensing pathways act<br />
in <strong>the</strong> nervous system to control feeding. Fur<strong>the</strong>rmore, by analysing genes i<strong>de</strong>ntified<br />
as being required for nutrient choice in a neuronal whole-genome RNAi<br />
screen we are investigating novel molecular mechanisms mediating nutrient homeostasis.<br />
Taken toge<strong>the</strong>r <strong>the</strong>se studies are providing us with a mo<strong>de</strong>l and an<br />
entry point for studying nutrient balancing and value-based <strong>de</strong>cision-making at<br />
<strong>the</strong> molecular level.<br />
GROUP MEMBERS<br />
Laura Napal Belmonte (Post-doc)<br />
Pavel Itskov (Post-doc, started in March)<br />
Ricardo Gonçalves (Post-doc, started in July)<br />
Samantha Herbert (PhD Stu<strong>de</strong>nt)<br />
Veronica Corrales (PhD Stu<strong>de</strong>nt, started in October)<br />
Ana Paula Elias (Lab Manager and Research Assistant)<br />
Célia Mo<strong>de</strong>sto Baltazar (Research assistant)<br />
COLLABORATORS<br />
Aldo Faisal (Imperial College London, UK)<br />
Mat<strong>the</strong>w Piper (UCL, London, UK)<br />
Mattias Allenius (Linköping University, Swe<strong>de</strong>n)<br />
FUNDING<br />
Champalimaud Foundation (CF), Portugal<br />
BIAL Foundation, Portugal<br />
NEURONAL MECHANISMS OF NUTRIENT CHOICE<br />
We want to i<strong>de</strong>ntify and analyse <strong>the</strong> neuronal networks used by Drosophila<br />
to change <strong>the</strong> behaviour of <strong>the</strong> animal to allow it to find and eat <strong>the</strong> required<br />
nutrients.<br />
We have used genetic approaches to i<strong>de</strong>ntify neuronal populations which are<br />
required for nutrient choices. Currently we are analysing <strong>the</strong> i<strong>de</strong>ntified neuronal<br />
substrates for nutrient homeostasis to un<strong>de</strong>rstand how <strong>the</strong>se neuronal populations<br />
act to gui<strong>de</strong> feeding <strong>de</strong>cisions.<br />
What type of food should <strong>the</strong> animal choose?<br />
QUANTITATIVE ANALYSIS OF FEEDING BEHAVIOUR IN DROSOPHILA<br />
In collaboration with <strong>the</strong> laboratory of Aldo Faisal at Imperial College London<br />
we use automated vi<strong>de</strong>o analysis to quantitatively link genetics to feeding<br />
behaviour in <strong>the</strong> fruit fly. These studies are providing us insights into <strong>the</strong> behavioural<br />
strategies used by <strong>the</strong> fly to maintain nutrient homeostasis as well as<br />
<strong>the</strong>ir biological implementation in <strong>the</strong> nervous system.<br />
Drosophila adult brain (gold) with specific neuronal subsets marked by GFP (green).<br />
Automatically tracked path of a foraging fly.<br />
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58
COMPLEX ADAPTIVE<br />
SYSTEMS AND<br />
COMPUTATIONAL BIOLOGY<br />
Luis Mateus Rocha Principal Investigator<br />
PhD in Systems Science, State University of New York, 1997<br />
Postdoctoral Fellow, Los Alamos National Laboratory (NM. USA)<br />
Associate Professor, Indiana University, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2000<br />
link to external website<br />
We are interested in <strong>the</strong> informational properties of natural and artificial systems<br />
which enable <strong>the</strong>m to adapt and evolve. This means both producing computational<br />
mo<strong>de</strong>ls of biological systems to un<strong>de</strong>rstand <strong>the</strong> evolutionary role of<br />
information, as well as abstracting principles from biology to produce adaptive<br />
information technology. Our current research projects are on complex dynamics<br />
in biological networks (gene regulation, cell signalling, and metabolic networks),<br />
text and literature mining (in proteomics, protein-protein interaction<br />
and pharmokinetics), computational mo<strong>de</strong>ls of RNA editing, artificial immune<br />
systems, genomic multivariate analysis, evolutionary systems, artificial life, cognitive<br />
science, and biosemiotics.<br />
BIOMEDICAL LITERATURE MINING<br />
The aims are to carry out literature-based automatic discovery, classification<br />
and annotation of protein-protein and gene-disease interactions, pharmokinetic<br />
data, protein sequence family and structure prediction, functional annotation<br />
of transcription data, enzyme annotation publications, etc.<br />
We are currently looking at automated mechanisms for document classification<br />
and obtained preliminary results that are being prepared for publication.<br />
This entails close collaborations with Analia Lourenço (Minho) and Hagit Shatkay<br />
(Queens University, Canada).<br />
COLLECTIVE DYNAMICS IN COMPLEX BIOCHEMICAL NETWORKS<br />
Mo<strong>de</strong>lling of <strong>the</strong> dynamics of complex biochemical networks, to i<strong>de</strong>ntify control,<br />
modularity, robustness and collective computation. Currently working with<br />
mo<strong>de</strong>ls of genetic regulation in yeast, body segmentation in Drosophila, intracellular<br />
signal transduction in fibroblasts, a genome-scale transcriptional and<br />
metabolic network for E. coli, and o<strong>the</strong>rs.<br />
GROUP MEMBERS<br />
Manuel Marques-Pita (Post-doc)<br />
Artemy Kolchinsky (PhD Stu<strong>de</strong>nt)<br />
Aza<strong>de</strong>h Nematza<strong>de</strong>h (PhD Stu<strong>de</strong>nt)<br />
Tiago Simas (PhD Stu<strong>de</strong>nt)<br />
Alaa Abi-Haidar (PhD Stu<strong>de</strong>nt, left in January)<br />
Santosh Mannika (PhD Stu<strong>de</strong>nt, started in June)<br />
COLLABORATORS<br />
Anália Lourenço (Universida<strong>de</strong> do Minho, Portugal)<br />
Hagit Shatkay (Queen's University, Canada)<br />
Marta Cascante (University of Barcelona, Spain)<br />
Jim Crutchfield (University of California, Davis, USA)<br />
Santiago Schnell (Michigan University, USA)<br />
Luis Amaral (Northwestern University, USA)<br />
Chistof Teuscher (Portland State University, USA)<br />
Stefan Mass (Lehigh Univeraity, USA)<br />
Alekos Athanasiadis (IGC, Portugal)<br />
Jorge Carneiro (IGC, Portugal)<br />
Pedro Lima (<strong>Instituto</strong> Superior Técnico, Portugal)<br />
Porfirio Silva (<strong>Instituto</strong> Superior Técnico, Portugal)<br />
Nuno Crato (<strong>Instituto</strong> Superior <strong>de</strong> Economia e Gestão, Portugal)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
FLAD Computational Biology Collaboratorium, Portugal<br />
Uninova collaboration<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Manuel Pita, Public lecture - AR, Champalimaud Centre for <strong>the</strong> Unknown,<br />
November<br />
We have completed <strong>the</strong> first year of our FCT fun<strong>de</strong>d R&D grant on studying collective<br />
information processing in biochemical networks.<br />
COMPUTATIONAL MODELS OF RNA EDITING<br />
We are building computational mo<strong>de</strong>ls to study <strong>the</strong> evolutionary implications of<br />
genotype editing in <strong>the</strong> living <strong>organisation</strong>. Our goal is twofold:<br />
1. To study <strong>the</strong> role of RNA Editing regulation in <strong>the</strong> evolutionary process;<br />
2. To investigate <strong>the</strong> conditions un<strong>de</strong>r which genotype edition improves <strong>the</strong><br />
optimisation performance of evolutionary algorithms.<br />
After <strong>de</strong>veloping a set of computational tools nee<strong>de</strong>d for a number of simulations<br />
and studies on artificial RNA editing systems, we are currently generating<br />
and analysing data in <strong>the</strong> context of our collaborations with Alekos Athanasiadis<br />
(IGC) and Stefan Mas (Lehigh).<br />
ARTIFICIAL MODELS OF T-CELL CROSS-REGULATION<br />
We use Carneiro's Mo<strong>de</strong>l of Cross-regulation in T-Cell dynamics to produce bioinspired<br />
algorithms for binary classification. The goal is to gain fur<strong>the</strong>r insights<br />
into T-cell cross-regulation in <strong>the</strong> vertebrate immune system, and produce useful<br />
bio-inspired algorithms for text mining and spam <strong>de</strong>tection. After one of our<br />
team members 'completion of his PhD on this project, we are currently re<strong>de</strong>fining<br />
<strong>the</strong> next goals, and approaches for its continuation, as well as preparing<br />
grant applications to hire new team members.<br />
STOCHASTIC MODELS OF TOPOLOGY CONSTRAINTS ON COMPLEX NETWORKS<br />
This project aims to study of transitive properties of complex networks mo<strong>de</strong>lled<br />
as weighted graphs. Studying <strong>the</strong> impact of alternative distance measures<br />
on scale free and small-World behaviour, and <strong>de</strong>veloping stochastic<br />
mo<strong>de</strong>ls of vertex aging in networks, to better predict network growth. Ongoing<br />
analysis of large-scale Wikipedia data, networks of neuronal activity, etc.<br />
Started collaboration with Nuno Crato (ISEG) to mo<strong>de</strong>l <strong>de</strong>cision-tree searches.<br />
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INFLAMMATION<br />
Miguel P. Soares Principal Investigator<br />
PhD in Science, University of Louvain, Belgium, 1995<br />
Research Fellow, Harvard Medical School, Boston, MA, USA<br />
Instructor in Surgery, Harvard Medical School, Boston, MA, USA<br />
Lecturer, Harvard Medical School, Boston, MA, and USA<br />
Invited Professor at Lisbon Medical School, Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Head of IGC Histopathology Unit<br />
Principal Investigator at <strong>the</strong> IGC since 2004<br />
Inflammation is an immediate response to foreign challenge and/or tissue injury<br />
characterised by local and transient extravasation of soluble molecules and leukocytes<br />
from blood into non-lymphoid tissues. While <strong>the</strong> physiologic purpose<br />
of inflammation is to restore homeostasis <strong>the</strong>re are many instances where inflammation<br />
becomes pathological. Moreover, <strong>the</strong>re is a general consensus that<br />
some of <strong>the</strong> major causes of human morbidity and mortality are in fact due to<br />
pathological conditions in which inflammation and/or immunity are <strong>the</strong> un<strong>de</strong>rlying<br />
cause of disease. The research effort <strong>de</strong>veloped in our laboratory is aimed<br />
at un<strong>de</strong>rstanding <strong>the</strong> cellular and molecular mechanisms assuring that in <strong>the</strong><br />
overwhelming majority of cases inflammation exerts its physiologic purpose<br />
without becoming pathological. Our body of work supports <strong>the</strong> notion that one<br />
of such mechanisms relies on <strong>the</strong> expression of cytoprotective genes that allow<br />
inflammation to progress without causing irreversible tissue damage.<br />
MODULATION OF PROGRAMMED CELL DEATH BY FREE HEME<br />
Un<strong>de</strong>r homeostasis, <strong>the</strong> reactivity of heme pros<strong>the</strong>tic groups is controlled by<br />
<strong>the</strong>ir insertion into <strong>the</strong> “heme pockets” of hemoproteins. Un<strong>de</strong>r oxidative stress<br />
however, some hemoproteins can release <strong>the</strong>ir heme pros<strong>the</strong>tic groups. The<br />
non-protein-bound (free) heme becomes highly cytotoxic, most probably due<br />
to <strong>the</strong> Fe atom contained within its protoporphyrin IX ring. When this occurs,<br />
free heme can catalyse, in an unfettered manner, <strong>the</strong> production of free radicals<br />
via Fenton chemistry and sensitise cells to un<strong>de</strong>rgo programmed cell <strong>de</strong>ath.<br />
In our laboratory we have shown that <strong>the</strong> cytotoxic effect of free heme plays<br />
an important role in <strong>the</strong> pathogenesis of a variety of inflammatory diseases in<br />
which hemoproteins release <strong>the</strong>ir pros<strong>the</strong>tic heme groups.<br />
MECHANISMS OF DISEASE TOLERANCE<br />
Malaria, <strong>the</strong> disease caused by Plasmodium infection, remains one of <strong>the</strong> main<br />
causes of morbidity/mortality worldwi<strong>de</strong>. Epi<strong>de</strong>miologically however, less than<br />
1-2% of Plasmodium-infected individuals succumb to severe forms of malaria.<br />
This suggests that Plasmodium has co-evolved with its human host to<br />
reach an evolutionary “tra<strong>de</strong> off” in which infection “rarely” compromises host<br />
viability. This tra<strong>de</strong> off is thought to rely almost exclusively on <strong>the</strong> ability of <strong>the</strong><br />
host’s immune system to control parasite bur<strong>de</strong>n, a <strong>de</strong>fence strategy referred<br />
to as resistance to infection. However, <strong>the</strong>re is an additional host <strong>de</strong>fence strategy<br />
that operates during Plasmodium infection and that limits disease severity<br />
irrespectively of parasite bur<strong>de</strong>n, i.e. tolerance to infection. The mechanisms<br />
un<strong>de</strong>rlying host tolerance to Plasmodium infection remain poorly un<strong>de</strong>rstood.<br />
We are exploring <strong>the</strong> hypo<strong>the</strong>sis that several genes that regulate <strong>the</strong> <strong>de</strong>leterious<br />
effects of free heme might control host tolerance to infection.<br />
GROUP MEMBERS<br />
Ana Ferreira (Post-doc, left in March)<br />
Josina Filipe (Post-doc, left in January)<br />
Virgínia Oliveira Marques (Post-doc, left in January)<br />
Ana Cunha (Post-doc)<br />
Rafaella Gozzelino (Post-doc)<br />
Susana Ramos (Post-doc, started in February)<br />
Rasmus Larsen (Post-doc)<br />
Zélia Gouveia (External PhD Stu<strong>de</strong>nt)<br />
Andreia Cunha (PhD stu<strong>de</strong>nt)<br />
Nadja Pejanovic (PhD stu<strong>de</strong>nt)<br />
Ivo Marguti (PhD stu<strong>de</strong>nt, left in July)<br />
Bahtiyar Yilmaz (PhD Stu<strong>de</strong>nt)<br />
Sofia Rebelo (Lab Manager)<br />
Sílvia Cardoso (Laboratory Assistant)<br />
COLLABORATORS<br />
Josef Anra<strong>the</strong>r (Cornell University, New York, USA)<br />
Leo Otterbein (Harvard Medical School, Boston, USA)<br />
Ann Smith (University of Missouri - Kansas City, USA)<br />
Ingo Bechmann (Johann Wolfgang Goe<strong>the</strong>-University, Frankfurt/Main,<br />
Germany)<br />
Yves Beuzard (Hospital Saint Louis, Paris, France)<br />
Lukas Kühn (Ecole Polytechnique Fédérale <strong>de</strong> Lausanne (EPFL), Switzerland)<br />
Carlos Penha Gonçalves (IGC, Portugal)<br />
Jocelyne Demengeot (IGC, Portugal)<br />
Henrique Silveira (<strong>Instituto</strong> <strong>de</strong> Higiene e Medicina Tropical (IHMT), Portugal)<br />
Salome Gomes (IBMC- Universida<strong>de</strong>d do Porto, Portugal)<br />
FUNDING<br />
FP6 Framework Programme 6, European Commission<br />
GEMI Fund Lin<strong>de</strong> Healthcare<br />
The Bill & Melinda Gates Foundation, USA<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
PROTECTION AGAINST MALARIA BY "NATURAL" ANTIBODIES<br />
We are testing <strong>the</strong> hypo<strong>the</strong>sis that antibodies directed against a specific carbohydrate<br />
produced by gut pathogens might play a role in immunity against<br />
severe forms of malaria. Newborns and young children, who are most susceptible<br />
to <strong>the</strong>se severe forms of <strong>the</strong> disease, have not yet built up antibodies to this<br />
carbohydrate. We will assess whe<strong>the</strong>r stimulating production of this antibody<br />
after birth can offer increased protection.<br />
REGULATION OF ADAPTIVE IMMUNITY BY HEME OXYGENASE-1 (HO-1)<br />
Over <strong>the</strong> past few years we exten<strong>de</strong>d our original studies to test <strong>the</strong> hypo<strong>the</strong>sis<br />
that HO-1 might regulate T cell mediated autoimmunity leading to <strong>the</strong> pathogenesis<br />
of immune mediated inflammatory diseases such as diabetes, arthritis<br />
or multiple sclerosis (MS). We found that this is in<strong>de</strong>ed <strong>the</strong> case for MS, where<br />
disease progression is caused by T cell driven neuroinflammation, leading to<br />
central nervous system injury. The mechanism un<strong>de</strong>rlying <strong>the</strong> protective effect<br />
of HO-1 against autoimmune neuroinflammation is not clear. We are testing <strong>the</strong><br />
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hypo<strong>the</strong>sis that expression of HO-1 by antigen presenting cells, and in particular<br />
by <strong>de</strong>ndritic cells, regulates <strong>the</strong>ir immunogenicity in a manner that arrests <strong>the</strong><br />
pathogenesis of autoimmune diseases.<br />
ANTI-ATHEROGENIC EFFECT OF HEME OXYGENASE-1: MECHANISM OF ACTION<br />
Expression of HO-1 exerts anti-a<strong>the</strong>rogenic effects that are mediated, at least<br />
in part, by <strong>the</strong> production of <strong>the</strong> gasotransmitter carbon monoxi<strong>de</strong> (CO). The<br />
hypo<strong>the</strong>sis tested un<strong>de</strong>r this project is that CO can prevent <strong>the</strong> pathogenesis<br />
of a<strong>the</strong>rosclerosis via a mechanism that involves <strong>the</strong> modulation of monocyte/<br />
macrophage activation as well as <strong>the</strong> inhibition of smooth muscle cell (SMC) proliferation.<br />
We have shown that <strong>the</strong> effect of CO is associated with it's ability to<br />
suppress <strong>the</strong> pro-inflammatory phenotype of monocyte/macrophage activation<br />
and to block smooth muscle cell (SMC) proliferation via a sequence of events<br />
that requires <strong>the</strong> activation of <strong>the</strong> p38 mitogen-activated protein kinases<br />
(MAPK). We aim to investigate whe<strong>the</strong>r inhaled CO can be used <strong>the</strong>rapeutically<br />
to suppress <strong>the</strong> <strong>de</strong>velopment of lipid-mediated a<strong>the</strong>rosclerosis.<br />
IGC ANNUAL REPORT ‘11<br />
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EVOLUTION<br />
AND DEVELOPMENT<br />
Élio Sucena Principal Investigator<br />
PhD in Evolution and Development, Genetics, Cambridge, UK, 2001<br />
Post-Doc at Princeton University, USA<br />
Post-Doc at University of Western Ontario, Canada<br />
Liaison with <strong>the</strong> Champalimaud Foundation<br />
Principal Investigator at <strong>the</strong> IGC since 2003<br />
Research in my lab focuses on evolutionary novelties, <strong>de</strong>fined as a novel body<br />
part that is nei<strong>the</strong>r homologous to any body part in <strong>the</strong> ancestral lineage nor<br />
serially homologous to any o<strong>the</strong>r body part of <strong>the</strong> same organism. This concept<br />
can be exten<strong>de</strong>d to o<strong>the</strong>r traits, for example, physiological or behavioural.<br />
We have i<strong>de</strong>ntified several instances of novelty, as <strong>de</strong>fined above, that we are<br />
experimentally dissecting:<br />
1. At <strong>the</strong> genetic level, looking at gene function evolution upon gene duplication;<br />
2. At <strong>the</strong> cellular level, approaching immune cell function diversity in Drosophila;<br />
3. At <strong>the</strong> morphological level by studying <strong>the</strong> evolutionary origin of dorsal<br />
appendage formation in <strong>the</strong> Drosophila cla<strong>de</strong>.<br />
DISSECTING THE DEVELOPMENTAL GENETIC BASIS OF EVOLUTIONARY NOVELTY<br />
The eggshell's dorsal appendages are structures unique to <strong>the</strong> Drosophila lineage,<br />
found throughout <strong>the</strong> lineage in various numbers, shapes and sizes. With<br />
Adrien Fauré and Claudine Chaouiya we have progressed in <strong>the</strong> establishment<br />
of a mo<strong>de</strong>l that recapitulates <strong>the</strong> epi<strong>the</strong>lial patterning, and with which we are<br />
now able to explore <strong>the</strong> variation in number this structure displays across Drosophila<br />
species. In addition, our research into eggshell patterning of Ceratitis<br />
capitata, a species without dorsal appendages outsi<strong>de</strong> of <strong>the</strong> Drosophila cla<strong>de</strong>,<br />
has led to a renewed un<strong>de</strong>rstanding of <strong>the</strong> role played by <strong>the</strong> Dpp pathway<br />
during oogenesis. With <strong>the</strong> combination of <strong>the</strong>se two lines of research we continue<br />
to investigate both <strong>the</strong> possible origin as well as <strong>the</strong> diversification of this<br />
evolutionary novelty.<br />
GROUP MEMBERS<br />
Nelson Martins (Post-doc)<br />
Kohtaro Tanaka (Post-doc, started in May)<br />
Alexandre Leitão (PhD stu<strong>de</strong>nt)<br />
Barbara Vree<strong>de</strong> (PhD stu<strong>de</strong>nt)<br />
Vítor Faria (Research Assistant)<br />
COLLABORATORS<br />
Jen Sheen (Massachusetts General Hospital, USA)<br />
Mark Borowsky (Massachusetts General Hospital, USA)<br />
Brad Chapman (Massachusetts General Hospital, USA)<br />
Ignacio Rubio Somoza, (Max Planck Institute for Developmental Biology,<br />
Germany)<br />
Detlef Weigel (Max Planck Institute for Developmental Biology, Germany)<br />
Pedro L. Rodriguez Egea (<strong>Instituto</strong> <strong>de</strong> Biología Molecular y Celular<br />
<strong>de</strong> Plantas, Universidad Politécnica <strong>de</strong> Valencia, Spain)<br />
Markus Teige (Max F. Perutz Laboratories, Univ. Vienna, Austria)<br />
Andreas Bachmair (Max F. Perutz Laboratories, Univ. Vienna, Austria)<br />
Claudine Chaouiya (IGC, Portugal)<br />
Adrien Fauré (IGC, Portugal)<br />
Thiago Carvalho (IGC, Portugal)<br />
Jocelyne Demengeot (IGC, Portugal)<br />
Luis Teixeira (IGC, Portugal)<br />
Fernando Roch (Centre <strong>de</strong> Biologie et Developpement, France)<br />
Sara Magalhães (Faculda<strong>de</strong> <strong>de</strong> Ciências, Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
<strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência (IGC), Portugal<br />
Comparing <strong>the</strong> patterning network of Drosophila with a species without dorsal<br />
appendages, <strong>the</strong> mediterranean fruitfly Ceratitis capitata, has pointed us<br />
toward a key no<strong>de</strong> in <strong>the</strong> network: <strong>the</strong> gene mirror. This transcription factor is<br />
absent in Ceratitis oogenesis, but performs a key function in <strong>de</strong>fining <strong>the</strong> cells<br />
that make up <strong>the</strong> dorsal appendages, as well as <strong>de</strong>fining <strong>the</strong> dorso-ventral axis<br />
of <strong>the</strong> future Drosophila embryo. We are currently exploring this co-option in<br />
more <strong>de</strong>tail.<br />
FUNCTIONAL EVOLUTION UPON GENE DUPLICATION<br />
We have been studying a recently expan<strong>de</strong>d gene family in Drosophila, <strong>the</strong><br />
Three Finger Domain Protein (TFDP), in particular <strong>the</strong> nine genes of clusters III<br />
and V. Given <strong>the</strong>ir expression patterns in <strong>the</strong> Drosophila eye disc, we hypo<strong>the</strong>sise<br />
that, in higher Diptera, TFDP genes have been co-opted by <strong>the</strong> ancestral<br />
eye <strong>de</strong>velopment gene network. Different genes of this recently expan<strong>de</strong>d family<br />
have been <strong>de</strong>ployed in specific glial/neural cell subsets as to participate in<br />
<strong>the</strong> highly dynamic process leading to <strong>the</strong> formation of both photoreceptor<br />
axonal tracks and <strong>the</strong>ir respective myelin sheaths. This study establishes <strong>the</strong><br />
TFDP gene family evolution as an example of neo/sub-functionalisation by gene<br />
duplication. Fur<strong>the</strong>r work will clarify <strong>the</strong> specific impact of regulatory evolution<br />
over <strong>the</strong> gene network driving <strong>the</strong> cellular mechanisms in <strong>the</strong> <strong>de</strong>veloping eye of<br />
holometabolous insects.<br />
In or<strong>de</strong>r to have a comprehensive <strong>de</strong>scription of expression pattern evolution<br />
of <strong>the</strong>se nine TFDP genes in Drosophila, we exten<strong>de</strong>d our analysis to Tribolium,<br />
Anopheles, Megaselia and Ceratitis. With this wi<strong>de</strong> phylogenetic coverage, we have<br />
a clear i<strong>de</strong>a of <strong>the</strong> duplication history of <strong>the</strong>se genes and hence a strong basis to<br />
<strong>de</strong>fine instances of sub- and neo-functionalisation for future promoter dissection.<br />
IMMUNE CELL FUNCTION DIVERSITY IN DROSOPHILA<br />
We had previously shown that, contrary to <strong>the</strong> current view, Drosophila plasmatocytes<br />
(<strong>the</strong> functional analogues of vertebrate macrophages) constitute a<br />
heterogeneous population. For this we have established a novel protocol for<br />
PARASITOID WASP EGG SURROUNDED BY HOST IMMUNE CELLS (PLASMATOCYTES).<br />
Heterogeneity of plasmatocyte population is apparent by <strong>the</strong> differential expression<br />
of green (Cg25C) and red fluorescence (eater).<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
62
hemocyte purification using a combination of GFP lines, specific staining and<br />
FACS analysis. Recently, we have shown that immune challenge leads to changes<br />
in total cell number and subset proportions. Moreover, using G-trace technique,<br />
we have <strong>de</strong>termined that such changes are not due to shifts in cell i<strong>de</strong>ntity but<br />
ra<strong>the</strong>r <strong>the</strong> result of differential proliferation and/or recruitment.<br />
We have now found new plasmatocyte subsets and shown that some of <strong>the</strong>se<br />
subsets change dynamically during larval <strong>de</strong>velopment. After confirming <strong>the</strong><br />
long standing hypo<strong>the</strong>sis that hemocytes are essential to resist parasitoid egg<br />
infections we have <strong>de</strong>scribed <strong>the</strong> plasmatocyte heterogeneity during this immune<br />
response. The results show that <strong>the</strong>re is a dynamic change in all plasmatocyte<br />
subsets during <strong>the</strong> immune response while <strong>the</strong>y maintain <strong>the</strong> expression of<br />
a differentiated plasmatocyte marker.<br />
EVOLUTION OF Drosophila melanogaster IMMUNE RESPONSE<br />
The mechanistic basis of <strong>the</strong> immune response in Drosophila has been wi<strong>de</strong>ly<br />
studied; however, little is known about <strong>the</strong> evolutionary and physiological<br />
mechanisms that drive local adaptation to pathogens. It is also unknown if this<br />
adaptation is <strong>de</strong>pen<strong>de</strong>nt on factors such as <strong>the</strong> infected life-stage, route of infection,<br />
pathogen type or multiple infections, and <strong>the</strong> associated tra<strong>de</strong>-offs. Using<br />
experimental evolution in Drosophila, to different and contrasting immune challenges,<br />
we have established <strong>the</strong> grounds to address <strong>the</strong>se questions and gain<br />
insights about <strong>the</strong> genes and mechanisms involved in adaption to pathogens.<br />
We have imposed 20 generations of experimental evolution in Drosophila un<strong>de</strong>r<br />
different immune challenges. These replicate populations have adapted to<br />
contrasting conditions and perform significantly better that controls. We are<br />
currently testing for <strong>the</strong> establishment of tra<strong>de</strong>-offs and will pursue <strong>the</strong> genetic<br />
basis of this adaptation.<br />
Cages containing Drosophila populations un<strong>de</strong>rgoing experimental evolution.<br />
Phylogenetic relationships between different dipterans used in <strong>the</strong> lab to study<br />
<strong>the</strong> origin and diversification of egg dorsal appendages (right panels).<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH GROUPS<br />
63
HOST<br />
MICROORGANISM<br />
INTERACTIONS<br />
Luis Teixeira Principal Investigator<br />
PhD in Biomedical Sciences, Faculda<strong>de</strong> <strong>de</strong> Medicina da Universida<strong>de</strong> <strong>de</strong> Lisboa, 2005<br />
Postdoctoral Fellow, Cambridge University, UK<br />
Principal Investigator at <strong>the</strong> IGC since 2009<br />
Multicellular organisms and microorganisms are continuously interacting. Many<br />
of <strong>the</strong>se interactions are mutually beneficial. However, multicellular organisms<br />
have to actively thwart invasion by pathogenic microbes. We are studying <strong>the</strong><br />
interaction of <strong>the</strong> mo<strong>de</strong>l organism Drosophila melanogaster with different microorganisms,<br />
in particular intracellular ones. Recently it has been shown that<br />
<strong>the</strong>re are conserved innate immunity pathways against viruses, between insects<br />
and mammals. We are investigating mechanisms of resistance to viruses in <strong>the</strong><br />
fruit fly. Interestingly, we have found that <strong>the</strong> intracellular bacteria Wolbachia<br />
confer resistance to RNA viruses in D. melanogaster. We want to un<strong>de</strong>rstand<br />
<strong>the</strong> molecular basis of this induced resistance. Finally, we are interested in <strong>the</strong><br />
interplay between Drosophila and Wolbachia itself, at <strong>the</strong> molecular level, in<br />
particular how <strong>the</strong> host controls Wolbachia or Wolbachia manipulates <strong>the</strong> host.<br />
IDENTIFICATION AND CHARACTERISATION OF GENES INVOLVED<br />
IN DROSOPHILA-WOLBACHIA INTERACTIONS<br />
This project aims at studying <strong>the</strong> interaction between <strong>the</strong> genetic mo<strong>de</strong>l organism<br />
Drosophila melanogaster, and one of <strong>the</strong> most wi<strong>de</strong>spread intracellular<br />
bacteria known: Wolbachia. Wolbachia are vertically transmitted, obligatory<br />
intracellular proteobacteria that infect a wi<strong>de</strong> range of arthropods and filarial<br />
nemato<strong>de</strong>s. Very little is known of <strong>the</strong> Wolbachia-host interaction at <strong>the</strong> cellular<br />
or molecular level. We propose here to i<strong>de</strong>ntify and characterize genes of<br />
D. melanogaster and Wolbachia involved in this interaction through a genetic<br />
screen. We will also i<strong>de</strong>ntify Wolbachia genes that interact with <strong>the</strong> host. Many<br />
intracellular bacteria manipulate <strong>the</strong> host through <strong>the</strong> secretion of effector proteins<br />
into <strong>the</strong> host's cells. We will express candidate effector proteins in uninfected<br />
Drosophila cells in or<strong>de</strong>r to test <strong>the</strong> induction of a panel of phenotypes<br />
in <strong>the</strong>se cells. Positive hits will be consi<strong>de</strong>red bona fi<strong>de</strong> effector proteins and<br />
fur<strong>the</strong>r characterised.<br />
ANALYSIS OF WOLBACHIA PROTECTION AGAINST VIRUSES<br />
IN Drosophila melanogaster<br />
The intracellular bacteria Wolbachia protects Drosophila melanogaster against<br />
viral infections. The presence of Wolbachia greatly increases <strong>the</strong> survival of flies<br />
infected with Drosophila C virus (DCV) and Flock house virus. However, it only<br />
affects <strong>the</strong> titres of DCV. We will extend this analysis by studying <strong>the</strong> interaction<br />
with a larger panel of viruses. By i<strong>de</strong>ntifying to which kind of viruses Wolbachia<br />
increases resistance we will gain insight into <strong>the</strong> mechanism of protection.<br />
We will also test <strong>the</strong> induction of viral resistance by different strains of Wolbachia.<br />
The purpose is to find how much variation exists in this phenotype and<br />
if this variation is correlated with o<strong>the</strong>r characteristics of <strong>the</strong> tested Wolbachia<br />
strains. Finally, an important unresolved question is if <strong>the</strong> induced protection<br />
is cell-autonomous. We will test if Wolbachia protection to viruses extends to<br />
Drosophila cells in culture and address this question.<br />
GROUP MEMBERS<br />
Álvaro Gil Ferreira (Post-doc)<br />
Catarina Carmo (Post-doc)<br />
Ewa Chrostek (PhD Stu<strong>de</strong>nt, started in April)<br />
Inês Pais (Master stu<strong>de</strong>nt, left in October)<br />
Joana Pereira (Technician, started in October)<br />
Marta Marialva (Technician, left in October)<br />
Sara Esteves (Technician, left in October)<br />
COLLABORATORS<br />
Alain Kohl (University of Cambridge, UK)<br />
Élio Sucena (IGC, Portugal)<br />
Gabriela Gomes (IGC, Portugal)<br />
Karina Xavier (IGC, Portugal)<br />
Francis Jiggins (University of Cambridge, UK)<br />
Sara Magalhães (Faculda<strong>de</strong> <strong>de</strong> Ciências, Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal)<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Talk for school stu<strong>de</strong>nts - Grémio <strong>de</strong> Instrução Liberal <strong>de</strong> Campo<br />
<strong>de</strong> Ourique (April)<br />
Practical class on Morgan’s experiments with Drosophila, Escola Secundária<br />
Stuart <strong>de</strong> Carvalhais, Massamá (November)<br />
HMI DROSOPHILA MICROBIOTA<br />
Bacteria from Drosophila microbiota growing on an agar plate.<br />
We have one manuscript in preparation concerning <strong>the</strong> lack of Wolbachia protection<br />
to Sigma virus, a negative single strand RNA virus. This negative result<br />
indicates that Wolbachia only protects against positive single strand RNA viruses.<br />
We have also found differences in protection to viruses by different wMel<br />
substrains. We are concluding experiments in or<strong>de</strong>r to complete <strong>the</strong> manuscript.<br />
WOLBACHIA AS A DEFENSE AGAINST RNA VIRUSES IN INSECTS<br />
The bacterial symbiont Wolbachia can make insects resistant to viral infection<br />
and prevent <strong>the</strong>m from transmitting disease. The aim of this project is to un<strong>de</strong>rstand<br />
this effect, by investigating how Wolbachia causes viral resistance using<br />
<strong>the</strong> tools of virology, molecular and evolutionary genetics. Our results will be<br />
important for attempts to use Wolbachia to prevent disease transmission in<br />
natural populations.<br />
GUT VIRUS<br />
Drosophila adult gut infected with Drosophila C virus (Actin in red, DNA in blue,<br />
and virus in green).<br />
IGC ANNUAL REPORT ‘11<br />
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64
EVOLUTIONARY<br />
GENETICS<br />
Henrique Teotónio Principal Investigator<br />
PhD in Evolutionary Genetics, Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal, 2000<br />
Postdoc, Princeton University<br />
Postdoc, University of Oregon Eugene<br />
Principal Investigator at <strong>the</strong> IGC since 2003<br />
The study of natural selection and its consequences are central to any un<strong>de</strong>rstanding<br />
of biology because <strong>the</strong>y provi<strong>de</strong> a framework for <strong>the</strong> origin, divergence<br />
and maintenance of diversity. We are specifically investigating how <strong>the</strong><br />
interactions between mating between individuals and meiotic recombination<br />
<strong>de</strong>termine <strong>the</strong> evolution of polygenic phenotypes. For this we use populations<br />
of C. elegans with standing diversity and alternative mating systems in <strong>de</strong>mographic<br />
conditions <strong>de</strong>fined by discrete non-overlapping generations at constant<br />
high population sizes. We <strong>the</strong>n manipulate <strong>the</strong> frequency of environmental<br />
change and follow <strong>the</strong> evolution of phenotypes and genotypes in real time.<br />
Analysis of data involves computer simulations of experimental evolution un<strong>de</strong>r<br />
several selection scenarios.<br />
THE INFLUENCE OF MATING, RECOMBINATION AND NATURAL SELECTION<br />
IN C. elegans EXPERIMENTAL EVOLUTION<br />
Un<strong>de</strong>rstanding adaptation following an environmental shift is necessary to<br />
explain <strong>the</strong> evolution of biological diversity. The mechanisms thought to limit<br />
diversity mating among related individuals because <strong>the</strong>y cause inbreeding, meiotic<br />
recombination because <strong>the</strong>y <strong>de</strong>termine extent of gametic linkage among<br />
loci, and <strong>the</strong> <strong>de</strong>gree of dominance or epistatic gene interactions because <strong>the</strong>y<br />
<strong>de</strong>fine natural selection. We aim to resolve <strong>the</strong> influence of <strong>the</strong>se mechanisms<br />
on <strong>the</strong> adaptation of large populations by employing an experimental evolution<br />
approach in <strong>the</strong> androdioecious nemato<strong>de</strong> Caenorhabditis elegans un<strong>de</strong>r<br />
varying levels of outcrossing rates, initial standing genetic variation and frequency<br />
of environmental change. During experimental evolution several levels<br />
of structural organization, from fitness-proxy and life history phenotypes to<br />
genome wi<strong>de</strong> RNA expression are characterized in <strong>the</strong>ir genetic and environmental<br />
components.<br />
GROUP MEMBERS<br />
Ivo Chelo (Post-doc)<br />
Yoannis Theologidis (Post-doc)<br />
Peter Sandner (Post-doc, started in June)<br />
Sara Carvalho (PhD stu<strong>de</strong>nt)<br />
Bruno Afonso (PhD stu<strong>de</strong>nt)<br />
Christine Goy (Lab Manager)<br />
Judit Nedli (Technician, started in September)<br />
COLLABORATORS<br />
Matt Rockman (New York University, USA)<br />
Boris Shraiman (University of California, Santa Barbara, USA)<br />
FUNDING<br />
European Research Council (ERC), European Commission<br />
Human Frontiers Science Programme (HFSP)<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Radio Interview, February<br />
The project also inclu<strong>de</strong>s hitchhiking mapping of relevant loci, by whole<br />
genome linkage disequilibrium (LD) association mapping and computer simulations<br />
of directional and balancing selection during experimental evolution.<br />
We have completed <strong>the</strong> characterization of >350 SNPs in experimentally evolved<br />
populations and <strong>the</strong> characterization of reproduction and viability un<strong>de</strong>r several<br />
osmotic and anoxic environmental stress conditions.<br />
ROLE OF GENETIC INTERACTIONS AND RECOMBINATION IN EXPERIMENTAL<br />
EVOLUTION OF C. elegans<br />
Adaptation from standing genetic variation is central to <strong>the</strong> evolution of phenotypes,<br />
yet its <strong>de</strong>pen<strong>de</strong>nce on <strong>the</strong> molecular <strong>de</strong>tails that connect genotype,<br />
phenotype, and fitness is a major unsolved problem in genetics. The effect of<br />
recombination, in particular, is expected to <strong>de</strong>pend on <strong>the</strong> extent of genetic<br />
interaction among alleles. We propose a multidisciplinary investigation of <strong>the</strong><br />
roles of recombination and genetic interactions. We will study laboratory adaptation<br />
of C. elegans populations that start with high genetic variability and are<br />
engineered to have different rates of inbreeding and outcrossing. The project<br />
integrates experimentally <strong>de</strong>termined genome-wi<strong>de</strong> genotype distributions,<br />
multidimensional phenotype (gene expression) measurements, and fitness data<br />
across 100 generations of laboratory populations that differ in <strong>the</strong>ir rates of<br />
outcrossing. This integration forms <strong>the</strong> empirical test bed for <strong>the</strong>oretical mo<strong>de</strong>ls<br />
of <strong>the</strong> role of genomic architecture in adaptation.<br />
We will test <strong>the</strong> predicted positive correlation among non-additive genetic<br />
effects and levels of linkage disequilibrium across <strong>the</strong> genome. The <strong>de</strong>rivation<br />
of three ancestral populations for experimental evolution with exclusive selfing,<br />
mixed selfing and outcrossing and obligatory outcrossing has been achieved,<br />
as well as <strong>de</strong>rivation of recombinant inbred lines from population at genetic<br />
equilibrium.<br />
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65
INNATE<br />
BEHAVIOUR<br />
THIS GROUP IS A MEMBER OF THE CHAMPALIMAUD NEUROSCIENCE PROGRAMME AT THE IGC<br />
Maria Luísa Vasconcelos Principal Investigator<br />
PhD in Developmental Neurobiology, Universida<strong>de</strong> Nova <strong>de</strong> Lisboa, Portugal, 2004<br />
Principal Investigator at <strong>the</strong> IGC since 2008<br />
link to external website<br />
Animals exhibit behavioural repertoires that are often innate and result in stereotyped<br />
sexual and social responses to <strong>the</strong>ir environment. Innate behaviours<br />
do not require learning or experience and are likely to reflect <strong>the</strong> activation of<br />
<strong>de</strong>velopmentally programmed neural circuits. We are interested in <strong>the</strong> nature of<br />
<strong>de</strong>fined neural circuits: how activation of circuits elicits specific behaviours. In<br />
complex organisms it has been extremely difficult to study a circuit beyond <strong>the</strong><br />
early stages of sensory processing. Drosophila melanogaster is an attractive<br />
mo<strong>de</strong>l system to un<strong>de</strong>rstand a circuit because flies exhibit complex behaviours<br />
that are controlled by a nervous system that is numerically five or<strong>de</strong>rs of magnitu<strong>de</strong><br />
simpler than that of vertebrates. We use a combined behavioural, genetic,<br />
imaging and electrophysiological approach to <strong>de</strong>termine how <strong>de</strong>fined neural<br />
circuits and <strong>the</strong>ir activation elicit specific behaviours.<br />
FEMALE RECEPTIVITY<br />
Genetic studies have elucidated how Drosophila male courtship behaviour is<br />
specified and its circuit components are being dissected at a surprising speed.<br />
The circuit of female behaviour, on <strong>the</strong> o<strong>the</strong>r hand, has been largely uncharacterised.<br />
We use a behavioural protocol that allows us to selectively inactivate<br />
subsets of neurons in <strong>the</strong> adult flies only. We use this behavioural approach and<br />
combine it with anatomical and functional dissection of <strong>the</strong> circuit.<br />
GROUP MEMBERS<br />
Márcia Aranha (Post-doc, started in February)<br />
Nélia Varela (Post-doc)<br />
Ricardo Neto (Post-doc, left in November)<br />
Dennis Herrmann (PhD Stu<strong>de</strong>nt)<br />
Nuno Martins (Masters Stu<strong>de</strong>nt, left in July)<br />
Joao Afonso (Research Technician, left in September)<br />
Sophie Dias (Research Technician)<br />
FUNDING<br />
FP7 - Marie Curie Re-integration Grant, European Commission<br />
Fundação para a Ciência e Tecnologia (FCT), Portugal<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Talk at <strong>the</strong> “biolunch” organised by <strong>the</strong> biology stu<strong>de</strong>nts of <strong>Instituto</strong><br />
Superior <strong>de</strong> Agronomia, Lisbon (October)<br />
Interview for TVI, Lisbon (October)<br />
A<br />
B<br />
We explored <strong>the</strong> involvement of apterous neurons (ANs) in receptivity fur<strong>the</strong>r.<br />
We verified that locomotion is unaffected, as well as <strong>the</strong> fly’s attractiveness. We<br />
characterised <strong>the</strong> pattern of ANs. We masculinised <strong>the</strong> neurons and saw no phenotype,<br />
indicating that ANs are not sexually dimorphic. We have tested females<br />
that have inhibited ANs for <strong>the</strong>ir egg laying. Egg laying in virgins is unchanged<br />
indicating that <strong>the</strong>re is not an activation of <strong>the</strong> postmating switch, at least to<br />
<strong>the</strong> full extent.<br />
ACROSS SPECIES STRESS ODOUR RESPONSE<br />
Stressed Drosophila melanogaster release an aversive odorant that elicits a robust<br />
avoidance response in test flies. Our data indicate that stress odour avoidance<br />
is not common to all Drosophilids. This behavioural difference between<br />
melanogaster and some of its sister-species provi<strong>de</strong>s a powerful framework,<br />
amenable to genetic, <strong>de</strong>velopmental and anatomical dissection, to investigate<br />
how evolution has shaped distinct responses to an environmental cue.<br />
We have traced <strong>the</strong> neurons that innervate <strong>the</strong> v glomerulus. We observed three<br />
projection neurons connect solely with <strong>the</strong> lateral horn and one projection neuron<br />
that connects additionally to <strong>the</strong> Mushroom Body. This result suggests that<br />
<strong>the</strong> CO 2<br />
response can be modulated.<br />
We tested <strong>the</strong> response of seven Drosophilidae to CO 2<br />
. We observe a salt and<br />
pepper variation across <strong>the</strong> phylogenetic tree indicating multiple occurrences<br />
for gain/loss of behaviour.<br />
C<br />
D<br />
PHOTOACTIVATION ALLOWS VISUALISATION OF THE NEURONS INNERVATING THE<br />
V GLOMERULUS.<br />
A - Before photactivation. B - After photoactivation. C - Schematic generated by<br />
automated filament tracing. D - schematic of <strong>the</strong> projection neuron that connect<br />
to lateral horn and mushroom bodies.<br />
IGC ANNUAL REPORT ‘11<br />
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BACTERIAL<br />
SIGNALLING<br />
Karina B. Xavier Principal Investigator<br />
PhD in Biochemistry, Universida<strong>de</strong> Nova <strong>de</strong> Lisboa, 1999<br />
Research Scientist, Princeton University, USA<br />
Principal Investigator at <strong>the</strong> IGC since 2006<br />
Bacteria use small molecules called autoinducers to communicate with one ano<strong>the</strong>r<br />
by a process called quorum sensing. This process enables bacteria to regulate<br />
behaviours which are only productive when many bacteria act as a group,<br />
similarly to multi-cellular organisms. Behaviours regulated by quorum sensing<br />
are often crucial for successful bacterial-host relationships whe<strong>the</strong>r symbiotic<br />
or pathogenic. We use an integrative approach, from molecules to circuits, to<br />
un<strong>de</strong>rstand <strong>the</strong> role of quorum sensing in bacterial behaviours. Our research<br />
involves elucidation of <strong>the</strong> molecules used as signals, <strong>the</strong> network components<br />
involved in <strong>de</strong>tecting <strong>the</strong> signals and processing information insi<strong>de</strong> individual<br />
cells, and characterisation of <strong>the</strong> behaviour of <strong>the</strong> bacterial community in multispecies<br />
bacterial consortia. We aim to <strong>de</strong>termine <strong>the</strong> role of cell-cell communication<br />
in multispecies consortia such as <strong>the</strong> microbiota of <strong>the</strong> mammalian gut, a<br />
community of great importance to human health.<br />
INTER-SPECIES CELL-CELL SIGNALLING:<br />
ITS ROLE IN BACTERIA CONSORTIA<br />
This project will start in 2012.<br />
GROUP MEMBERS<br />
Jessica Thompson (Post-doc, started in April)<br />
Pol Nadal (Post-Doc, started in February)<br />
Catarina S. Pereira (PhD stu<strong>de</strong>nt)<br />
Rita Valente (PhD stu<strong>de</strong>nt)<br />
Paulo J. Correia (Trainee)<br />
COLLABORATORS<br />
Isabel Gordo (IGC Portugal)<br />
Jocelyne Demengeot (IGC, Portugal)<br />
Stephan Miller (Swarthmore College, USA)<br />
Rita Ventura (ITQB, Portugal)<br />
FUNDING<br />
Howard Hughes Medical Institute (HHMI), USA<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
TV interview for science & technology series<br />
In this project we will use an integrated approach towards <strong>the</strong> characterisation<br />
of <strong>the</strong> molecular mechanisms involved in inter-species cell-cell communication<br />
and its role in bacterial-host interactions. Our approach is composed of three<br />
specific aims:<br />
1. Characterisation of <strong>the</strong> molecular mechanisms involved in <strong>the</strong> regulation of<br />
sensing and response to AI-2, <strong>the</strong> best studied interspecies signal, in <strong>the</strong><br />
mo<strong>de</strong>l bacteria Escherichia coli;<br />
2. I<strong>de</strong>ntification of novel inter-species signals. There is substantial evi<strong>de</strong>nce<br />
of additional signals mediating interspecies quorum sensing in<br />
γ-proteobacteria but <strong>the</strong> molecules remain uni<strong>de</strong>ntified;<br />
3. Study of AI-2 signalling directly in vivo. We propose to extend our approaches<br />
to study interspecies interactions directly in <strong>the</strong> gut of mice.<br />
This work can lead to <strong>the</strong> rational <strong>de</strong>velopment of novel <strong>the</strong>rapies that specifically<br />
target inter-species quorum sensing to control complex bacterial communities.<br />
INHIBITION OF BACTERIAL PLANT VIRULENCE BY INTERFERENCE<br />
WITH INTERSPECIES CELL-CELL COMMUNICATION.<br />
In Erwinia carotovora virulence is regulated by non-species specific signal that<br />
foster interspecies communication. In this project we aim to i<strong>de</strong>ntify receptor<br />
protein(s) and <strong>the</strong> molecular components of signal transduction involved in recognition<br />
and response to interspecies signals. We will study how <strong>the</strong>se mechanisms<br />
influence gene expression in Erwinia carotovora to <strong>de</strong>termine its impact<br />
in virulence using <strong>the</strong> potato tuber infectious assay. These bacteria can persist<br />
in <strong>the</strong> Drosophila gut and induce inflammation. We are studying <strong>the</strong> effect of<br />
mutants impaired in interspecies communication in Erwinia-Drosophila interactions<br />
in <strong>the</strong> presence or absence of o<strong>the</strong>r bacterial species. We hypo<strong>the</strong>sise that<br />
Erwinia uses Drosophila as a vector for infection and that interspecies communication<br />
has an important role in this process.<br />
We have performed a genetic screen for mutants impaired in regulation of virulence<br />
factors mediated by interspecies signals. We are analysing <strong>the</strong>se mutants<br />
to i<strong>de</strong>ntify a new signal involved in interspecies communication and also to<br />
<strong>de</strong>termine <strong>the</strong> impact of <strong>the</strong>se mutants in <strong>the</strong> production of virulence factors<br />
involved in <strong>the</strong> pathogenesis of Erwinia towards fruits and legumes but also<br />
during <strong>the</strong> interaction between Erwinia and Drosophila.<br />
COLONIES OF XENORHABDUS SPP. A PROTEOBACTERIA.<br />
This bacteria un<strong>de</strong>rgoes a complex life cycle that involves a symbiotic stage, in<br />
which <strong>the</strong> bacteria are carried in <strong>the</strong> gut of <strong>the</strong> nemato<strong>de</strong>s, and a pathogenic<br />
stage, in which susceptible insect prey are killed by <strong>the</strong> combined action of <strong>the</strong><br />
nemato<strong>de</strong> and <strong>the</strong> bacteria.<br />
IGC ANNUAL REPORT ‘11<br />
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RESEARCH<br />
FELLOWS<br />
IGC ANNUAL REPORT ‘11<br />
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BIOPHYSICS<br />
AND GENETICS<br />
OF MORPHOGENESIS<br />
Filipa Alves Research Fellow<br />
PhD in Physics, Universida<strong>de</strong> Técnica <strong>de</strong> Lisboa - <strong>Instituto</strong> Superior Técnico, 2006<br />
Post-doctoral fellow, IGC (Plant Development Group), Portugal<br />
Research Fellow at <strong>the</strong> IGC since 2011<br />
We are interested in un<strong>de</strong>rstanding <strong>the</strong> biophysical and genetic bases of pattern<br />
formation and morphogenesis, from <strong>the</strong> <strong>de</strong>velopmental and <strong>the</strong> evolutionary<br />
points of view.<br />
Our research is focused on <strong>the</strong> interplay between <strong>the</strong> biophysical mechanisms<br />
un<strong>de</strong>rlying cell and tissue morphogenesis and <strong>the</strong> different functional levels of<br />
regulatory networks (e.g. genetic, metabolic, ionic). We are especially interested<br />
in how this interplay both generates and constrains <strong>the</strong> phenotypic variation<br />
observed within and among species.<br />
GROUP MEMBERS<br />
Pedro dos Santos Lopes (External Masters stu<strong>de</strong>nt)<br />
COLLABORATORS<br />
Jaap Kaandorp (University of Amsterdam, The Ne<strong>the</strong>rlands)<br />
Johannes Jaeger (Centre <strong>de</strong> Regulación Genòmica (CRG), Barcelona, Spain)<br />
Patricia Belda<strong>de</strong> (IGC, Portugal)<br />
José Feijó (IGC, Portugal)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
FP7 ERA-NET program Complexity-NET, European Commission<br />
We address <strong>the</strong>se questions by using a multilevel mo<strong>de</strong>lling approach <strong>de</strong>veloped<br />
in close relation with <strong>the</strong> experimental data. Our <strong>the</strong>oretical mo<strong>de</strong>ls are mainly<br />
used to formulate organised hypo<strong>the</strong>ses and make testable predictions. As <strong>the</strong>ir<br />
calibration and validation are strongly <strong>de</strong>pen<strong>de</strong>nt on quantifying and estimating<br />
<strong>the</strong> biological parameters involved, we also focus part of our work on <strong>de</strong>veloping<br />
image analysis tools, databases and parameter optimisation algorithms.<br />
SINGLE CELL MORPHOGENESIS:<br />
MODELLING THE BIOPHYSICS OF CELL POLARISATION<br />
Toge<strong>the</strong>r with <strong>the</strong> Cell Biophysics and Development group we are using <strong>the</strong> germinating<br />
pollen as a mo<strong>de</strong>l system to study <strong>the</strong> regulatory interactions linking<br />
ion dynamics, cell polarisation and subsequent pollen tube growth and chemotropic<br />
spatial orientation.<br />
Based on <strong>the</strong> available experimental data, we are using partial differential equations<br />
to build 3D computational mo<strong>de</strong>ls integrating <strong>the</strong> cell’s geometry with measured<br />
and calculated ion fluxes, sub-cellular localisation of <strong>the</strong> main active transporters<br />
and respective molecular kinetics. As most equations in our mo<strong>de</strong>ls do not have<br />
analytical solutions (nor simple numerical ones), we are <strong>de</strong>veloping a new numerical<br />
analysis framework to implement this type of computational mo<strong>de</strong>ls.<br />
Our mo<strong>de</strong>ls predict <strong>the</strong> observed intracellular ion gradients and show <strong>the</strong>ir<br />
<strong>de</strong>pen<strong>de</strong>nce on o<strong>the</strong>r biophysical parameters, shedding light on <strong>the</strong> minimal<br />
necessary conditions to establish <strong>the</strong> cell’s polarity axis and providing some<br />
rationales for species-specific differences.<br />
For lily and tobacco pollen tubes, we showed that <strong>the</strong> observed H+ and Ca2+<br />
gradients are <strong>de</strong>termined by <strong>the</strong> localisation and activity of <strong>the</strong>ir main active<br />
transporters. The rate of Ca2+ sequestration is also critical in shaping its gradient.<br />
When comparing <strong>the</strong> two species, <strong>the</strong> distinct H+ and Ca2+ gradients<br />
observed are strongly related to <strong>the</strong> different fluxes magnitu<strong>de</strong> and cell sizes,<br />
although for Ca2+ <strong>the</strong> spatial <strong>organisation</strong> of <strong>the</strong> intracellular compartments<br />
may also play an important role.<br />
TISSUE AND EMBRYO PATTERNING:<br />
MODELLING GENE REGULATION IN DEVELOPMENT AND EVOLUTION<br />
With <strong>the</strong> Variation: Development and Selection group, we are studying <strong>the</strong> formation<br />
of pigmentation patterns in butterfly wings, exploring how <strong>the</strong> generation<br />
of phenotypic variation may <strong>de</strong>pend on <strong>the</strong> un<strong>de</strong>rlying gene network<br />
topology and respective biophysical and regulatory parameters.<br />
A<br />
C<br />
B<br />
D<br />
We are using <strong>the</strong>oretical mo<strong>de</strong>lling to test different possible network topologies<br />
and candidate genes. We <strong>de</strong>fine <strong>the</strong> gene regulatory networks using partial<br />
differential equations and represent <strong>the</strong> spatial gene expression patterns in 2D<br />
using finite differences methods. Fur<strong>the</strong>rmore, we are <strong>de</strong>veloping image analysis<br />
algorithms to quantify and classify <strong>the</strong> experimental images, and implementing<br />
optimisation methods to estimate <strong>the</strong> mo<strong>de</strong>ls' parameter values.<br />
MODELLING THE BIOPHYSICS OF CELL POLARISATION.<br />
A - Polarised distribution of <strong>the</strong> main ion fluxes in pollen tubes. B - The cell is<br />
represented by a composition of geometrical objects. C - Experimental pH and Ca2+<br />
gradients in Nicotiana tabacum. D - Examples of results from <strong>the</strong> <strong>the</strong>oretical mo<strong>de</strong>ls.<br />
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Our results provi<strong>de</strong> some testable hypo<strong>the</strong>ses for how <strong>the</strong> observed variation<br />
on <strong>the</strong> pigmentation patterns may <strong>de</strong>pend on subtle changes on specific biophysical<br />
parameters, opening interesting perspectives to un<strong>de</strong>rstand <strong>the</strong> evolution<br />
of <strong>the</strong>se mechanisms.<br />
We are performing <strong>de</strong>tailed systematic analysis of gene expression and pigmentation<br />
images for B. anynana. With <strong>the</strong>se quantitative data, we are implementing<br />
a classification system for wild-type and mutant phenotypes and also calibrating<br />
<strong>the</strong> <strong>the</strong>oretical mo<strong>de</strong>ls. The preliminary results suggest that <strong>the</strong> eyespot<br />
size is regulated by <strong>the</strong> shape and amplitu<strong>de</strong> of <strong>the</strong> morphogen concentration<br />
gradient, while <strong>the</strong> eyespot colour composition is regulated by gene-specific<br />
network regulatory parameters.<br />
A<br />
C<br />
B<br />
D<br />
MODELLING GENE REGULATION IN DEVELOPMENT AND EVOLUTION.<br />
A - Bicyclus anynana. B - Results from <strong>the</strong> <strong>the</strong>oretical mo<strong>de</strong>ls. Image analysis of C<br />
adult pigmentation and D gene expression patterns.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH FELLOWS<br />
70
PLANT<br />
GENOMICS<br />
Jörg Becker Research Fellow<br />
PhD in Biology, University of Bielefeld, Germany, 2001<br />
Post-doc, IGC, Portugal<br />
Head of IGC Gene Expression Unit<br />
Research Fellow at <strong>the</strong> IGC since 2008<br />
Our group is interested in <strong>the</strong> mechanisms un<strong>de</strong>rlying sexual reproduction and<br />
early embryogenesis with a particular focus on <strong>the</strong> role of <strong>the</strong> male gametes.<br />
Recent studies have shown that male gametes both in <strong>the</strong> plant and animal<br />
kingdom carry complex sets of RNA molecules, including not only mRNAs but<br />
also small RNAs. We are particularly interested in <strong>the</strong> role of <strong>the</strong>se two RNA<br />
classes before, during and after double fertilisation as it occurs in higher plants.<br />
Using Arabidopsis thaliana as our primary experimental mo<strong>de</strong>l we are addressing<br />
specific questions like:<br />
1. What are <strong>the</strong> functions of small RNA and DNA methylation pathways in<br />
sperm cells?<br />
2. Do sperm cell-<strong>de</strong>rived RNAs play a role after fertilisation?<br />
3. Do conserved core sets of genetic modules un<strong>de</strong>rlie common characteristics<br />
of male gametes across kingdoms?<br />
In addition we are interested in i<strong>de</strong>ntifying gamete-expressed proteins with<br />
functions in signalling events assuring double fertilisation and initiation of embryogenesis.<br />
GROUP MEMBERS<br />
Leonor Boavida (Post-doc)<br />
Filipe Borges (External PhD stu<strong>de</strong>nt)<br />
Patrícia Pereira (External PhD stu<strong>de</strong>nt)<br />
Marcela Coronado (External PhD stu<strong>de</strong>nt, started in February)<br />
Francisco Sousa (Trainee, started in June)<br />
COLLABORATORS<br />
Rob Martienssen (Cold Spring Harbor Laboratory, USA)<br />
Keith Slotkin (Ohio State University, USA)<br />
Ignacio Rubio Somoza (Max Planck Institute for Developmental Biology,<br />
Germany)<br />
Rui Gardner (IGC, Portugal)<br />
José Feijó (IGC, Portugal)<br />
Ji He (The Samuel Roberts Noble Foundation, USA)<br />
Carlos Plancha (Cemeare Lda, Portugal)<br />
Sheila McCormick (US Department of Agriculture/Agricultural Research<br />
Service, USA)<br />
Liam Dolan (Department of Plant Sciences; University of Oxford, England)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
FP7 Marie Curie International Reintegration Grant, European Commission<br />
FP7 Marie Curie Action: "Networks for Initial Training", European Commission<br />
THE ROLE OF SPERM DERIVED microRNAs DURING DOUBLE FERTILISATION<br />
IN ARABIDOPSIS<br />
The world’s current food supplies rely almost exclusively on double fertilisation<br />
as found in higher plants and characterised by <strong>the</strong> fusion of two male gametes<br />
(sperm cells) with two female gametes (egg cell and central cell), giving rise<br />
to <strong>the</strong> embryo and <strong>the</strong> endosperm. Thus a better molecular un<strong>de</strong>rstanding of<br />
double fertilisation will eventually provi<strong>de</strong> <strong>the</strong> tools to improve crops. Micro-<br />
RNAs (MiRs), as essential regulators in <strong>de</strong>velopment processes and hormone<br />
responses, are likely to play a role in sexual reproduction. Our <strong>de</strong>ep sequencing<br />
data of small RNAs from Arabidopsis sperm cells and pollen indicate that <strong>the</strong>se<br />
express MiRs belonging to dozens of microRNA families, with a number of <strong>the</strong>m<br />
showing higher expression levels in sperm cells than in pollen. We are analysing<br />
<strong>the</strong> role <strong>the</strong>se sperm cell MiRs might play for sperm cell viability and, if being<br />
<strong>de</strong>livered to <strong>the</strong> female gametes upon fertilisation, for <strong>the</strong> regulation of early<br />
embryogenesis and endosperm <strong>de</strong>velopment.<br />
We continued to address <strong>the</strong> potential role of MiRNAs in sperm cells using target<br />
mimics and global inhibitors of small RNA pathways. Moreover, using a novel<br />
FACS protocol (manuscript in prep), we isolated Arabidopsis microspores as well<br />
as vegetative nuclei and sperm cells from mature pollen. By <strong>de</strong>ep sequencing<br />
of bisulphite converted genomic DNA from <strong>the</strong>se three sample types we gained<br />
important new insights into epigenetic changes occurring during microgametogenesis<br />
(manuscript in prep).<br />
IDENTIFICATION OF CONSERVED GERM CELL SPECIFIC MODULES<br />
AS POTENTIAL PRECURSORS OF TOTIPOTENCY<br />
Germ cell differentiation gave rise to all sexually reproducing organisms, but<br />
along <strong>the</strong>ir evolution, several species <strong>de</strong>veloped distinct spatial and temporal<br />
control over germline proliferation. The gametes are <strong>the</strong> end products of <strong>the</strong><br />
germ cell lineage, and transfer ultimately to <strong>the</strong> zygote <strong>the</strong>ir unique totipotent<br />
potential, capable of giving rise to an entirely new organism. Despite <strong>the</strong> variety<br />
of mechanisms distinguishing germ cell differentiation and fertilisation strategies<br />
in plants and animals, <strong>the</strong> molecular pathways towards totipotency are<br />
likely to remain conserved in form of a core set of genetic modules un<strong>de</strong>rlying<br />
<strong>the</strong> totipotent potential of <strong>the</strong> gametes. This project focuses on <strong>the</strong> i<strong>de</strong>ntification<br />
of this conserved core set through <strong>the</strong> functional analysis of transcripts<br />
encoding orthologue gene products in male gametes of plant, human and fly.<br />
TRANSGENIC ARABIDOPSIS EXPRESSING GAMETE-SPECIFIC TETRASPANINS.<br />
Upper panel - GFP localisation in <strong>the</strong> plasma membrane of sperm cells (sperm<br />
nuclei mRFP). Bottom panel - Detail of GFP localisation in plasma membrane of<br />
female gametophytic cells: egg cell (right) and synergid cells (left).<br />
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During <strong>the</strong> second year of <strong>the</strong> project we were able to i<strong>de</strong>ntify a set of 237 conserved<br />
orthologue gene products that are expressed in <strong>the</strong> male gametes of <strong>the</strong><br />
three species. These products, by encoding both for evolutionarily-conserved<br />
germline regulators and for general housekeeping functions, represented <strong>the</strong><br />
starting point for <strong>the</strong> subsequent selection of 32 genes belonging to a putative<br />
core set of germline <strong>de</strong>terminants. These candidates genes are currently being<br />
characterised in Drosophila.<br />
MOLECULAR AND FUNCTIONAL CHARACTERISATION OF SPERM-EXPRESSED<br />
PROTEINS WITH POTENTIAL FUSOGENIC ROLES DURING DOUBLE<br />
FERTILISATION IN Arabidopsis thaliana<br />
Sexual reproduction is a fundamental biological process common among eukaryotes.<br />
In flowering plants, fertilisation involves a double fusion event between<br />
two male and two distinct female gametes. The signalling interactions involved<br />
in <strong>the</strong>se two in<strong>de</strong>pen<strong>de</strong>nt fusion events are still poorly un<strong>de</strong>rstood and <strong>the</strong><br />
molecular effectors mostly unknown. The project aims to i<strong>de</strong>ntify <strong>the</strong> central<br />
protagonists of <strong>the</strong>se cellular interactions, i.e. proteins preferentially localised<br />
to <strong>the</strong> surface of gametes exhibiting a function that is required for cell-cell adhesion<br />
or fusion. Ultimately we expect to answer some fundamental questions<br />
un<strong>de</strong>rlying gamete fusion: How do sperm and egg cell recognise each o<strong>the</strong>r and<br />
fuse? Is <strong>the</strong>re any specificity in <strong>the</strong> two different cell-cell fusion events? Are <strong>the</strong><br />
proteins involved specific to cell-cell fusion? And what is <strong>the</strong> interplay, if any,<br />
between <strong>the</strong>se proteins and <strong>the</strong> downstream signalling events leading to <strong>the</strong><br />
successful production of a seed?<br />
Transgenic Arabidopsis pollen grains expressing H2B-mRFP in <strong>the</strong> vegetative cell<br />
nucleus (red) and MGH3-eGFP specifically localised to <strong>the</strong> sperm cell nuclei (green)<br />
allow <strong>the</strong>ir co-purification by FACS.<br />
We are currently focused on <strong>the</strong> functional analysis of two sperm-expressed<br />
tetraspanins and in <strong>the</strong> i<strong>de</strong>ntification of partner molecules on male and female<br />
gametes.<br />
PLANTORIGINS<br />
The Marie Curie ITN “PLANT <strong>de</strong>velopmental biology: Discovering <strong>the</strong> ORIGINS of<br />
form” aims to integrate new discoveries and approaches in <strong>the</strong> fields of plant<br />
morphology, systematics, and <strong>de</strong>velopmental genetics with <strong>the</strong> overall goal of<br />
un<strong>de</strong>rstanding how <strong>the</strong> major tissues and organ systems of plants evolved and<br />
what <strong>the</strong>ir genetic regulatory basis is. We are focusing on <strong>the</strong> i<strong>de</strong>ntification of<br />
conserved networks functioning in sperm cells to assure correct <strong>de</strong>velopment<br />
and viability of this unique cell type, using a comparative transcriptomics approach<br />
comparing gene expression in male gametes of <strong>the</strong> angiosperm Arabidopsis<br />
thaliana and <strong>the</strong> bryophyte Physcomitrella patens. Candidate genes<br />
within <strong>the</strong> most promising conserved modules will be selected for functional<br />
characterization in Arabidopsis and Physcomitrella. This should ultimately allow<br />
a better un<strong>de</strong>rstanding of <strong>the</strong> evolution of regulatory modules un<strong>de</strong>rlying<br />
sperm <strong>de</strong>velopment, viability and fertilisation in <strong>the</strong> plant lineage.<br />
During 2011 we have established <strong>the</strong> moss Physcomitrella patens as a mo<strong>de</strong>l system<br />
in our lab. Subsequently we have <strong>de</strong>veloped a collection method for sperm<br />
cells (an<strong>the</strong>rozoids) and archegonia from Physcomitrella based on micromanipulation<br />
that will allow us to analyse <strong>the</strong> transcriptome by microarray analysis.<br />
IGC ANNUAL REPORT ‘11<br />
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NETWORK<br />
MODELLING<br />
Claudine Chaouiya Research Fellow<br />
PhD in Computer Science, Université <strong>de</strong> Nice Sophie Antipolis, 1992<br />
Assistant professor - Research Associate, Université Aix-Marseille II, France<br />
Research Fellow at <strong>the</strong> IGC since 2009<br />
link to external website<br />
Major breakthroughs in molecular biology, genomics and functional genomics<br />
allow <strong>the</strong> <strong>de</strong>lineation of ever-larger interaction networks controlling cellular<br />
processes. To assess <strong>the</strong> complex behaviours induced by <strong>the</strong>se networks, <strong>de</strong>dicated<br />
ma<strong>the</strong>matical and computational tools are crucial. In this context, our<br />
major goal is to <strong>de</strong>velop generic and efficient means for <strong>the</strong> qualitative mo<strong>de</strong>lling<br />
and analysis of regulatory networks involving hundreds of components and<br />
diverse regulatory interactions, including inter-cellular signalling. Our strategy<br />
is threefold:<br />
1. Define formal methods to assess dynamical properties of regulatory network<br />
discrete mo<strong>de</strong>ls;<br />
2. Implement <strong>the</strong>se methods ei<strong>the</strong>r in GINsim (our software <strong>de</strong>dicated to <strong>the</strong><br />
logical mo<strong>de</strong>lling of regulatory networks), or in standalone programmes;<br />
3. In collaboration with biologists, challenge our methodological <strong>de</strong>velopments<br />
with real case applications, specifying and analysing mo<strong>de</strong>ls for <strong>the</strong> control<br />
of cell proliferation and differentiation.<br />
GROUP MEMBERS<br />
Pedro T. Monteiro (Postdoc, started in April)<br />
Nuno D. Men<strong>de</strong>s (Postdoc, started in July)<br />
John Alexan<strong>de</strong>r (Technician, from April to November)<br />
COLLABORATORS<br />
Elisabeth Remy (Institut e Mathématiques <strong>de</strong> Luminy, France)<br />
FUNDING<br />
Fundação para a Ciência e Tecnologia (FCT), Portugal<br />
French National Research Agency, France<br />
MALIN: Modular mo<strong>de</strong>lling and Analysis of Large biological Interacting networks<br />
Until recently, most ma<strong>the</strong>matical mo<strong>de</strong>ls for concrete molecular networks have<br />
been <strong>de</strong>fined as a unique whole, consi<strong>de</strong>ring networks of a limited size. This<br />
approach is not scalable and has to be modified as networks increase in size<br />
and complexity. The goal of this project is to <strong>de</strong>velop efficient computational<br />
methods to represent and analyse qualitative behaviours of large regulatory<br />
networks, particularly in <strong>the</strong> context of multi-cellular systems. For this, we aim<br />
at <strong>de</strong>fining an appropriate compositional mo<strong>de</strong>lling framework. Importantly, <strong>the</strong><br />
computational <strong>de</strong>velopments envisioned in this project will be confronted and<br />
validated with two challenging concrete biological case studies. The first application<br />
relates to <strong>the</strong> dorsal appendage morphogenesis in <strong>the</strong> Drosophila egg,<br />
where cells communicate within a structured topology. The second case study<br />
consi<strong>de</strong>rs circulating peripheral immune cells and <strong>de</strong>als with a comprehensive<br />
mo<strong>de</strong>l for T lymphocytes differentiation.<br />
Work on this project led, in 2011, to a publication:<br />
(B. Luna, C. Chaouiya (2011) Adv Int and Soft Comp Vol 93: 293-302.), a fur<strong>the</strong>r<br />
manuscript in press (P. T. Monteiro, C. Chaouiya (in press) Efficient verification<br />
for logical mo<strong>de</strong>ls of regulatory networks. Adv Int and Soft Comp Vol 154).<br />
And two more in preparation:<br />
(N. D. Men<strong>de</strong>s et al. Composition and abstraction of iterated logical regulatory<br />
modules using process algebras; A. Fauré et al. Dorsal patterning of <strong>the</strong> Drosophila<br />
eggshell).<br />
CALAMAR: COMPOSITIONAL MODELLING AND ANALYSIS OF LARGE MOLECULAR<br />
REGULATORY NETWORKS - APPLICATION TO THE CONTROL OF HUMAN CELL<br />
PROLIFERATION<br />
Appropriate tools for <strong>the</strong> dynamical mo<strong>de</strong>lling, analysis and simulation are<br />
required to <strong>de</strong>lineate <strong>the</strong> functioning of regulatory networks. In this context,<br />
different formalisms can be consi<strong>de</strong>red, from logical (qualitative) mo<strong>de</strong>ls to differential<br />
(quantitative) mo<strong>de</strong>ls. This project intends to <strong>de</strong>velop novel methods<br />
to efficiently represent and analyse <strong>the</strong> behaviour of large regulatory networks.<br />
This challenge will be addressed through <strong>the</strong> conception of computational<br />
methods for network reduction and (<strong>de</strong>)composition (yet keeping track<br />
of essential dynamical properties). Formal relationships between qualitative and<br />
quantitative mo<strong>de</strong>ls will be generated by <strong>the</strong> application of <strong>de</strong>dicated abstraction<br />
techniques. These generic methods will be confronted with a reference<br />
application, namely <strong>the</strong> analysis of a comprehensive map of <strong>the</strong> RB/E2F regulatory<br />
network, which plays a key role in <strong>the</strong> control of human cell proliferation.<br />
In 2011, work on this project led to manuscripts in preparation: Calzone et al.<br />
Ma<strong>the</strong>matical Approach to account for alterations in blad<strong>de</strong>r tumours, and Bereguier<br />
et al. Dynamical analysis of logical mo<strong>de</strong>ls using compressed hierarchical<br />
state transition graphs.<br />
GINsim screenshot displaying <strong>the</strong> logical, integrated mo<strong>de</strong>l of <strong>the</strong> regulatory network<br />
and signalling pathways controlling Th cell differentiation (Naldi et al. PLoS<br />
Comput Biol 6(9): e1000912, 2010).<br />
Directed graph accounting for <strong>the</strong> plasticity of cell subtypes: arrows between cell<br />
lineages <strong>de</strong>note switches elicited by <strong>the</strong> corresponding environment.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH FELLOWS<br />
73
LUPUS<br />
AND AUTOREACTIVE<br />
IMMUNE REPERTOIRES<br />
Constantin Fesel Research Fellow<br />
PhD in Immunology, Université Paris VI, 1998<br />
Post-doctoral Fellow, Weizmann Institute of Science, Rehovot<br />
Principal Investigator at <strong>the</strong> IGC since 2001<br />
While <strong>the</strong> <strong>de</strong>tection of molecular mechanisms as well as of genetic disease risk<br />
factors rapidly evolves, <strong>the</strong> systemic diversification of specificity repertoires is<br />
still badly un<strong>de</strong>rstood. In this situation, it is increasingly relevant to mo<strong>de</strong>l <strong>the</strong><br />
pathogenetic process that leads to autoimmune diseases as a whole, since <strong>the</strong>y<br />
are known to <strong>de</strong>pend on complex interactions of molecular and cellular mechanisms.<br />
Systemic Lupus Ery<strong>the</strong>matosis (SLE) is a human autoimmune disor<strong>de</strong>r<br />
where altered physiologies and self-reactive repertoires of both B- and T-cells<br />
are intimately connected. Our approach is to mo<strong>de</strong>l, in a stepwise fashion, <strong>the</strong><br />
ways in which genetic factors and molecular mechanisms are interconnected.<br />
Since we found particular relations between antibody reactivity and regulatory<br />
T-cells in unaffected relatives of SLE patients who often share SLE-associated<br />
autoantibodies, our hypo<strong>the</strong>sis is that <strong>the</strong>se autoantibody-positive relatives<br />
bear a particular capacity to regulate autoimmune reactions.<br />
GROUP MEMBERS<br />
Nuno Costa (Research Technician)<br />
Sandra Iris Godinho (Masters stu<strong>de</strong>nt)<br />
COLLABORATORS<br />
Maria Berta Silva Martins (<strong>Instituto</strong> <strong>de</strong> Ciências Biomédicas Abel Salazar,<br />
Porto, Portugal)<br />
Carlos Vasconcelos (Hospital Geral <strong>de</strong> Santo Antonio, Porto, Portugal)<br />
Margarida Lima (Hospital Geral <strong>de</strong> Santo Antonio, Porto, Portugal)<br />
Cristina João (Centro <strong>de</strong> Investigação <strong>de</strong> Patologia Molecular, Lisboa,<br />
Portugal)<br />
Carlos Ferreira (Hospital <strong>de</strong> Santa Maria, Lisboa, Portugal)<br />
Maria Francisca Fontes (Hospital Curry Cabral, Lisboa, Portugal)<br />
José Alves (Hospital Fernando Fonseca, Amadora-Sintra, Portugal)<br />
FUNDING<br />
Fundação para a Ciência e Tecnologia (FCT), Portugal<br />
LUPUS AND ITS COMPENSATION IN UNAFFECTED RELATIVES<br />
BY T-CELL REGULATION<br />
SLE is an autoimmune disease characterised by autoantibodies that accumulate<br />
over years before clinical manifestation. Unaffected relatives of SLE patients<br />
frequently share SLE-type autoantibodies, most without ever acquiring clinical<br />
disease, which suggests a capacity to compensate pathogenic effects associated<br />
with <strong>the</strong>m. A <strong>the</strong>rapy that is able to restore such compensation appears<br />
highly <strong>de</strong>sirable. Conversely to reported negative correlations of regulatory T-<br />
cells with circulating IgG autoantibodies in patients, we found <strong>the</strong>m positively<br />
correlated in unaffected relatives. Fur<strong>the</strong>rmore, autoantibody profiles were influenced<br />
by genetic polymorphisms affecting effects mediated by IL2, <strong>the</strong> cytokine<br />
with <strong>the</strong> strongest impact on Treg function in characteristic ways. We<br />
hypo<strong>the</strong>sise that an IL2-<strong>de</strong>pen<strong>de</strong>nt regulatory feedback mechanism, abrogated<br />
in manifest SLE, can control <strong>the</strong> pathogenicity of SLE-type antibody production.<br />
We are now characterising this mechanism. Data analysis is in progress<br />
Scheme of SLE pathogenesis according to current knowledge, with <strong>the</strong> role of<br />
regulatory T-cells indicated.<br />
Cytogramme with subsets of conventional and regulatory T-cells.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH FELLOWS<br />
74
NEURONAL<br />
STRUCTURE<br />
AND FUNCTION<br />
Inbal Israely Research Fellow<br />
PhD in Neuroscience, University of California, Los Angeles, 2004<br />
Post-doctoral Associate, MIT, USA<br />
THIS GROUP IS A MEMBER OF THE CHAMPALIMAUD NEUROSCIENCE PROGRAMME AT THE IGC<br />
Research Fellow at <strong>the</strong> IGC since 2009<br />
link to external website<br />
We are interested in un<strong>de</strong>rstanding how activity can lead to specific structural<br />
changes in neurons which may be important for learning, and how such changes<br />
affect connectivity within neural circuits. It is unknown how <strong>the</strong> diverse forms<br />
of activity that a neuron receives are physically stored and regulated at <strong>the</strong><br />
level of individual spines, <strong>the</strong> sites of neuronal connections. Does long lasting<br />
<strong>de</strong>pression lead to structural changes at synapses? What types of structural<br />
and electrophysiological modifications take place at spines following complex<br />
patterns of naturally occurring activity? Several mental retardation disor<strong>de</strong>rs in<br />
humans are characterised by abnormal spine morphology, and studying neurons<br />
from animal mo<strong>de</strong>ls may fur<strong>the</strong>r our un<strong>de</strong>rstanding of <strong>the</strong> relationship between<br />
structure and function. We aim to combine molecular and genetic tools with<br />
imaging and electrophysiological methodologies, to <strong>de</strong>termine how information<br />
is physically stored in <strong>the</strong> brain.<br />
GROUP MEMBERS<br />
Yazmin Ramiro Cortes (Post-doc)<br />
Anna Hobbiss (PhD Stu<strong>de</strong>nt)<br />
Ali Ozgur Argunsah (PhD Stu<strong>de</strong>nt)<br />
COLLABORATORS<br />
Thomas McHugh (Riken Brain Science Institute, Japan)<br />
Devrim Ünay (Bahcesehir University, Turkey)<br />
FUNDING<br />
Champalimaud Foundation (CF), Portugal<br />
Bial Foundation, Portugal<br />
DENDRITIC COMPARTMENTALISATION OF PROTEIN SYNTHESIS-DEPENDENT<br />
SYNAPTIC PLASTICITY<br />
We found that protein syn<strong>the</strong>sis <strong>de</strong>pen<strong>de</strong>nt stimulation of spines can facilitate<br />
plasticity at neighbouring spines for up to an hour and over long distances (70<br />
micra). Through 2-photon imaging and uncaging of glutamate at individual spines,<br />
we aim to visualise structural changes that occur in response to protein syn<strong>the</strong>sis<br />
<strong>de</strong>pen<strong>de</strong>nt forms of activity. We will examine how activity at multiple spines leads<br />
to structural changes and changes in synaptic weights within a <strong>de</strong>ndritic branch.<br />
We aim to <strong>de</strong>termine whe<strong>the</strong>r competition for proteins during synaptic plasticity<br />
can shape <strong>the</strong> organization of inputs within a <strong>de</strong>ndrite, leading to <strong>the</strong> physical<br />
clustering of synapses. We also investigate whe<strong>the</strong>r <strong>the</strong> clustering of synapses<br />
can be observed following <strong>the</strong> <strong>de</strong>velopment of neural circuits, by examining <strong>the</strong><br />
endogenous distribution of spines within <strong>de</strong>ndrites of <strong>the</strong> hippocampus.<br />
We find that <strong>the</strong> stimulation of multiple spines closely toge<strong>the</strong>r in time can<br />
lead to competition for cellular resources, and that new proteins are required<br />
for this process. These findings <strong>de</strong>monstrate that synaptic plasticity may be<br />
biologically constrained, and provi<strong>de</strong>s a potential mechanism through which<br />
synapses could be spatially clustered. We are examining <strong>the</strong> parameters over<br />
which competition is regulated, in or<strong>de</strong>r to <strong>de</strong>fine <strong>the</strong> learning rules for protein<br />
syn<strong>the</strong>sis <strong>de</strong>pen<strong>de</strong>nt plasticity.<br />
STRUCTURAL CORRELATES OF SYNAPTIC DEPRESSION AT DENDRITIC SPINES<br />
Synaptic potentiation leads to an enlargement of spine head volumes at individual<br />
synapses, however <strong>the</strong> structural correlates of synaptic <strong>de</strong>pression are<br />
poorly un<strong>de</strong>rstood. Long term <strong>de</strong>pression can be initiated through a variety of<br />
receptors, and it is unknown whe<strong>the</strong>r <strong>the</strong> structural correlates of this form of<br />
plasticity apply generally to any <strong>de</strong>crease of synaptic weight, or whe<strong>the</strong>r <strong>the</strong>re<br />
are specific modifications <strong>de</strong>pending on which signalling pathway is activated.<br />
We aim to <strong>de</strong>termine what are <strong>the</strong> structural correlates of synaptic <strong>de</strong>pression<br />
at <strong>de</strong>ndritic spines. In particular, we are interested in exploring long lasting<br />
forms of synaptic <strong>de</strong>pression that <strong>de</strong>pend on new protein syn<strong>the</strong>sis. We will<br />
<strong>de</strong>termine what are <strong>the</strong> parameters which govern <strong>the</strong>se changes following activity<br />
at specific inputs. Additionally, we will probe whe<strong>the</strong>r new proteins serve<br />
to constrain plasticity at multiple spines similarly to <strong>the</strong> case for long term<br />
potentiation.<br />
We have induced long lasting synaptic <strong>de</strong>pression through <strong>the</strong> activation of<br />
metabotropic glutamate receptors (mGluRs) in hippocampal organotypic slice<br />
cultures. We have quantified <strong>the</strong> structural changes which correlate with this<br />
form of plasticity through 2-photon imaging of subsets of spines for up to four<br />
hours. Additionally, we recor<strong>de</strong>d electrophysiological responses from <strong>the</strong>se<br />
cells in or<strong>de</strong>r to monitor <strong>the</strong> changes following synaptic plasticity.<br />
INDUCING ACTIVITY AT SINGLE DENDRITIC SPINES TO STUDY STRUCTURAL DYNAMICS.<br />
Using 2-photon microscopy in living brain slices toge<strong>the</strong>r with photoactivation<br />
of caged glutamate, we can examine how neurons physically store information at<br />
synapses. We can vary <strong>the</strong> type of stimulation <strong>de</strong>livered at a given input to mimic<br />
different forms of activity, and study what are <strong>the</strong> structural and functional correlates.<br />
We also examine how a neuron integrates information arriving at multiple<br />
synapses.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH FELLOWS<br />
75
PLASTICITY CONSEQUENCES OF NATURALISTIC SPIKE TRAINS<br />
AT SINGLE SYNAPSES<br />
Naturally occurring patterns of activity are complex in structure and have an<br />
irregular distribution of action potentials. Thus far, synaptic plasticity at individual<br />
inputs has been assessed through <strong>de</strong>livery of regular patterns of activity.<br />
We aim to mimic <strong>the</strong> varied input patterns observed in vivo with glutamate<br />
uncaging at individual spines, in or<strong>de</strong>r to <strong>de</strong>termine what are <strong>the</strong> structural<br />
and plasticity correlates of <strong>the</strong>se forms of activity. We will <strong>de</strong>termine how such<br />
complex trains of activity interact across multiple synapses within a <strong>de</strong>ndritic<br />
branch. We will use this information to mo<strong>de</strong>l neuronal information processing<br />
in or<strong>de</strong>r to <strong>de</strong>velop an un<strong>de</strong>rstanding of <strong>the</strong> learning rules which govern<br />
synaptic weight changes.<br />
We have established a collaboration in or<strong>de</strong>r to obtain in vivo electrophysiological<br />
recordings from hippocampal CA3 neurons. Experiments in which electrophysiological<br />
recordings are coupled with 2-photon imaging in hippocampal<br />
organotypic slice cultures are un<strong>de</strong>rway in or<strong>de</strong>r to monitor <strong>the</strong> structural and<br />
plasticity correlates of spike timing <strong>de</strong>pen<strong>de</strong>nt plasticity. This form of plasticity<br />
<strong>de</strong>pends on <strong>the</strong> integration of events at single inputs, similarly to what is<br />
observed endogenously.<br />
AUTOMATIC DENDRITIC SPINE DETECTION AND ANALYSIS<br />
The combination of live 2-photon imaging and glutamate uncaging allows us<br />
to investigate how neuronal structure and function are correlated at <strong>the</strong> level<br />
of individual spines following synaptic activity. In addition to changes in <strong>the</strong><br />
volume of <strong>the</strong> spine head, many o<strong>the</strong>r changes in spine structure have been<br />
observed, for example, changes in <strong>the</strong> length of <strong>the</strong> spine neck. Such changes<br />
are difficult to quantify with existing methodologies, and <strong>the</strong>refore we aim to<br />
<strong>de</strong>velop automated data analysis tools for handling both <strong>the</strong> large data sets<br />
and <strong>the</strong> many variables to be analysed. We aim to achieve greater precision and<br />
flexibility in <strong>the</strong> quantification of structural changes, as well as to significantly<br />
enhance <strong>the</strong> efficacy of data analysis.<br />
Thus far, we have <strong>de</strong>veloped an automated, multi-level, region based segmentation<br />
method to <strong>de</strong>tect <strong>de</strong>ndritic spines from two-photon laser scanning microscopy<br />
images. I<strong>de</strong>ntified structures in two-photon images of <strong>de</strong>ndritic spines<br />
are used to train <strong>the</strong> segmentation algorithm. This is <strong>the</strong> first step towards a<br />
broa<strong>de</strong>r automated <strong>de</strong>ndritic spine <strong>de</strong>tection and analysis framework.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH FELLOWS<br />
76
NEUROETHOLOGY<br />
LABORATORY<br />
THIS GROUP IS A MEMBER OF THE CHAMPALIMAUD NEUROSCIENCE PROGRAMME AT THE IGC<br />
Susana Lima Research Fellow<br />
PhD in Neuroscience, Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal, 2005<br />
Post-doctoral Fellow, Cold Spring Harbor Laboratory, USA<br />
Research Fellow at <strong>the</strong> IGC since 2008<br />
link to external website<br />
The main goal of our laboratory is to gain mechanistic insights into <strong>the</strong> neuronal<br />
processes un<strong>de</strong>rlying fundamental behaviours in females: <strong>the</strong> choice of a suitable<br />
mate and how to initiate and terminate sexual behaviour. To do so, we use<br />
mice as mo<strong>de</strong>l system and a combination of approaches that inclu<strong>de</strong> physiological,<br />
anatomical and molecular tools to dissect <strong>the</strong> contribution of candidate<br />
brain areas to <strong>the</strong> emergence of <strong>the</strong>se natural behaviours. Our long-term goal<br />
is to test <strong>the</strong> hypo<strong>the</strong>sis that mate choice has an impact on <strong>the</strong> regulation of<br />
sexual behaviour.<br />
NEURONAL MECHANISMS FOR MATE CHOICE IN MICE<br />
Our main goal was to <strong>de</strong>velop a behavioural paradigm of mate choice in mice to <strong>the</strong>n<br />
investigate <strong>the</strong> neuronal mechanisms responsible for representing mates of different<br />
values and how comparison of competing alternatives are ma<strong>de</strong>. We have used a<br />
mate choice paradigm inspired by <strong>the</strong> natural situation observed in <strong>the</strong> hybrid zone<br />
between Mus musculus musculus and Mus musculus domesticus in Europe.<br />
GROUP MEMBERS<br />
Léa Zinck (Post-doc)<br />
Vanessa Urbano (Technician)<br />
COLLABORATORS<br />
Marta Moita (Champalimaud Neuroscience Programme, Portugal)<br />
FUNDING<br />
FP7 Marie Curie Reintegration Grant, European Commission<br />
Bial Foundation, Portugal<br />
Champalimaud Foundation, Portugal<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Speed-dating at Optimus Alive (July)<br />
Media Interviews (Falar Global, Jornal <strong>de</strong> Negócios, Diário <strong>de</strong> Notícias, RTP1)<br />
We have established a mate choice paradigm with M. m. musculus and M. m.<br />
domesticus, where musculus females exhibit a strong and reliable preference<br />
for <strong>the</strong>ir own subspecies. We have also established that this preference is influenced<br />
by early imprinting mechanisms and it increases with multiple testing.<br />
Fur<strong>the</strong>rmore, <strong>the</strong> preference for a specific male is not absolute, but ra<strong>the</strong>r flexible<br />
and <strong>de</strong>pen<strong>de</strong>nt of <strong>the</strong> alternatives that are available.<br />
NEURONAL MECHANISMS UNDERLYING SEX HORMONE-DEPENDENT SWITCH-<br />
ING OF SEXUAL RECEPTIVITY<br />
Female sexual receptivity changes across <strong>the</strong> reproductive cycle, being maximal<br />
during <strong>the</strong> fertile phase. This represents an interesting state-<strong>de</strong>pen<strong>de</strong>nt behavioural<br />
output, where <strong>the</strong> interaction of sexual hormones and <strong>the</strong> physiology<br />
of neuronal circuits alter <strong>the</strong> way a female treats <strong>the</strong> same male stimulus. We<br />
are interested in un<strong>de</strong>rstanding <strong>the</strong> role of <strong>the</strong> ventromedial nucleus of <strong>the</strong><br />
hypothalamus (VMH) in <strong>the</strong> control of this receptivity switch. To this end, we<br />
are performing electrophysiological recordings of this area in naturally cycling<br />
female mice exposed to male stimuli.<br />
During <strong>the</strong> past year we have <strong>de</strong>veloped and troubleshooted electrophysiological<br />
recordings in <strong>the</strong> VMH of naturally cycling, freely moving females. We are<br />
able to record from well isolated neurons from this area, and we can observe<br />
stimulus triggered responses. We are currently testing o<strong>the</strong>r types of electro<strong>de</strong>s<br />
in or<strong>de</strong>r to increase <strong>the</strong> yield of <strong>the</strong>se experiments.<br />
Two subspecies of house mice in Europe, in allopatry: Mus musculus musculus<br />
and Mus musculus domesticus. Musculus females prefer to mate with musculus<br />
males, domesticus females mate indiscriminately. We have <strong>de</strong>veloped a behavioural<br />
paradigm in <strong>the</strong> laboratory using inbred wild <strong>de</strong>rived animals of <strong>the</strong> subspecies<br />
musculus (PWD and PWK) and laboratory strains of mice (Black 6) as domesticus.<br />
FEMALE SEXUAL BEHAVIOUR:<br />
NEURONAL PATHWAYS FOR AROUSAL TERMINATION<br />
Like all behaviours, sexual arousal has a beginning and an end. Sensory genital<br />
stimulation received by <strong>the</strong> female during copulation (sensed by mechanoreceptors<br />
present in <strong>the</strong> cervix and clitoris) is relayed to <strong>the</strong> brain and is important<br />
for <strong>the</strong> rewarding effects of copulation and for its termination. Despite being<br />
a fundamental aspect of sexual behaviour, very little is known about how <strong>the</strong><br />
brain integrates <strong>the</strong> genital stimulation received during copulation and how <strong>the</strong><br />
brain uses this information to inhibit fur<strong>the</strong>r sexual arousal.<br />
We have started by establishing a protocol to trace <strong>the</strong> genital input to <strong>the</strong><br />
brain, by using pseudo rabies viruses (PRV) expressing green fluorescent protein.<br />
PRV infects axon terminals of neurons and after infecting a neuron, jumps<br />
to synaptically connected neuronal partners. By employing this method we are<br />
investigating which brain areas are synaptically connected to <strong>the</strong> genital organs<br />
that receive stimulation during copulation.<br />
PWD females exhibit a strong homosubspecific preference for PWK males, resembling<br />
that observe in <strong>the</strong> wild.<br />
An example of a putative hypothalamic neuron that respon<strong>de</strong>d selectively to female<br />
presentations. Spike histogrammes are shown. This neuron shows selective<br />
responses to <strong>the</strong> presentations of females from different strains (red).<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH FELLOWS<br />
77
ANTIGEN<br />
PRESENTATION<br />
AND T CELL ACTIVATION<br />
Elisabetta Padovan Research Fellow<br />
PhD in Immunology, University of Padova, Italy, 1994<br />
Group Lea<strong>de</strong>r, Bern University Hospital, Switzerland<br />
Principal Investigator at <strong>the</strong> IGC since 2006<br />
T cells are central actors of antigen-specific immune responses and <strong>the</strong>ir function<br />
is strongly influenced by <strong>the</strong> Antigen-presenting Cells (APC) <strong>the</strong>y directly<br />
interact with. APC control T cell activation also indirectly, by providing cytokines<br />
that are induced by environmental triggers recognised by Pattern Recognition<br />
Receptors (PRR). Although it has long been recognised that PRR on professional<br />
APC instruct <strong>the</strong> cell fate <strong>de</strong>cisions of naïve T lymphocytes, a careful analysis<br />
of how PRR signalling modulates effector memory T cell function, directly and<br />
indirectly through APC, is still missing. By studying <strong>the</strong> crosstalk between Monocyte/Macrophages<br />
and T helper (Th) cells producing IL-17 (Th17) or IFN-γ (Th1)<br />
we aim at dissecting how human Th17 and Th1 responses of healthy donors and<br />
patients become tuned, also <strong>de</strong>pending on <strong>the</strong> presence or absence of PRR<br />
ligands.<br />
HOW PATTERN RECOGNITION RECEPTORS (PRR) SIGNALLING CONTROLS<br />
T LYMPHOCYTES ACTIVATION<br />
Adaptive immunity <strong>de</strong>pends on <strong>the</strong> induction of antigen-specific T cells in central<br />
lymphoid organs, upon priming of naïve T cells by professional Antigen<br />
Presenting Cells (APC) licensed through Toll-like Receptors (TLR). Up to now<br />
it is still poorly known whe<strong>the</strong>r TLR signalling can also influence <strong>the</strong> crosstalk<br />
between APC and CD4+ memory T cells, thus tuning T helper (Th) cell responses<br />
in peripheral tissues. We use imaging techniques to resolve molecular events<br />
occurring in living T cell/APC conjugates and dissect <strong>the</strong> modulatory effect of<br />
TLR signalling on T cell immunity.<br />
We have assessed <strong>the</strong> APC/T cell crosstalk established during antigen recognition.<br />
The cytokine production pattern induced in Th17 cells activated by M1 and<br />
M2 macrophages was assessed in 3D microscopy. Our imaging studies reveal<br />
that IL-17 cytokine is contained in intracellular vesicles distributed around <strong>the</strong><br />
Microtubule Organising Centre (MTOC) of activated T cells, irrespective of <strong>the</strong><br />
type of APC (Figure 1 A). Quantitative analysis of our 3D images shows no differences<br />
in <strong>the</strong> number of intracellular cytokine-containing vesicles and <strong>the</strong>ir<br />
cytokine load.<br />
COLLABORATORS<br />
Perrine Paul-Gilloteaux (Institut Curie, Paris, France)<br />
Claire Hivroz (Institut Curie, Paris, France)<br />
A<br />
B<br />
CYTOKINE PRODUCTION PATTERN IN ACTIVATED TH17 CELLS.<br />
A - 3D microscopy images show IL-17 (red) distributed around <strong>the</strong> T cell MTOC<br />
(green) within a human Th17 clone recognising TSST-1 on M1 (left) and M2 (right)<br />
Macrophages (blue). The quantitative analysis of up to 23 images plotted as total<br />
number of IL-17 containing vesicles (top) and vesicles average fluorescence intensity<br />
(bottom) is <strong>de</strong>picted in B.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH FELLOWS<br />
78
LEARNING<br />
LABORATORY<br />
THIS GROUP IS A MEMBER OF THE CHAMPALIMAUD NEUROSCIENCE PROGRAMME AT THE IGC<br />
Joseph Paton Research Fellow<br />
PhD in Neurobiology and Behaviour, Columbia University, 2008<br />
Research Fellow at <strong>the</strong> IGC since 2008<br />
link to external website<br />
Learning to adaptively respond to cues in <strong>the</strong> environment that predict behaviourally<br />
relevant events is critical for survival. However, in <strong>the</strong> natural world,<br />
where animals are exposed to myriad sensory stimuli, learning <strong>the</strong> predictive<br />
value of cues is non-trivial. How do animals figure out which cues are predictive,<br />
and of what? This is called <strong>the</strong> credit assignment problem. Conceiving of<br />
this problem as statistical inference in <strong>the</strong> time domain offers a parsimonious<br />
account of animals’ learning abilities. In o<strong>the</strong>r words, when cues occur relative<br />
to meaningful events is what <strong>de</strong>termines <strong>the</strong>ir information content, <strong>the</strong>ir usefulness,<br />
and thus, whe<strong>the</strong>r <strong>the</strong>y warrant learning about. However, we still do not<br />
un<strong>de</strong>rstand how <strong>the</strong> brain might keep track of times. We aim to reveal neural<br />
mechanisms for time by observing and manipulating neurophysiology in behaving<br />
ro<strong>de</strong>nts performing tasks that lead <strong>the</strong>m to estimate intervals.<br />
GROUP MEMBERS<br />
Gonçalo Lopes (PhD stu<strong>de</strong>nt, shared with Adam Kampff)<br />
Gustavo Mello (PhD stu<strong>de</strong>nt)<br />
Rui Azevedo (PhD stu<strong>de</strong>nt, shared with Zach Mainen))<br />
Sofia Soares (Technician)<br />
COLLABORATORS<br />
Joshua T. Dudman (Janelia Farm Research Campus, USA)<br />
Adam R. Kampff (Champalimaud Neuroscience Programme, Portugal)<br />
FUNDING<br />
Champalimaud Foundation (CF),Portugal<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
OPTOGENETIC INVESTIGATION OF INTERVAL TIMING IN MICE<br />
In <strong>the</strong> past year, we have initiated a parallel set of timing studies in mice in<br />
or<strong>de</strong>r to take advantage <strong>the</strong> increased molecular power of <strong>the</strong> mouse relative<br />
to <strong>the</strong> rat. We have trained mice on a classic temporal reproduction task, called<br />
<strong>the</strong> peak interval task, and are currently training mice on <strong>the</strong> SFI task mentioned<br />
above. By combining viruses <strong>de</strong>pen<strong>de</strong>nt on CRE recombinase activity<br />
for expression of transgenes, with mouse lines expressing CRE in specific basal<br />
ganglia cell types, we plan to express light sensitive channels and pumps in targeted<br />
locations within <strong>the</strong> basal ganglia circuit. Stimulating <strong>the</strong>se proteins with<br />
light during experiments will provi<strong>de</strong> us with two potentially powerful pieces of<br />
data. First, we will be able to ask what type of cell we are recording from in vivo<br />
much more easily and in higher volume than was available with ol<strong>de</strong>r techniques.<br />
Second, we can test hypo<strong>the</strong>ses about <strong>the</strong> role of activity in specific populations<br />
of neurons for timing behaviour.<br />
In <strong>the</strong> past year Rui Azevedo has activated dopamine neurons using optogenetics<br />
in brain slices, and in behaving mice. He gained behavioural evi<strong>de</strong>nce<br />
of successful activation by showing that he could condition mice to prefer a<br />
particular spatial location by illuminating transfected neurons specifically when<br />
mice entered a particular region. He is currently training transgenic mice on a<br />
timing task, and will test whe<strong>the</strong>r manipulation of dopamine neuron activity<br />
affects interval timing.<br />
NEUROPHYSIOLOGY OF TIME ENCODING IN THE RODENT STRIATUM<br />
Lesion, pharmacology, and genetic studies all suggest that <strong>the</strong> ability to estimate<br />
<strong>the</strong> passage of time on <strong>the</strong> scale of seconds to minutes is produced in<br />
<strong>the</strong> striatum, a major input area of <strong>the</strong> basal ganglia. Thus, we trained rats to<br />
estimate time intervals and recor<strong>de</strong>d from striatal neurons as <strong>the</strong>y behaved<br />
and asked how <strong>the</strong> passage of time could be enco<strong>de</strong>d in <strong>the</strong> firing patterns we<br />
observed. In addition, <strong>the</strong> basal ganglia is thought to implement reinforcement<br />
learning mechanisms, helping <strong>the</strong> animal learn how to act in response to a given<br />
situation based on past experience. We sought to place <strong>the</strong> neural signals we<br />
recor<strong>de</strong>d into a computational framework that reconciles interval timing and<br />
reinforcement learning. Towards that end, we are <strong>de</strong>veloping a computational<br />
mo<strong>de</strong>l of interval timing that inclu<strong>de</strong>s signals related to those we observe experimentally,<br />
but that also can solve reinforcement learning problems.<br />
We currently have a manuscript in <strong>the</strong> final stages of preparation <strong>de</strong>scribing <strong>the</strong><br />
neural signals we observe during an interval timing task. We are also actively<br />
extending <strong>the</strong>se studies to gain more continuous measures of <strong>the</strong> animals’ behaviour<br />
during our task. This will be important for continuing to rule out behavioural<br />
sources of variance in <strong>the</strong> firing of neurons we record.<br />
Mo<strong>de</strong>lling rats’ behaviour using mechanisms <strong>de</strong>rived from experimental data. Output<br />
of a timing mo<strong>de</strong>l running on a task that we have previously trained rats to<br />
perform. At <strong>the</strong> top are scalable temporal basis functions that resemble <strong>the</strong> activity<br />
profiles of neurons we have recor<strong>de</strong>d in <strong>the</strong> striatum of rats during this task.<br />
These are used as rate functions to produce Poisson spike trains. These spike<br />
trains are <strong>the</strong>n <strong>de</strong>co<strong>de</strong>d to estimate time (blue trace) and subsequently drive behaviour<br />
(red threshold).<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH FELLOWS<br />
79
NEUROMETRIC - PSYCHOMETRIC COMPARISON OF INTERVAL TIMING<br />
PERFORMANCE<br />
Tasks in which subjects must categorise sensory stimuli whose characteristics<br />
are parametrically varied have been powerful tools for relating neural processing<br />
to sensation in a rigorous and quantitative manner. We are applying <strong>the</strong><br />
same approach to an unconventional sensory modality, <strong>the</strong> ability to sense <strong>the</strong><br />
passage of time, by training rats on a two alternative forced choice interval<br />
timing task. We can <strong>de</strong>rive quantitative <strong>de</strong>scription of animals’ interval timing<br />
abilities via <strong>the</strong> fitting of psychometric functions to <strong>the</strong>ir choice data and <strong>the</strong>n<br />
compare this to <strong>the</strong> ability of neural activity to enco<strong>de</strong> <strong>the</strong> passage of time.<br />
A tight correspon<strong>de</strong>nce between <strong>the</strong> animals’ behavioural performance and <strong>the</strong><br />
neuronal encoding of time would suggest involvement of those neural signals<br />
in <strong>the</strong> process of timing.<br />
Thiago Gouvea has <strong>de</strong>signed <strong>the</strong> behavioural apparatus, programmed <strong>the</strong> behavioural<br />
control required for <strong>the</strong> task, and has trained four animals. We will<br />
soon be initiating neural recordings during task performance.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH FELLOWS<br />
80
IMMUNE<br />
REGULATION<br />
Carlos E. Tadokoro Research Fellow<br />
PhD in Immunology, University of São Paulo, 2001<br />
Post-doctoral fellow, New York University, USA<br />
Research Fellow at <strong>the</strong> IGC since 2010<br />
link to external website<br />
The ultimate function of <strong>the</strong> immune system is to cooperate with o<strong>the</strong>r body<br />
systems in or<strong>de</strong>r to maintain homeostasis within multi-cellular organisms.<br />
To perform such a task, cells and molecules of <strong>the</strong> immune system evolved to<br />
distinguish between “self” and “non-self” molecules. We are interested in better<br />
un<strong>de</strong>rstanding <strong>the</strong> regulation that occurs insi<strong>de</strong> <strong>the</strong> immune system, focusing<br />
our attention on a particular cell type called regulatory T cell. We combine<br />
classical cellular analyses with intra-vital imaging techniques to investigate <strong>the</strong><br />
function of immune cells in tissues un<strong>de</strong>r various conditions of activation/inflammation.<br />
To this aim, we <strong>de</strong>velop surgical procedures and tools to perform<br />
<strong>the</strong>se analyses using two-photon microscopy, which allow <strong>the</strong> observation of<br />
single-cell dynamics and cell interactions as well as <strong>the</strong>ir spatial localization<br />
insi<strong>de</strong> <strong>the</strong> organs.<br />
GROUP MEMBERS<br />
Márcia M. Me<strong>de</strong>iros (Post-doc, started at November)<br />
Henrique B. Da Silva (Visiting Ph.D. Stu<strong>de</strong>nt (collaborator))<br />
Susana Caetano (Research Technician, started in September)<br />
COLLABORATORS<br />
Juan J. Lafaille (New York University, USA)<br />
Michael L. Dustin (New York University, USA)<br />
Cláudio R. F. Marinho (University of São Paulo, Brazil)<br />
Maria Regina D'Império Lima (University of São Paulo, Brazil)<br />
Ana Cláudia Zenclussen (Otto-von-Guerricke University, Germany)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
GENERATION OF NEW TRANSGENIC ANIMALS<br />
FOR in vivo TRACKING OF REGULATORY T CELLS<br />
The main objective of this project is to <strong>de</strong>velop new tools to acquire information<br />
about in vivo tracking of a specific type of cell insi<strong>de</strong> <strong>the</strong> immune system<br />
called Regulatory T Cells (Tregs). We will <strong>de</strong>velop tools to allow <strong>the</strong> in vivo<br />
cell fate mapping of Tregs insi<strong>de</strong> organs and also throughout <strong>the</strong> rest of <strong>the</strong><br />
mouse body. We will <strong>de</strong>velop new intra-vital microsurgeries, use “two-photon”<br />
microscopy, and generate new genetically engineered animals to track any cell<br />
of interest. The major challenge is no longer <strong>the</strong> microscopes used, but in <strong>the</strong><br />
<strong>de</strong>velopment of intra-vital microsurgeries that allow <strong>the</strong> exposure of internal<br />
organs with minimal or no trauma. Therefore, this project has a strong core in<br />
Research and Development (R&D). To visualise <strong>the</strong>se cells we will generate new<br />
genetically manipulated mouse lines expressing a photo-activated GFP (paGFP)<br />
un<strong>de</strong>r specific promoters and conditional transgenic mouse lines based on<br />
“Tet ON-OFF” systems.<br />
We <strong>de</strong>veloped intra-vital imaging techniques, in use by IGC groups (intra-vital<br />
imaging of placenta, used by <strong>the</strong> Disease genetics group) or international collaborators;<br />
submitted two papers: Zenclussen, A. C., et al, Clin. Invest; Silva, H.<br />
B., et al, Eur. J. Immunol.); and published two papers: Olivieri, D., et al, J. Integr.<br />
Bioinform., 2011 Sep 8(3):180).<br />
A<br />
B<br />
In vivo PICTURE OF PLACENTA BLOOD FLOW.<br />
A - Maternal blood in red and foetal blood in green, with arrow showing <strong>the</strong> region<br />
of chorionic plate. B - Higher magnification of placenta, showing <strong>de</strong>tails of chorionic<br />
plate and labyrinth zone.<br />
3D reconstruction of uterus, showing DC distribution (green), during oestrus phase<br />
of oestrus cycle.<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH FELLOWS<br />
81
EXTERNAL ASSOCIATED RESEARCH GROUPS<br />
THE FOLLOWING GROUPS DEVELOP THEIR RESEARCH AT EXTERNAL ASSOCIATED<br />
INSTITUTES AND RESEARCH CENTRES, MAINTAINING STRONG SCIENTIFIC<br />
COLLABORATIONS WITH IGC GROUPS AND ACCESS TO IGC FACILITIES<br />
GASTRULATION<br />
Centro <strong>de</strong> Biomedicina Molecular e Estrutural, Universida<strong>de</strong> do Algarve, Portugal<br />
José António Belo Principal Investigator<br />
NEOANGIOGENESIS<br />
<strong>Instituto</strong> Português <strong>de</strong> Oncologia, Lisbon, Portugal and CEDOC-Centre for Chronic<br />
Diseases, Faculda<strong>de</strong> <strong>de</strong> Ciências Médicas da Universida<strong>de</strong> Nova <strong>de</strong> Lisboa, Portugal<br />
Sérgio Dias Principal Investigator<br />
EVOLUTIONARY ECOLOGY OF MICROORGANISMS<br />
Faculda<strong>de</strong> <strong>de</strong> Ciências da Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Francisco Dionísio Principal Investigator<br />
VASCULAR DEVELOPMENT<br />
Faculda<strong>de</strong> <strong>de</strong> Medicina Veterinária, Universida<strong>de</strong> Técnica <strong>de</strong> Lisboa, Portugal<br />
António Duarte Principal Investigator<br />
SYSTEMS IMMUNOLOGY<br />
University of Vigo, Spain<br />
José Faro Principal Investigator<br />
YEAST STRESS<br />
Escola Superior <strong>de</strong> Tecnologia da Saú<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Lisete Fernan<strong>de</strong>s Principal Investigator<br />
CELLULAR IMMUNOLOGY<br />
<strong>Instituto</strong> <strong>de</strong> Medicina Molecular, Portugal<br />
Luis Graça Principal Investigator<br />
DEVELOPMENTAL BIOLOGY<br />
<strong>Instituto</strong> <strong>de</strong> Medicina Molecular, Portugal<br />
Domingos Henrique Principal Investigator<br />
TISSUE MORPHOGENESIS AND REPAIR<br />
CEDOC - Chronic Diseases, Faculda<strong>de</strong> <strong>de</strong> Ciências Médicas, Universida<strong>de</strong> Nova<br />
<strong>de</strong> Lisboa, Portugal<br />
António Jacinto Principal Investigator<br />
MALARIA<br />
<strong>Instituto</strong> <strong>de</strong> Medicina Molecular, Portugal<br />
Maria Mota Principal Investigator<br />
AZORES GENETICS<br />
Divino Espírito Santo Hospital, Azores, Portugal<br />
Luísa Mota Vieira Principal Investigator<br />
ANIMAL BEHAVIOUR<br />
<strong>Instituto</strong> Superior <strong>de</strong> Psicologia Aplicada, Portugal<br />
Rui Oliveira Principal Investigator<br />
GENOMICS OF COMPLEX DISEASES<br />
<strong>Instituto</strong> <strong>de</strong> Medicina Molecular, Portugal<br />
Sofia Oliveira Principal Investigator<br />
EMBRYONIC DEVELOPMENT OF VERTEBRATES<br />
<strong>Instituto</strong> <strong>de</strong> Medicina Molecular, Portugal<br />
Leonor Saú<strong>de</strong> Principal Investigator<br />
MOLECULAR IMMUNOLOGY<br />
<strong>Instituto</strong> <strong>de</strong> Medicina Molecular, Portugal<br />
Bruno Silva Santos Principal Investigator<br />
VIRAL PATHOGENESIS<br />
<strong>Instituto</strong> <strong>de</strong> Medicina Molecular, Portugal<br />
João Pedro Simas Principal Investigator<br />
IGC ANNUAL REPORT ‘11<br />
EXTERNAL GROUPS<br />
82
STRESS AND CYTOSKELETON<br />
Escola Superior <strong>de</strong> Tecnologia da Saú<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Helena Soares Principal Investigator<br />
DEVELOPMENT AND EVOLUTIONARY MORPHOGENESIS<br />
Faculda<strong>de</strong> <strong>de</strong> Ciências da Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Solveig Thorsteinsdóttir Principal Investigator<br />
HUMAN MOLECULAR GENETICS AND FUNCTIONAL ANALYSIS UNIT<br />
<strong>Instituto</strong> Nacional <strong>de</strong> Saú<strong>de</strong> Dr. Ricardo Jorge, Lisbon, Portugal<br />
Astrid Vicente Principal Investigator<br />
IGC ANNUAL REPORT ‘11<br />
EXTERNAL GROUPS<br />
83
FACILITIES<br />
AND SERVICES<br />
IGC ANNUAL REPORT ‘11<br />
FACILITIES AND SERVICES<br />
84
ANIMAL<br />
FACILITIES<br />
Jocelyne Demengeot Head<br />
PhD in Cellular and Molecular Biology, Université AIX-MARSEILLE II, 1989<br />
PI of Lymphocyte Physiology Group<br />
Head of Animal Facilities since 2002<br />
The Animal House Facility is organised into several areas, specifically prepared<br />
for each mo<strong>de</strong>l organism hosted at <strong>the</strong> IGC.<br />
RODENT FACILITY<br />
The facility consists of five in<strong>de</strong>pen<strong>de</strong>nt units: a production facility, two experimental<br />
areas, a quarantine and a germ-free facility, which is part of <strong>the</strong> European<br />
Mouse Mutant Archive (EMMA) consortium. In 2011, <strong>the</strong> Facility hosted over<br />
150 mouse strains, 2 rat strains and was used by 23 research groups.<br />
FISH FACILITY<br />
The facility has a quarantine and a production/experimental area. It inclu<strong>de</strong>s a<br />
behaviour room and a microinjection room. In 2011 it hosted 22 zebrafish lines<br />
and provi<strong>de</strong>d services to seven research groups.<br />
FLY FACILITY<br />
The facility hosts thousands of mutant lines. It is composed of several walk-in<br />
chambers, a food preparation room, two procedure labs and a quarantine area.<br />
In 2011, nine research groups used this facility.<br />
FACILITY STAFF<br />
Manuel Rebelo, PhD (Manager)<br />
Ana Mena, PhD (Animal Research Project Officer)<br />
Joana Bom (Technician)<br />
Ana Sofia Leocádio (Technician)<br />
Maysa Franco (Technician)<br />
Ana Maria Ramos (Technician)<br />
Carlos Pires (Caretaker in charge of Production Unit)<br />
Samira Varela (Caretaker in charge of E0 Unit)<br />
Graça Ramalho (Caretaker in charge of E1 Unit)<br />
João Lopes (Caretaker in charge of Quarantine Unit)<br />
Eusébia Varela (Caretaker)<br />
Cláudia Gafaniz (Caretaker)<br />
Autelinda Costa (Caretaker)<br />
Olinda Queirós (Caretaker)<br />
Luís Arroja (Caretaker)<br />
Jelskey Gomes (Caretaker)<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Talk for stu<strong>de</strong>nts, IGC and Oeiras (January, June, October)<br />
Speed-dating at OptimusAlive! Music Festival, Oeiras (July)<br />
FROG FACILITY<br />
The facility has an aquatic habitat system and a bench for experimental work. In<br />
2011, <strong>the</strong> facility was used by one research group.<br />
MAJOR PROJECTS AND ACCOMPLISHMENTS<br />
The EU-FP7 Infrafrontier consortium aims at building a world-class research<br />
infrastructure for mutant mouse analysis and archiving that provi<strong>de</strong>s <strong>the</strong> biomedical<br />
research community with <strong>the</strong> tools nee<strong>de</strong>d to unravel <strong>the</strong> role of gene<br />
function in human disease. The grant supported <strong>the</strong> improvement of our legal<br />
status, for all issues related to vertebrate experimental mo<strong>de</strong>ls. It also allowed<br />
<strong>the</strong> Facility manager to visit several state-of-<strong>the</strong>-art facilities, for technical and<br />
managerial exchanges.<br />
EU-FP7 European Mouse Mutant Archive (EMMA) is a not-for-profit repository<br />
for <strong>the</strong> collection, archiving (via cryopreservation) and distribution of mutant<br />
mouse strains used in basic biomedical research. The laboratory mouse is <strong>the</strong><br />
main mammalian mo<strong>de</strong>l for genetic and multi-factorial human diseases. EMMA<br />
plays a crucial role in exploiting <strong>the</strong> tremendous potential benefits of current<br />
research in mammalian genetics to human health. This grant maintains a stateof-<strong>the</strong>-art<br />
germ-free facility, used by European and IGC researchers.<br />
EQUIPMENT AND INFRASTRUCTURE<br />
RODENT FACILITY:<br />
• 7 autoclaves;<br />
• 15 IVCs (Isolated Ventilated Cages) rack system;<br />
• 6 Germ-Free Isolators;<br />
• 1 osmosis reverse system;<br />
• 1 vapor-phase hydrogen peroxi<strong>de</strong> <strong>de</strong>contamination system;<br />
• 1 transfer and <strong>de</strong>contamination chamber;<br />
• 1 animal transfer chamber.<br />
Funding Calouste <strong>Gulbenkian</strong> Foundation and EU-FP7 EMMA<br />
IGC ANNUAL REPORT ‘11<br />
FACILITIES AND SERVICES<br />
85
FLY FACILITY:<br />
• 18 work stations with CO2 output pedal system;<br />
• 2 working stations with CO2 output flow buddy system;<br />
• 1 microinjector;<br />
• 1 boiling pan for food preparation, 80L capacity;<br />
• 2 food dispensers;<br />
• 2 heat shock baths.<br />
Incubators:<br />
• 1 room 25ºC<br />
• 1 room 18ºC<br />
• 1 behaviour room 25ºC<br />
• 3 incubators 25ºC<br />
Funding Calouste <strong>Gulbenkian</strong> Foundation, Portugal<br />
FISH FACILITY:<br />
• 1 ZebTEC system with 6 racks, total capacity of 300 tanks (3.5L);<br />
• 1 Zebrafish system for Quarantine, capacity for 126 tanks (3.5L);<br />
• 2 microinjectors;<br />
• 2 microscopes;<br />
• 2 incubators 28ºC.<br />
Funding Calouste <strong>Gulbenkian</strong> Foundation, Portugal<br />
The Animal Facilities inclu<strong>de</strong> state-of-<strong>the</strong>-art services and equipment for mouse<br />
(including a germ-free facility shown), fish and Drosophila, used by over 35 research<br />
groups, including several external groups associated to <strong>the</strong> IGC.<br />
IGC ANNUAL REPORT ‘11<br />
FACILITIES AND SERVICES<br />
86
TRANSGENICS<br />
UNIT<br />
Moisés Mallo Head<br />
PhD in Molecular Biology, University of Santiago <strong>de</strong> Compostela, Spain, 1991<br />
PI of <strong>the</strong> Patterning and Morphogenesis Group<br />
Head of Facility since 2001<br />
The Transgenics Unit is <strong>the</strong> gene manipulation unit. The unit provi<strong>de</strong>s transgenic<br />
services to research staff. Both classic transgenics, by pronuclear microinjection,<br />
and gene targeting, by blastocyst injection of embryonic ES cells, are<br />
offered as a service. The unit also offers <strong>the</strong> cryopreservation of embryos for<br />
long-term storage.<br />
FACILITY STAFF<br />
Ana Nóvoa (Research Technician)<br />
MAJOR PROJECTS AND ACCOMPLISHMENTS<br />
The work of <strong>the</strong> unit during 2011 mostly involved <strong>the</strong> genesis of transgenic mice<br />
by pronuclear DNA injection. Most transgenics were produced by microinjection<br />
into <strong>the</strong> FVB/N background. This year, we produced transgenic lines from<br />
four different constructs. One of <strong>the</strong>m was a BAC reporter. The o<strong>the</strong>r three<br />
generated tools for conditional inactivation studies in meso<strong>de</strong>rmal <strong>de</strong>rivatives<br />
and for labelling embryonic muscle precursors with fluorescent proteins to allow<br />
<strong>the</strong>ir isolation from <strong>the</strong> living embryo using cell sorting approaches. The<br />
rest of <strong>the</strong> transgenic production was not aimed at generating transgenic lines<br />
because transgene expression resulted in embryonic lethal phenotypes. Therefore,<br />
<strong>the</strong>se injections were <strong>de</strong>signed for studies using a transient transgenic<br />
approach. During this year, we created transgenic embryos from more than 20<br />
different constructs, including two different BACs. Similar to previous years, <strong>the</strong><br />
transgenic efficiency was kept high, being around 30% for normal transgenics<br />
and 17% for transgenics injecting BAC constructs. The transgenic unit also produced<br />
four chimeric mice from one strain of ES-cells by injection into C57BL/6<br />
blastocysts. All <strong>the</strong>se animals contained higher than 70% chimerism.<br />
EQUIPMENT AND INFRASTRUCTURE<br />
• 1 Microinjection setup with Nikon inverted microscope equipped with DIC<br />
optics, and three dimensional Narishige micromanipulators;<br />
• 1 Microinjection setup with Leica inverted microscope equipped with DIC<br />
optics, and three dimensional, power assisted, Narishige micromanipulators;<br />
• 2 FemtoJet pump;<br />
• 1 Sutter P-87 Flaming/Brown micropipette puller;<br />
• 1 Zeiss SV6 Stereomicroscope with training head;<br />
• 2 Standard Zeiss SV6 Stereomicroscopes;<br />
• 1 CO2 incubator;<br />
• 1 Ultrasonic Cleaning Device.<br />
Funding Calouste <strong>Gulbenkian</strong> Foundation and Fundação para a Ciência e a<br />
Tecnologia, Portugal<br />
TwoCellEmbryos - Mouse embryos at <strong>the</strong> two-cell stage.<br />
IGC ANNUAL REPORT ‘11<br />
FACILITIES AND SERVICES<br />
87
PLANT<br />
FACILITY<br />
Paula Duque<br />
Elena Baena-González<br />
José Feijó<br />
Jorg Becker<br />
Users<br />
The Plant Facility at <strong>the</strong> IGC ensures <strong>the</strong> growth and maintenance of Arabidopsis<br />
thaliana plants, <strong>the</strong> mo<strong>de</strong>l organism used by <strong>the</strong> plant research groups hosted<br />
by <strong>the</strong> Institute. The facility consists of a custom-built greenhouse with lighting<br />
control and temperature regulation and three custom-ma<strong>de</strong> fully controlled<br />
growth chambers with short day, long day and continuous light settings, as well<br />
as a walk-in plant growth room and three small reach-in chambers that allow <strong>the</strong><br />
performance of cell-based assays and more precise phenotypical analyses. Four<br />
research groups (Plant Molecular Biology, Plant Stress Signalling, Cell Biophysics<br />
and Development, and Plant Genomics) make use of <strong>the</strong> IGC Plant Facility as<br />
<strong>the</strong>y all use Arabidopsis as a mo<strong>de</strong>l system in <strong>the</strong>ir experimental work.<br />
FACILITY STAFF<br />
Vera Nunes (Technician)<br />
EQUIPMENT AND INFRASTRUCTURE<br />
• 1 Walk-in Chamber (Aralab 10.000 EH 2009);<br />
• 2 Reach-in Chambers (Aralab S600PLH);<br />
• 1 Reach-in Chamber (Aralab D1200PL);<br />
Funding Calouste <strong>Gulbenkian</strong> Foundation, Portugal<br />
Reach-in chamber for cell-based assays and phenotypic analyses.<br />
B<br />
Walk-in plant growth room with Arabidopsis thaliana cultures.<br />
One of <strong>the</strong> three custom-built fully-controlled growth chambers.<br />
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FACILITIES AND SERVICES<br />
88
CELL IMAGING<br />
UNIT<br />
José Feijó Head<br />
PhD in Cell Biology, Universida<strong>de</strong> <strong>de</strong> Lisboa, 1995<br />
PI of Cell Biophysics and Development Group<br />
Head of Facility since 2003<br />
link to facility website<br />
The main goal of <strong>the</strong> Cell Imaging Unit is to provi<strong>de</strong> access to high-end technology<br />
and cutting-edge technical support for bioscience research. We provi<strong>de</strong><br />
a unique facility that allows ready access to a wi<strong>de</strong> range of technologies and<br />
expertise in an integrated manner that helps drive research forward efficiently.<br />
The unit currently stands as an international reference laboratory for confocal<br />
and multi-photon microscopy, as well as for high-throughput cell sorting.<br />
The unit is well equipped, with two cell sorters, three confocal microscopes,<br />
a DeltaVision <strong>de</strong>convolution microscope system and two multi-photon microscopes,<br />
besi<strong>de</strong>s a dozen more subsidiary and custom-ma<strong>de</strong> pieces of equipment.<br />
Researchers are trained through regular workshops on basic and advanced light<br />
microscopy techniques as well as in flow cytometry and image acquisition software.<br />
Technical assistance is available when necessary to ensure collection of<br />
high quality images and analysis of data. All users receive basic training in <strong>the</strong><br />
systems in use, in troubleshooting, and advice on experimental <strong>de</strong>sign. We have<br />
<strong>de</strong>veloped a strong and broad base of users and continue to train new users.<br />
Because microscopy is currently in high <strong>de</strong>mand and new systems and techniques<br />
are continuously being <strong>de</strong>veloped to meet increasing scientific needs, we try to<br />
expand <strong>the</strong> facilities, to keep accessibility problems low, and introduce <strong>the</strong> latest<br />
innovations (in microscopy and flow cytometry) to <strong>the</strong> research community.<br />
FACILITY STAFF<br />
Carlos Tadokoro (Multi-photon Microscopy Applications Manager /<br />
Research Fellow)<br />
Rui Gardner (Flow Cytometry Lab Manager)<br />
Nuno Moreno (General Coordinator Microscopy)<br />
Telma Lopes (Technician - Cell Sorting)<br />
Francisco Henrique (Technician - Microscopy)<br />
Pedro Almada (Technician - Microscopy)<br />
MAJOR PROJECTS AND ACCOMPLISHMENTS<br />
INTEGRATION OF A SCREENING MICROSCOPE<br />
This microscope is fully automated and works with open source software, being<br />
a good platform for on-<strong>the</strong>-fly analysis. The equipment uses fast filter wheels<br />
and shutters which, toge<strong>the</strong>r with a sensitive CCD camera, enable three colour<br />
images in a 96 well plate in few minutes. For now, it has been used for automatic<br />
stitching, producing images of full brain mice or fish slices.<br />
UPGRADE OF MULTIPHOTON MICROSCOPY SYSTEM<br />
The installation of a Prairie Ultima multiphoton microscope procee<strong>de</strong>d, with<br />
individual user training being provi<strong>de</strong>d. A gui<strong>de</strong>book for correct use of this<br />
microscope was <strong>de</strong>veloped, and technical support for microscope adjustment<br />
to individual scientific projects (different types of samples) was carried out.<br />
EQUIPMENT AND INFRASTRUCTURE<br />
INSPECTION WIDE-FIELD LIGHT MICROSCOPES<br />
• Olympus BH2;<br />
• Olympus IMT-2;<br />
• Leica DMLB2.<br />
RESEARCH WIDEFIELD LIGHT MICROSCOPES<br />
• Leica inverted DMIRE2;<br />
• Leica upright DMRA2;<br />
• Zeiss AxioImager M1.<br />
Funding Calouste <strong>Gulbenkian</strong> Foundation and Fundação para a Ciência e a Tecnologia,<br />
Portugal<br />
CONFOCAL MICROSCOPES<br />
• Leica SP5 (with resonant fast scanhead);<br />
• Zeiss LSM 510 (with Meta <strong>de</strong>tector);<br />
• Andor Spinning disk (with EM-CCD intensified camera).<br />
Funding Calouste <strong>Gulbenkian</strong> Foundation, Fundação para a Ciência e a Tecnologia<br />
(FCT), Portugal, European Molecular Biology Organisation (EMBO).<br />
TwoCellEmbryos - Mouse embryos at <strong>the</strong> two-cell stage.<br />
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FACILITIES AND SERVICES<br />
89
MULTIPHOTON<br />
• Bio-Rad MRC 1024 with Coherent Mira-Verdi laser system;<br />
• Prairie TPE microscope with Coherent Chameleon laser system (with double<br />
scanhead, can take <strong>the</strong> two lasers for simultaneous excitation/imaging).<br />
Funding Calouste Gubenkian Foundation<br />
FLOW CYTOMETRY<br />
• Cell Sorters;<br />
• MoFlo;<br />
• FACSAria.<br />
Funding Calouste <strong>Gulbenkian</strong> Foundation and Fundação para a Ciência e a<br />
Tecnologia, Portugal<br />
ANALYSERS<br />
• FACSCan;<br />
• FACSCalibur;<br />
• CyAn ADP (3 lasers, 9 fluo-<strong>de</strong>tectors) Beckman Coulter.<br />
Funding Calouste <strong>Gulbenkian</strong> Foundation and Fundação para a Ciência e a<br />
Tecnologia, Portugal<br />
IGC ANNUAL REPORT ‘11<br />
FACILITIES AND SERVICES<br />
90
GENOMICS<br />
UNIT<br />
Carlos Penha Gonçalves Head<br />
PhD in Immunology, University of Umea, 1999<br />
PI of Disease Genetics Group<br />
Head of Facility since 2003<br />
The Unit provi<strong>de</strong>s technological support and expertise for research at <strong>the</strong> genome<br />
scale and is composed by <strong>the</strong> Sequencing and Genotyping Services.<br />
The Sequencing Service offers DNA sequencing and fragment analysis using<br />
multicapillary with automatic sequencer ABI 3130XL. Taqman® Technology in<br />
a 384-well format is also available to users both for SNP genotyping and Real-<br />
Time PCR gene expression with 7900 HT Fast Real-Time PCR System.<br />
FACILITY STAFF<br />
Maria Isabel Marques (Senior Laboratory Manager)<br />
João Costa (Genotyping Research Assistant)<br />
Susana La<strong>de</strong>iro (Sequencing Research Assistant)<br />
The Genotyping Service offers <strong>the</strong> Sequenom iPLEX technology, allowing rapid<br />
SNP genotyping assays with up to forty SNPs assayed simultaneously. The facility<br />
collaborates with researchers on: SNP choice and SNP Assay Design, Sequenom<br />
Procedure and Data Management for Genetic Studies, providing access to<br />
<strong>the</strong> BC/GENE interface software.<br />
MAJOR PROJECTS AND ACCOMPLISHMENTS<br />
GROUPS USING THE SEQUENCING SERVICE<br />
• DNA Sequencing: Thirty in-house, five IGC associated groups and one non<br />
IGC-associated groups used <strong>the</strong> ABI 3130XL Sequencing Service, with a total<br />
of 11,880 samples sequenced between January and December 2011;<br />
• Fragment Analysis/MIRUS: Four in-house groups used <strong>the</strong> ABI 3130XL Sequencing<br />
Service with a total of 4,476 samples;<br />
• Fast Real-Time PCR System: Twelve in-house, two IGC associated and three<br />
non IGC-associated groups used 7900 HT on a regular basis (a total of<br />
1,062 hours), to <strong>de</strong>tect gene expression of several genes, on 20 different<br />
projects.<br />
GROUPS USING THE GENOTYPING SERVICE<br />
Eleven internal, two IGC associated groups and seven non IGC-associated<br />
groups used <strong>the</strong> Genotyping Service in 2011.<br />
A total number of 1,282,560 SNP genotypes were produced between January<br />
2010 and January 2011.<br />
EQUIPMENT AND INFRASTRUCTURE<br />
THE UNIT IS EQUIPPED WITH<br />
• 2 robotic pipetting <strong>de</strong>vices, robot PlateMate 2x2 (Matrix);<br />
• 5 <strong>the</strong>rmocycling machines - ABI 9700 equipped with 2x384 blocks;<br />
• 1 Chip spotting robot (MassARRAY, Nanodispenser);<br />
• 1 SNP <strong>de</strong>tection, MALDI-TOF technology - MassARRAY Compact (Sequenom);<br />
• 1 ABI 3130XL;<br />
• 1 7900 HT Fast Real-Time PCR.<br />
Funding Fundação para a Ciência e a Tecnologia, Portugal<br />
External<br />
26%<br />
Internal<br />
52%<br />
IGC External<br />
26%<br />
Use of genotyping facility in 2011.<br />
IGC ANNUAL REPORT ‘11<br />
FACILITIES AND SERVICES<br />
91
GENE EXPRESSION<br />
UNIT<br />
Jörg Becker Head<br />
PhD in Biology, University of Bielefeld, Germany, 2001<br />
Research Fellow - Plant Genomics Group<br />
Head of Facility since 2008<br />
The Gene Expression Unit provi<strong>de</strong>s DNA microarray services, ranging from experimental<br />
<strong>de</strong>sign over complete sample processing to expert advice on data<br />
analysis. We have been an Affymetrix Core Lab with reference status for Gene-<br />
Chip technology in Portugal since 2002. Running a total of 339 microarrays we<br />
have contributed to 32 in-house, national and international projects in 2011<br />
alone.<br />
FACILITY STAFF<br />
Júlia Lobato (Technician)<br />
João Sobral (Technician, started in October)<br />
SERVICES INCLUDE:<br />
• Gene Expression Profiling (3’ IVT, Gene and Exon arrays);<br />
• Genotyping, Cytogenetics (500K array set and SNP 6.0 array);<br />
• Custom array projects;<br />
• RNA and DNA quality analyses (Bioanalzyer);<br />
• Data analysis training (dChip and Chipster).<br />
MAJOR PROJECTS AND ACCOMPLISHMENTS<br />
• Training SNP6 Cytogenetics (5 SNP6 Genotyping arrays for Gene Expression<br />
Unit);<br />
• Sperm Transcriptome (4 Drosophila arrays for Plant Genomics lab);<br />
• NKTreg (5 Mouse arrays (Cellular Immunology lab for IGC associated group<br />
at IMM);<br />
• Myc Factor (1 Medicago arrays for Institute for Plant Genetics, Leibniz University<br />
Hanover, Germany);<br />
• AGP mutant pollen (6 Arabidopsis arrays for Department of Botany, Faculda<strong>de</strong><br />
<strong>de</strong> Ciências da Universida<strong>de</strong> do Porto, Portugal);<br />
• Cholesterol and Metastasis (6 Human arrays for Centro <strong>de</strong> Investigação <strong>de</strong><br />
Patobiologia Molecular, Lisbon);<br />
• Zinc Finger (3 Human arrays for Faculty of Pharmacy, University of Lisbon);<br />
• Chein Myf5 (2 Mouse Tiling arrays for Patterning and Morphogenesis lab);<br />
• Leukemia (16 human arrays for IGC associated group at IMM);<br />
• Retinoic Acid in Enteric Lymphoid Organogenesis (8 Mouse arrays for IGC<br />
associated group at IMM);<br />
• Drg11 (20 Mouse arrays for Department of Experimental Biology, Faculda<strong>de</strong><br />
<strong>de</strong> Medicina da Universida<strong>de</strong> do Porto);<br />
• Xspecies (4 Burkhol<strong>de</strong>ria arrays for Biological Sciences Research Group,<br />
<strong>Instituto</strong> Superior Técnico, Lisbon);<br />
• SNP6 Genotyping (3 SNP6 Genotyping arrays for Department of Genetics,<br />
<strong>Instituto</strong> Nacional <strong>de</strong> Saú<strong>de</strong> Dr. Ricardo Jorge, Lisbon);<br />
• Small RNAs (15 Arabidopsis arrays for Oeiras Summer Schools in Evolutionary<br />
Biology, IGC);<br />
• Ontogeny vs. Phylogeny (15 Mouse arrays for Oeiras Summer Schools in<br />
Evolutionary Biology, IGC);<br />
• Regeneration in <strong>de</strong>nervated fins (16 zebrafish arrays for IGC associated<br />
group at IMM);<br />
• Zymosan treatment (12 Anopheles/Plasmodium arrays for UEI Parasitologia<br />
Médica, <strong>Instituto</strong> <strong>de</strong> Higiene e Medicina Tropical, Lisbon);<br />
• Stem cell differentiation (2 Human arrays for Department of Medical Genetics,<br />
Faculda<strong>de</strong> <strong>de</strong> Medicina da Universida<strong>de</strong> do Porto);<br />
• Dis <strong>de</strong>lta phenotype (6 Yeast arrays for Control of Gene Expression Lab, ITQB);<br />
• BolA overexpression (6 E.coli arrays for Control of Gene Expression Lab, ITQB);<br />
• NeoSuc clinical trial (34 human arrays for Computational Genomics Group, IGC);<br />
• Cytogenetics (2 Cyto 2.7M arrays for Department of Genetics, <strong>Instituto</strong> Nacional<br />
<strong>de</strong> Saú<strong>de</strong> Dr. Ricardo Jorge, Lisbon);<br />
• Variants (12 Burkhol<strong>de</strong>ria arrays for Biological Sciences Research Group,<br />
<strong>Instituto</strong> Superior Tecnico, Lisbon);<br />
• LMD Myc (5 Medicago arrays for Institute for Plant Genetics, Leibniz University<br />
Hanover, Germany);<br />
B<br />
Fluidics station for staining and washing up to 4 GeneChips in parallel.<br />
Pseudo-coloured image of a GeneChip array after scanning, showing different signal<br />
intensities <strong>de</strong>pending on <strong>the</strong> expression level of <strong>the</strong> correspon<strong>de</strong>nt transcripts.<br />
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FACILITIES AND SERVICES<br />
92
• Low noise (6 Rat arrays for <strong>Instituto</strong> Superior Ciências da Saú<strong>de</strong> Egas Moniz,<br />
Lisbon);<br />
• Forest Biotech (12 Poplar arrays for Forst Biotech group, IBET);<br />
• Malaria lipids (3 Mouse arrays for IGC associated group at IMM);<br />
• SMc3169 (6 Medicago arrays for Biological Sciences Research Group, <strong>Instituto</strong><br />
Superior Tecnico, Lisbon);<br />
• Breast Cancer (4 Human arrays for Centro <strong>de</strong> Investigação <strong>de</strong> Patobiologia<br />
Molecular, Lisbon);<br />
• FuncGrape (32 Vitis vinifera arrays for Genomics and Plant Breeding, <strong>Instituto</strong><br />
Superior <strong>de</strong> Agronomia, Lisbon);<br />
• GWAS Behcet (16 SNP6 Genotyping arrays for IGC associated group at IMM);<br />
• HIV (3 Human arrays for Infections and Immunity group, IGC).<br />
EQUIPMENT AND INFRASTRUCTURE<br />
• Scanner 3000 7G with Autoloa<strong>de</strong>r;<br />
• Fluidics Station 450;<br />
• Hybridization Oven 640;<br />
• Bioanalyzer 2100.<br />
Funding Fundação para a Ciência e a Tecnologia, Portugal<br />
IGC ANNUAL REPORT ‘11<br />
FACILITIES AND SERVICES<br />
93
HISTOPATHOLOGY<br />
UNIT<br />
Miguel P. Soares Head<br />
PhD in Science, University of Louvain, Belgium, 1995<br />
PI of Inflammation Group<br />
Head of Facility since 2011<br />
The Histopathology Unit provi<strong>de</strong>s a wi<strong>de</strong> range of services related to tissue<br />
preparation. These inclu<strong>de</strong> collection, fixation, processing, embedding, sectioning<br />
and staining of animal tissue samples. The unit also provi<strong>de</strong>s microscopy<br />
assistance as well as training to new users in sample preparation and sectioning.<br />
FACILITY STAFF<br />
Ana Margarida Santos (Technician, left in October)<br />
Joana Rodrigues (Technician)<br />
EQUIPMENT AND INFRASTRUCTURE<br />
• Tissue processor: takes <strong>the</strong> fixed tissues through a series of gra<strong>de</strong>d alcohol<br />
baths, to <strong>de</strong>hydrate, <strong>the</strong>n into xylene and finally paraffin will penetrate <strong>the</strong><br />
tissues;<br />
• Paraffin embedding station and water bath: used to effect <strong>the</strong> paraffin<br />
inclusion of cytological and histological samples;<br />
• Microtome: sectioning instrument that allows for <strong>the</strong> cutting of extremely<br />
thin slices of material. These sections are <strong>the</strong>n observed un<strong>de</strong>r transmitted<br />
light. Steel bla<strong>de</strong>s are used to prepare sections of animal or plant tissues<br />
for light microscopy histology. Microtome sections have thickness between<br />
0.05 and 10 µm;<br />
• Cryostat: <strong>de</strong>vice used to maintain cold cryogenic temperatures of samples<br />
and to cut histological sli<strong>de</strong>s from samples fixed and frozen in OCT;<br />
• Vibratome: similar to a microtome but uses a vibrating razor bla<strong>de</strong> to cut<br />
through tissue. The vibration amplitu<strong>de</strong>, <strong>the</strong> speed, and <strong>the</strong> angle of <strong>the</strong><br />
bla<strong>de</strong> can all be controlled. Fixed or fresh tissue pieces are embed<strong>de</strong>d in<br />
low gelling temperature agarose. The resulting agarose block containing<br />
<strong>the</strong> tissue piece is <strong>the</strong>n glued to a metal block and sectioned while submerged<br />
in a water or buffer bath. Individual sections are <strong>the</strong>n collected<br />
with a fine brush and transferred to sli<strong>de</strong>s or multiwell plates for staining.<br />
Funding Calouste <strong>Gulbenkian</strong> Foundation, Portugal<br />
B<br />
HYALINE CARTILAGE.<br />
Hyaline cartilage, mouse. Luxol fast blue (400x).<br />
OVARIAN METASTASIS.<br />
Ovarian mestastasis of breast cancer, mouse. Hematoxylin and eosin (200x).<br />
IGC ANNUAL REPORT ‘11<br />
FACILITIES AND SERVICES<br />
94
ION DYNAMICS<br />
FACILITY<br />
Ana Catarina Certal Head (until May 2011)<br />
José Feijó Head (from June 2011)<br />
PhD in Cell Biology, Universida<strong>de</strong> <strong>de</strong> Lisboa<br />
Post-doc at IGC (C. Certal)<br />
PI of Cell Biophysics and Development (J. Feijó)<br />
Head of Facility since 2010<br />
The Ion Dynamics Facility provi<strong>de</strong>s researchers with non-invasive technology for<br />
measuring electric currents and specific ion fluxes in biological systems. We are<br />
equipped with a Scanning Voltage Probe (SVET) and three Ion-Specific Probes<br />
(SIET), all from Applicable Electronics. Both probes are set-up in inverted fluorescence<br />
microscopes with high-resolution CCD cameras allowing <strong>the</strong> coupling<br />
of real-time electrophysiological measurements with intracellular ion imaging.<br />
In close collaboration with <strong>the</strong> Cell Imaging Unit, we also provi<strong>de</strong> assistance and<br />
advice for advanced ion imaging using both commercial dyes or genetically-enco<strong>de</strong>d<br />
ion probes. At present we have several projects being <strong>de</strong>veloped in plant<br />
<strong>de</strong>velopment (pollen tube growth), fly <strong>de</strong>velopment (drosophila oogenesis) and<br />
vertebrate organogenesis (zebrafish fin regeneration).<br />
FACILITY STAFF<br />
Teresa Gomes (Research Technician)<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Talks for school stu<strong>de</strong>nts, IGC (April, October, December)<br />
MAJOR PROJECTS AND ACCOMPLISHMENTS<br />
ION DYNAMICS DURING DROSOPHILA OOGENESIS I<br />
In Drosophila <strong>the</strong> establishment of both <strong>the</strong> anterior-posterior and dorsal-ventral<br />
axes of <strong>the</strong> embryo <strong>de</strong>pends on signalling provi<strong>de</strong>d by <strong>the</strong> Tgfa-like ligand<br />
Gurken (Grk). When <strong>the</strong> oocyte nucleus lies close to <strong>the</strong> posterior pole of <strong>the</strong><br />
oocyte, an unknown signal leads to <strong>the</strong> repolarisation of <strong>the</strong> oocyte cytoskeleton.<br />
As a consequence, <strong>the</strong> oocyte nucleus migrates to an anterior cortical<br />
position where EGF signalling leads to <strong>the</strong> differentiation of <strong>the</strong> follicle cells<br />
establishing DV polarity. Ion currents have been associated with processes that<br />
contribute to <strong>the</strong> establishment of polarity in several biological systems. The<br />
aim of this project is to <strong>de</strong>termine if ion dynamics contribute to microtubule repolarisation<br />
in Drosophila early <strong>de</strong>velopment. Both <strong>the</strong> SIET technique to measure<br />
ion fluxes and <strong>the</strong> SVET technique to measure total current are being used<br />
in a histone-GFP line, on egg chambers during stages 4, 5 and 6 of oogenesis.<br />
ION DYNAMICS DURING DROSOPHILA OOGENESIS II<br />
With <strong>the</strong> results from <strong>the</strong> project <strong>de</strong>veloped by <strong>the</strong> group of Evolution and<br />
Development we are measuring ion fluxes in 3 lines of histone-GFP Gurken mutant<br />
egg chambers during stages 4, 5 and 6. Both techniques are used, SIET to<br />
measure <strong>the</strong> ion fluxes and SVET to measure total current.<br />
Ion dynamics as part of <strong>the</strong> regeneration mechanism of complex organs in vertebrates.<br />
It has long been known that endogenous electric currents and electric<br />
fields are important for vertebrate organ regeneration. Never<strong>the</strong>less, many<br />
questions remain:<br />
1. What is <strong>the</strong> ion nature of <strong>the</strong>se currents?;<br />
2. How is cellular ion dynamics during <strong>the</strong> regeneration process?;<br />
3. Which are <strong>the</strong> molecular signalling pathways that transduce electric cues<br />
into cellular responses?<br />
We use zebrafish caudal fins as an adult regeneration mo<strong>de</strong>l in vertebrates. Our<br />
approach couples specific extracellular ion flux measurements, carried out using<br />
a non-invasive Scanning Ion-Specific Electro<strong>de</strong> Technique (SIET), with transcriptional<br />
profiling and genetic functional analysis.<br />
Using SIET we <strong>de</strong>tected dynamic fluxes for potassium (K+), calcium (Ca2+), chlori<strong>de</strong><br />
(Cl-) and proton (H+) at different stages of <strong>the</strong> regeneration process. We<br />
are now looking for candidate genes encoding transporters that mediate such<br />
ion-specific fluxes. Microarray analysis revealed <strong>the</strong> proton pump V-ATPase as a<br />
putative mediator of H+ fluxes. We are validating <strong>the</strong>se data with both genetic<br />
and pharmacological approaches, as well as advanced ion imaging. Overall, our<br />
results suggest tightly-regulated ion-driven phenomena as part of <strong>the</strong> mechanism<br />
of adult tissue regeneration.<br />
IGC ANNUAL REPORT ‘11<br />
FACILITIES AND SERVICES<br />
95
EQUIPMENT AND INFRASTRUCTURE<br />
• Two Ion-Specific Probe (SIET) setups coupled with an inverted fluorescence<br />
microscope (Nikon). SIET is equipped with a IPA-2 Ion/Polarographic<br />
Amplifier and Computerised Motion Control (CMC-4), all from Applicable<br />
Electronics, LLC. A Hamamatsu Camera controller and an illumination system<br />
by Lambda DG-4 provi<strong>de</strong> image acquisition. (Funding: Fundação para a<br />
Ciência e a Tecnologia, Portugal; Fundação Calouste <strong>Gulbenkian</strong>, Portugal);<br />
• ASIET setup coupled with a zoom scope imaging unit. The SIET comprises<br />
an IPA-2 Ion/Polarographic Amplifier and Computerised Motion Control<br />
(CMC-4), all from Applicable Electronics. (Funding: FP6 Network of Excellence<br />
"Cells into Organs", European Commission);<br />
• A Scanning Voltage Probe (SVET) coupled with an inverted microscope<br />
(Nikon) equipped with a Phase Sensitive Detector Amplifier - 2 channel<br />
(PSDA-2), a Computerized Motion Control (CMC-4), all from Applicable Electronics,<br />
LLC. A Minicamera UK-1117-M CCD ensures image acquisition.<br />
Funding Calouste <strong>Gulbenkian</strong> Foundation, Portugal<br />
IGC ANNUAL REPORT ‘11<br />
FACILITIES AND SERVICES<br />
96
BIOINFORMATICS<br />
AND COMPUTATIONAL<br />
BIOLOGY UNIT<br />
José Pereira Leal Head<br />
PhD in Biomedical Sciences, Universida<strong>de</strong> do Porto, Portugal, 2001<br />
PI of Computational Genomics Group<br />
Head of Facility since 2006<br />
link to unit website<br />
The unit´s mission is to promote <strong>the</strong> use of computational methods in biological<br />
research, through training and <strong>de</strong>velopment of resources and materials:<br />
• Support <strong>the</strong> graduate programmes of <strong>the</strong> Oeiras Associated Laboratory (LAO);<br />
• Provi<strong>de</strong> technical and scientific direct user support in biological data analysis<br />
using computational methods;<br />
• Conduct research and <strong>de</strong>velopment in bioinformatics, in particular in dataflow,<br />
data warehousing and data analysis, supporting <strong>the</strong> LAO;<br />
• Provi<strong>de</strong> a computing infrastructure suited for biocomputing;<br />
• Collaborate with middle and high schools producing bioinformatics activities<br />
and introducing teachers and stu<strong>de</strong>nts to new methods of learning<br />
biology.<br />
FACILITY STAFF<br />
Maria Isabel Marques (Senior Bioinformatics Specialist)<br />
Paulo Almeida (Systems administrator & Programmer)<br />
Renato Alves (Systems administrator & Programmer)<br />
Isabel Neves (Researcher)<br />
Patrícia Soares (Programmer)<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Talks for school stu<strong>de</strong>nts (Loures)<br />
Seminars for high-school teachers, Biology in Mo<strong>de</strong>rn Times series, IGC, July<br />
Teacher training in bioinformatics, January, February<br />
MAJOR PROJECTS AND ACCOMPLISHMENTS<br />
• inTB: Collaborative project with <strong>the</strong> Collective Dynamics group (IGC) and <strong>the</strong><br />
Genomics Facility (IGC) on an FCT grant <strong>de</strong>signed to establish a molecular<br />
framework for <strong>the</strong> study of epi<strong>de</strong>miology of tuberculosis in Portugal. We<br />
have <strong>de</strong>veloped and implemented a new web-based database and on-line<br />
analysis tool to support this project, <strong>the</strong> inTB: Integrating Clinical Demographic<br />
and Molecular Data in Tuberculosis. Two papers are in production;<br />
• CorkoakDB: A collaborative project with several groups at <strong>the</strong> Oeiras Associated<br />
Laboratory, on an FCT grant for <strong>the</strong> sequencing of <strong>the</strong> ESTs of<br />
<strong>the</strong> cork oak, in response to a call by Government. During this year, an<br />
assembly and annotation pipeline was finished and a web application was<br />
<strong>de</strong>veloped to present all <strong>the</strong> information to collaborators and eventually a<br />
wi<strong>de</strong>r audience. Two papers are in production;<br />
• FlowBase: Data warehousing environment for flow cytometry experiments.<br />
We <strong>de</strong>veloped and implemented <strong>the</strong> whole system, which has been submitted<br />
for publication. O<strong>the</strong>r warehousing solutions are maintained in <strong>the</strong> unit<br />
for microarray data;<br />
• MTOC-explorer: We collaborate with <strong>the</strong> Computational Genomics Laboratory<br />
(IGC) and Cell Cycle Regulation (IGC) in MTOC-explorer, a bioinformatics<br />
resource that allows integrating morphological information from microscopy<br />
images with genomic information. Images are annotated and curated by an<br />
international team of domain experts in a broad range of eukaryotes using<br />
a controlled vocabulary <strong>de</strong>veloped specifically for this task. By centralising<br />
this knowledge, and using a controlled vocabulary, <strong>the</strong> resulting collection<br />
of images can be mined in a way which is not possible when knowledge is<br />
dispersed. At <strong>the</strong> moment, <strong>the</strong> database contains over 500 images from 100<br />
species in all major eukaryotic branches. One paper is in production.<br />
• Technical and scientific direct-user support: Eighteen IGC groups, seven<br />
IGC-associated groups and five non IGC groups received extensive technical<br />
and scientific support, including: Assembly (Sta<strong>de</strong>n); finding copy number<br />
variation; SNP analysis; finding mutations; browsing genomes, finding genes,<br />
transcripts, proteins, SNPs, microRNAs; transcript i<strong>de</strong>ntification, alignments,<br />
RT-PCR primers; morpholino <strong>de</strong>sign; browsing <strong>the</strong> mtocdb to search<br />
for gene orthologues/paralogues; transcription binding factors: Transfac,<br />
Genomatix, Galaxy; searching for homologues-BLASTS: finding homologues,<br />
orthologues and paralogues; finding and analysing protein families;<br />
clustering proteins according to protein families: domain searching;<br />
patterns searching; finding isoforms; Interpro and SuperFamily searching;<br />
i<strong>de</strong>ntifying and counting microRNAs in sequencing libraries; phylogenetic<br />
analysis: Phylip, MrByes and Pymol; PhenomicDB database; Script <strong>de</strong>sign:<br />
perl script for Blasting and parsing FASTA files; support in NGS analysis<br />
data; script for DNA sequencing to automate <strong>the</strong> analysis; bioinformatics<br />
software consulting. We contributed to <strong>the</strong> production of Master and PhD<br />
Theses, papers, and scientific communications.<br />
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• Bioinformatics in high schools: We have <strong>de</strong>veloped an inquiry-based learning<br />
tool based on bioinformatics for high schools now exten<strong>de</strong>d to o<strong>the</strong>r<br />
levels, and a teacher training-program. We are maintaining this system,<br />
adding functionality, and recruiting new schools and teachers to this experiment<br />
of using bioinformatics in <strong>the</strong> classroom. Fourteen schools of<br />
11 cities, in four Portuguese districts are following <strong>the</strong> project: S. Miguel<br />
Torga, Queluz; E. S. Quinta do Marquês, Oeiras; EB3 Secundária Vila Cova<br />
da Lixa; E. S. José Afonso, Loures; E. S. Engº A. C. Duarte, Marinha Gran<strong>de</strong>;<br />
E. S. Stuart Carvalhais, Queluz; E. S. <strong>de</strong> Mem Martins, Mem Martins, E. S.<br />
Luís <strong>de</strong> Camões, Lisboa, E. S. Gama Barros, Cacém, E. S. Miguel Cargaleiro,<br />
Fogueteiro, E. S. De Azambuja, Azambuja and E. B. D. Sancho I, Pontével,<br />
Cartaxo. One paper is in production.<br />
EQUIPMENT AND INFRASTRUCTURE<br />
• Two heavy calculation servers used for support and hosted projects;<br />
• Three servers <strong>de</strong>dicated to hosting research databases and web resources;<br />
• Seven workstations of which two have analysis software for user access;<br />
• Four redundant backup servers.<br />
Funding Fundação para a Ciência e a Tecnologia, Portugal<br />
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PORTUGUESE<br />
BIOINFORMATICS<br />
CENTRE<br />
Pedro Fernan<strong>de</strong>s (Eng) Head<br />
PhD in Biomedical Sciences, Universida<strong>de</strong> do Porto, Portugal, 2001<br />
Head of Facility since 2005<br />
link to facility website<br />
Head of IGC <strong>Gulbenkian</strong> Training Programme<br />
in Bioinformatics (GTPB)<br />
The CPB-RAP was created in 2005. It hosts Hermes, a mid size cluster that is<br />
<strong>de</strong>dicated to Bioinformatics. Access to this cluster is free but users need an<br />
account. This is a high performance platform, <strong>the</strong>refore more suitable for heavy<br />
computations than for trivial jobs. To make good use of this machine, applications<br />
usually require <strong>de</strong>ep modifications to allow for <strong>the</strong> use of <strong>the</strong> parallel<br />
processing capabilities. Most of <strong>the</strong> machine load is taken by lengthy simulation<br />
jobs for Population Genetics and by occasional orthologue searches using multiple<br />
BLAST jobs with pen domain software like InParanoid.<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Talks for stu<strong>de</strong>nts, IGC, May, June<br />
MAJOR PROJECTS AND ACCOMPLISHMENTS<br />
• Assigning multi-site genotypes to <strong>the</strong>ir subpopulations;<br />
• PAS, a new data-mining method that flags statistically significant intercolumnar<br />
non-randomness of any complexity;<br />
• MultiLocus Sequence Typing using eBURST goeBURST and new methods;<br />
• MTBSS - Mycobacterium Tuberculosis Bioinformatic and Structural Strategies<br />
Towards Treatment - New Indigo - ERANET - Official start Sept 2010.<br />
EQUIPMENT AND INFRASTRUCTURE<br />
• IBM JS20 Bla<strong>de</strong> computer (60), and associated control, management and<br />
storage.<br />
Funding Fundação para a Ciência e a Tecnologia, Portugal<br />
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RESEARCH<br />
FUNDING AFFAIRS<br />
Sheila Vidal Head<br />
PhD in Physiology of Invertebrates, Paris Sud XI University, Orsay, France, 2004<br />
Head of Service since 2008<br />
The Research Funding Affairs team is responsible for <strong>the</strong> implementation of a<br />
pre-award grant administration service. Its main goal is to increase <strong>the</strong> IGC’s<br />
capacity to attract research funds and to improve direct fundraising by research<br />
teams, and <strong>the</strong>ir scientific projects, for competitive calls launched by national,<br />
international, public and private grant programmes.<br />
FACILITY STAFF<br />
Mariana Guerreiro (Assistant, left in August)<br />
This team reports directly to <strong>the</strong> IGC Director, un<strong>de</strong>rstands <strong>the</strong> different grant<br />
financial policies and requirements and works in collaboration with researchers,<br />
project managers and finance staff.<br />
SERVICES INCLUDE:<br />
1. I<strong>de</strong>ntifying, in a timely manner, calls for proposals that might interest <strong>the</strong><br />
IGC, evaluating <strong>the</strong> conditions and preferences for grant applications (eligibility,<br />
<strong>de</strong>adlines, how to apply and prepare full proposals, filling-in forms<br />
and web-pages, knowing how it works, what are <strong>the</strong> specific targets, what<br />
is behind each call, etc) and disseminating <strong>the</strong>se opportunities through by<br />
several means: <strong>the</strong> Grant Information website, emails, meetings;<br />
2. Supporting proposal <strong>de</strong>velopment and submission, namely: arranging administrative<br />
forms, host documents and signatures, assisting with scientific<br />
proposal writing and budget;<br />
3. Post-award negotiation with funding agencies of contracts and agreements;<br />
4. Grant application training for research staff and graduate stu<strong>de</strong>nts.<br />
In addition, this team also monitors <strong>the</strong> impact of <strong>the</strong> services offered through<br />
<strong>the</strong> quantification of <strong>the</strong> following criteria: number of applications submitted,<br />
secured grants and prizes, diversity of grant agencies and amounts raised.<br />
In 2011 this team supported researchers in attracting 34 new external competitive<br />
research grants (18: FCT; 3: EC-FP7; 14: o<strong>the</strong>r sources, FLAD, Fundação<br />
Bial, Camara Municipal <strong>de</strong> Oeiras, Associação Viver a Ciência, PORLISBOA/QREN,<br />
SPD/Novo Nordisk, Association for International Cancer & Wellcome Trust)<br />
raising a total of 4.9million Euro.<br />
The Research Funding Affairs’ responsibilities cease with contract signature and<br />
after passing all grant information to <strong>the</strong> accounting <strong>de</strong>partment and researchers.<br />
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INNOVATION<br />
AND TECHNOLOGY<br />
TRANSFER<br />
David Cristina Head<br />
PhD in Genetics of Ageing, Universida<strong>de</strong> Nova <strong>de</strong> Lisboa, 2008<br />
Head of Service since 2009<br />
Technology Transfer (TT) is <strong>the</strong> exploitation, commercial or o<strong>the</strong>rwise, of scientific<br />
research for <strong>the</strong> direct benefit of society. Its activities inclu<strong>de</strong> sourcing<br />
invention disclosures, guaranteeing patent protection, licensing technologies,<br />
forming spin-out companies and managing consultancy opportunities for scientists.<br />
Technology Transfer is an undisputed source of social and economic<br />
growth internationally and an absolute necessity for institutions set on seeing<br />
<strong>the</strong>ir research have a direct, global impact on society, such as <strong>the</strong> IGC. Our<br />
Technology Transfer Office works as a liaison between industry and aca<strong>de</strong>mia,<br />
facilitating communication between <strong>the</strong>se two, very different, sectors. We offer<br />
several services to researchers, including: counselling on industry relations,<br />
assistance with intellectual property issues and sourcing of sponsored research<br />
agreements.<br />
INFORMATICS<br />
João Sousa Head<br />
PhD in Theoretical Biochemistry, Universida<strong>de</strong> <strong>de</strong> Lisboa, 2004<br />
Head of facility since 2005<br />
The Informatics Unit at <strong>the</strong> IGC (ITI) manages most of <strong>the</strong> IT needs of <strong>the</strong> institute.<br />
We manage <strong>the</strong> IGC servers and network and provi<strong>de</strong> various levels of support<br />
for <strong>the</strong> heterogeneous workstations and servers <strong>de</strong>dicated to research.<br />
We rely almost exclusively on Open Source for <strong>the</strong> services we provi<strong>de</strong>. These<br />
services inclu<strong>de</strong> E-Mail, VPN, printing, hosting of servers and services for<br />
researchers, administrative and collaborative Intranet services, central data<br />
storage, database and web site maintenance, surveillance and access control,<br />
consulting, training and, evi<strong>de</strong>ntly support.<br />
FACILITY STAFF<br />
João Garcia (Systems Analyst)<br />
Fernando Azevedo (Technician)<br />
Manuel Carvalho (Technician)<br />
Ana Maya (Technician)<br />
Mário Neto (Systems Administrator)<br />
The IGC network infrastructure is almost exclusively gigabit, for servers and<br />
<strong>de</strong>sktops, and we have full Wi-Fi coverage indoors and in selected areas outdoors.<br />
The IGC Internet connection is provi<strong>de</strong>d by FCCN Aca<strong>de</strong>mic Network<br />
RCTS Services with a bandwidth of 50 Mbit/sec.<br />
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LIBRARY<br />
Margarida Meira Head<br />
Head of facility since 2000<br />
The <strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência library is an open access, specialised library in<br />
biomedicine. Its bibliographic collection covers Biology, Biochemistry, Genetics, Pharmacology,<br />
Microbiology, Physiology, Immunology, Virology, Cell Biology, Neuroscience<br />
and Developmental Biology. The library is inten<strong>de</strong>d for researchers, faculty and visiting<br />
scientists, stu<strong>de</strong>nts and staff of <strong>the</strong> IGC, but is also open to external users, ei<strong>the</strong>r<br />
from <strong>the</strong> national scientific community or from higher education institutions. It aims<br />
to provi<strong>de</strong> access to useful, diversified and up to date information, to improve services<br />
provi<strong>de</strong>d, to acquire, register, maintain and distribute scientific information of<br />
interest to or produced by researchers and stu<strong>de</strong>nts who work at <strong>the</strong> IGC.<br />
The IGC library has a collection of printed journals in <strong>the</strong> field of health sciences,<br />
that spans almost 30 years. Currently it subscribes approximately 325 international<br />
scientific journals in electronic version. In addition, since 2004, <strong>the</strong> library belongs<br />
to <strong>the</strong> national consortium Biblioteca do Conhecimento Online (b-on), which provi<strong>de</strong>s<br />
online access to <strong>the</strong> contents of about 22,000 international scientific journals<br />
and 18,000 e-books from 19 publishers, as well as to an important scientific<br />
bibliographic database - <strong>the</strong> Web of Knowledge, which provi<strong>de</strong>s access to titles,<br />
abstracts and citation and impact factor reposts of approximately 8,500 journals,<br />
with records since 1945.<br />
EQUIPMENT<br />
AND MAINTENANCE<br />
Nuno Moreno Head<br />
PhD in Biophysics, Universida<strong>de</strong> Nova <strong>de</strong> Lisboa, 2010<br />
Head of Service since 2008<br />
Equipment and Maintenance is a technical platform responsible for ensuring<br />
effective equipment acquisition, distribution and usage. This year, it was fused<br />
with <strong>the</strong> building maintenance and <strong>the</strong>refore accumulating related responsibilities.<br />
We work closely with scientific facilities in or<strong>de</strong>r to provi<strong>de</strong> cutting edge<br />
service and a smooth workflow, ensuring high equipment up-time.<br />
Our services inclu<strong>de</strong>: equipment repair and maintenance, building of small<br />
hardware apparatus, several in house, open source systems, namely, an online<br />
resource scheduler, a small scientific database management system, a remote<br />
resource monitoring system. We run a seminar series "Tech Minutiae" with <strong>the</strong><br />
aim of raising awareness, amongst scientists, of <strong>the</strong> most cutting edge techniques.<br />
FACILITY STAFF<br />
Ana Homem (Research Technician)<br />
João Lagarto (Engineer)<br />
Tiago Vale (Engineer)<br />
Revez da Silva (Technician - ARSPLUS)<br />
Pedro Lourenço (Technician - GDFSUEZ)<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
Talks for school stu<strong>de</strong>nts, Alverca (April)<br />
Gui<strong>de</strong>d tour of Miguel Palma's exhibition at CAM, Fundação Calouste<br />
<strong>Gulbenkian</strong>, Lisbon (April)<br />
We also work with <strong>the</strong> Direction of <strong>the</strong> institute in helping new labs set up in<br />
terms of equipment and space management.<br />
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ADMINISTRATION<br />
AND ACCOUNTS<br />
José Mário Leite (Eng) Head<br />
Head of Service since 1999<br />
IGC Deputy Director<br />
This service provi<strong>de</strong>s support in all administrative matters, including or<strong>de</strong>ring<br />
and stores, travel arrangements, auditoria and venue preparations, visitors, and<br />
new IGC researchers and stu<strong>de</strong>nts reception.<br />
The accounts office provi<strong>de</strong>s invaluable support in preparing financial reports<br />
of research projects, and in general management of accounts.<br />
FACILITY STAFF<br />
Teresa Meira (Direction Secretary, left in December)<br />
Fátima Mateus (Accounts Officer)<br />
João Nunes (Accounts Officer, Left in July)<br />
Tatiana Rocha (Accounts Officer)<br />
Ana Maria Santos (Accounts Officer)<br />
Ana Lícia Pires (Accounts Officer, left in August)<br />
Jorge Costa (Administrative Assistant)<br />
Abílio Simões (Stores Manager)<br />
Teresa Sousa (Receptionist)<br />
Carlos Nunes (Driver, left in December)<br />
António Sousa (Maintenance)<br />
António Bretanha (Procurement)<br />
ETHICS<br />
COMMITTEE<br />
Maria Francisca Fontes Head<br />
PhD in Immunology, Universida<strong>de</strong> <strong>de</strong> Lisboa, 2009<br />
MD, Hospital Curry Cabral, Lisbon<br />
Head of Ethics Committee since 2011<br />
The mission of <strong>the</strong> IGC Ethics Committee is to review all research projects involving<br />
humans and animals to ensure that full consi<strong>de</strong>ration has been given<br />
to animal welfare and <strong>the</strong> ethical implications of <strong>the</strong> research. It is <strong>the</strong> Ethics<br />
Committee's responsibility to analyse all ethical issues that may arise during <strong>the</strong><br />
course of <strong>the</strong> research projects <strong>de</strong>veloped by <strong>the</strong> groups or units of <strong>the</strong> IGC,<br />
including those specifically related to projects which entail studies with humans<br />
or animal research.<br />
ETHICS COMMITTEE MEMBERS<br />
Carlos Penha-Gonçalves (Principal Investigator, IGC)<br />
Rui Costa (Principal Investigator, IGC)<br />
Manuel Rebelo (Animal Facilities Manager, IGC)<br />
Ana Mena (Post-doc, IGC)<br />
Luís Pinheiro (MD, External Member)<br />
Ana Runkel (External member, Oeiras City Council)<br />
José Athay<strong>de</strong> Tavares (Lawyer, External member)<br />
Greta Martins (Lay member, IGC)<br />
The Ethics Committee is an interdisciplinary body ma<strong>de</strong> up of nine members,<br />
three of whom are laypersons and four are external to <strong>the</strong> IGC. In 2011, <strong>the</strong> Ethics<br />
Committee approved 9 research projects.<br />
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RESEARCH<br />
STRUCTURES
NATIONAL AND INTERNATIONAL<br />
RESEARCH STRUCTURES<br />
LABORATÓRIO ASSOCIADO ITQB (LA-ITQB)<br />
Coordinator: Luís Paulo N. Rebelo (ITQB Director)<br />
Since January 2011, following a re-structure, <strong>the</strong> LA-ITQB brings toge<strong>the</strong>r <strong>the</strong><br />
<strong>Instituto</strong> <strong>de</strong> Tecnologia Química e Biológia (ITQB-UNL), <strong>the</strong> <strong>Instituto</strong> <strong>Gulbenkian</strong><br />
<strong>de</strong> Ciência (IGC), <strong>the</strong> <strong>Instituto</strong> <strong>de</strong> Biologia Experimental e Tecnológica (IBET) and<br />
<strong>the</strong> Centro <strong>de</strong> Estudos <strong>de</strong> Doenças Crónicas (CEDOC-UNL). The current LA-ITQB<br />
is a successor of a previous, smaller consortium, set up in 2001, between ITQB,<br />
IBET, and a few groups of IGC, as one of <strong>the</strong> first Associated Laboratories in<br />
Portugal. In its present form, it is a much wi<strong>de</strong>r partnership whose main aim is<br />
to carry out a collaborative research programme, un<strong>de</strong>rpinned by a strong communications<br />
network and sharing of infrastructures, namely libraries, scientific<br />
facilities, aca<strong>de</strong>mic services, and administrative support.<br />
It is currently one of <strong>the</strong> broa<strong>de</strong>st Associated Laboratories in terms of scientific<br />
expertise, spanning research areas from Chemistry to Medicine, along <strong>the</strong> following<br />
research <strong>the</strong>mes:<br />
1. Syn<strong>the</strong>sis, structure, and function of biologically important molecules;<br />
2. From genetics, cell and <strong>de</strong>velopmental biology to pathogenesis and novel<br />
<strong>the</strong>rapies;<br />
3. Computational and <strong>the</strong>oretical biology: from biochemistry to medicine;<br />
4. Host-microbe and host-cancer interactions;<br />
5. Plant genomics and stress responses;<br />
6. Evolution of ecosystems, biological risk, and food safety.<br />
In 2011, research at <strong>the</strong> LA-ITQB involved 350 PhD hol<strong>de</strong>rs (post-docs, group<br />
lea<strong>de</strong>rs), produced 425 Web of Science-referenced papers, over 10,000 WoS<br />
citations, 45 Highly Cited Papers (world top 1%), an average of one PhD <strong>the</strong>sis<br />
awar<strong>de</strong>d per week. Across <strong>the</strong> four research institutes, <strong>the</strong>re were over 380<br />
running projects, with several funding sources including over €5M from <strong>the</strong> European<br />
Commission. Also in 2011, a fur<strong>the</strong>r €3.5M euros income in I&D contracts<br />
with <strong>the</strong> private sector was secured.<br />
CHAMPALIMAUD FOUNDATION NEUROSCIENCE PROGRAMME AT THE IGC<br />
Head: Zachary Mainen<br />
PhD in Neurosciences, University of California, San Diego, 1995<br />
Principal Investigator - Systems Neuroscience Group<br />
The Champalimaud Neuroscience Programme (CNP) was created in 2007<br />
through a collaborative agreement between <strong>the</strong> Champalimaud Foundation and<br />
<strong>the</strong> Calouste <strong>Gulbenkian</strong> Foundation. It is a basic research team with <strong>the</strong> broad<br />
aim of un<strong>de</strong>rstanding brain function through integrative biological approaches.<br />
CNP laboratories apply advanced molecular, physiological and imaging techniques<br />
to elucidate <strong>the</strong> function of neural circuits and systems in animal mo<strong>de</strong>ls<br />
that inclu<strong>de</strong> Drosophila, mouse, rat and zebrafish.<br />
As of December 2011 <strong>the</strong> CNP comprises sixteen in<strong>de</strong>pen<strong>de</strong>nt research groups,<br />
including thirteen in-house principle investigators, one research fellow and two<br />
associated external principle investigators. This year, <strong>the</strong> CNP was joined by<br />
three new investigators (C. Machens, L. Petreanu, A. Renart), one research fellow<br />
(A. Kampff), and recruited ano<strong>the</strong>r investigator who will join <strong>the</strong> programme in 2012.<br />
In 2011, CNP investigators published 3 review articles and 10 refereed research<br />
articles, including a study on <strong>the</strong> role of <strong>the</strong> <strong>de</strong>ndritic branch in <strong>the</strong> potentiation<br />
pattern of single synapses, which was published in Neuron (I. Israely). Also, at<br />
<strong>the</strong> end of 2011, CNP investigators R. Costa and M. Carey received <strong>the</strong> International<br />
Early Career Scientist Award by Howard Hughes Medical Institute.<br />
The CNP also organises <strong>the</strong> International Neuroscience Doctoral Programme<br />
(INDP). In this programme stu<strong>de</strong>nts are provi<strong>de</strong>d with a broad educational background<br />
through both formal classes and hands-on experience in basic topics<br />
in contemporary neuroscience such as cellular and synaptic physiology, sensation<br />
and action and cognitive neuroscience. Quantitative approaches are<br />
emphasised and stu<strong>de</strong>nts also receive background courses in ma<strong>the</strong>matics and<br />
programming.<br />
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In 2011, CNP investigators began conducting <strong>the</strong>ir research at <strong>the</strong> recently inaugurated<br />
Champalimaud Center for <strong>the</strong> Unknown (CCU). There, in September<br />
2011, <strong>the</strong> first Champalimaud Neuroscience Symposium was held, featuring lectures<br />
by key neuroscientists from across <strong>the</strong> world. Soon after, <strong>the</strong> Ar monthly<br />
event-series began. These outreach events, targeted at a general audience,<br />
explore different aspects of scientific and science-related topics such as<br />
human-machine interface and creativity.<br />
In-house Principal Investigators:<br />
• Megan Carey (Neural Circuits and Behaviour)<br />
• Rui Costa (Neurobiology of Action)<br />
• Inbal Israely (Neuronal Structure and Function)<br />
• Susana Lima (Neuroethology)<br />
• Christian Machens (Theoretical Neuroscience)<br />
• Zach Mainen (Systems Neuroscience)<br />
• Marta Moita (Behavioural Neuroscience)<br />
• Michael Orger (Vision to Action)<br />
• Joe Paton (Learning Laboratory)<br />
• Leopoldo Petreanu (Cortical Circuits)<br />
• Alfonso Renart (Circuit Dynamics & Computation)<br />
• Carlos Ribeiro (Behaviour and Metabolism)<br />
• Luísa Vasconcelos (Innate behaviour)<br />
Research Fellows:<br />
• Adam Kampff (Intelligent Systems)<br />
External Principal Investigators:<br />
• Domingos Henrique (Developmental Biology)<br />
• Rui Oliveira (Animal Behaviour)<br />
FLAD COMPUTATIONAL BIOLOGY COLLABORATORIUM<br />
Head: Luís Rocha<br />
PhD in Systems Science, State University of New York, 1997<br />
Principal Investigator - Complex Adaptive Systems and Computational Biology<br />
The main aim of <strong>the</strong> FLAD Computational Biology Collaboratorium is to establish,<br />
enable, and foster an international, collaborative network of associated<br />
institutions and scientists. It is an open host <strong>organisation</strong> <strong>de</strong>signed to enable<br />
intense cooperation amongst researchers from national and international institutions:<br />
<strong>the</strong> centre hub of a collaborative network of research institutions. Its<br />
principal objectives are to provi<strong>de</strong> suitable facilities for visiting scientists, and<br />
to host informatics technology to enable continuing off-site collaboration and<br />
research in ma<strong>the</strong>matical and computational biology.<br />
The Collaboratorium operates in close synergy with <strong>the</strong> PhD Programme in<br />
Computational Biology: faculty is encouraged to stay longer periods of time to<br />
participate in work groups and collaborative projects hosted by <strong>the</strong> Collaboratorium.<br />
Likewise, visitors to <strong>the</strong> Collaboratorium are encouraged to give seminars<br />
and interact with stu<strong>de</strong>nts and faculty of <strong>the</strong> PhD Programme. Fur<strong>the</strong>rmore,<br />
<strong>the</strong> PhD programme will help i<strong>de</strong>ntify research areas in ma<strong>the</strong>matical and computational<br />
biology that are not yet sufficiently <strong>de</strong>veloped in Portugal. Reciprocally,<br />
<strong>the</strong> growing collaboration network fostered by <strong>the</strong> Collaboratorium, will facilitate<br />
<strong>the</strong> insertion of <strong>the</strong> newly formed computational biology PhDs within <strong>the</strong><br />
Portuguese research and technology communities.<br />
IGC ANNUAL REPORT ‘11<br />
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PUBLICATIONS<br />
IGC ANNUAL REPORT ‘11<br />
RESEARCH STRUCTURES<br />
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PEER-REVIEWED PAPERS<br />
1.<br />
2.<br />
3.<br />
4.<br />
5.<br />
6.<br />
7.<br />
8.<br />
9.<br />
10.<br />
11.<br />
12.<br />
13.<br />
14.<br />
15.<br />
Abi-Haidar A, Rocha LM. (2011). Collective Classification of Textual Documents<br />
Using Self-Organized Cross-Regulation in <strong>the</strong> Adaptive Immune System.<br />
Evolutionary Intelligence 4(2):69-80.<br />
Agua-Doce A, Graca L. (2011). Prevention of House Dust Mite Induced Allergic<br />
Airways Disease in Mice through Immune Tolerance. PLOS ONE 6 (7):<br />
Article Number: e22320.<br />
Alcobia I, Gomes A, Saavedra P, Laranjeiro R, Oliveira S, Parreira L, Cidadao<br />
A. (2011). Portrayal of <strong>the</strong> Notch System in Embryonic Stem Cell-Derived<br />
Embryoid Bodies. Cells Tissues Organs 193(4):239-252.<br />
Ascenso OS, Marques JC, Santos AR, Xavier KB, Rita Ventura M, Maycock CD.<br />
(2011). An efficient syn<strong>the</strong>sis of <strong>the</strong> precursor of AI-2 <strong>the</strong> signalling molecule<br />
for inter-species quorum sensing. Bioorganic Medicinal Chemistry<br />
19(3):1236-41.<br />
Athanasiadis A. (2011). Zalpha-domains: At <strong>the</strong> intersection between RNA<br />
editing and innate immunity. Seminars in Cell & Developmental Biology<br />
23(3):275-280 [Epub ahead of print - 6 November 2011] .<br />
Atsak P, Orre M, Bakker P, Cerliani L, Roozendaal B, Gazzola V, Moita M,<br />
Keysers C. (2011). Experience Modulates Vicarious Freezing in Rats: A Mo<strong>de</strong>l<br />
for Empathy. PLOS ONE 6(7): Article Number: e21855.<br />
Azevedo AS, Grotek B, Jacinto A, Weidinger G, Sau<strong>de</strong> L. (2011). The Regenerative<br />
Capacity of <strong>the</strong> Zebrafish Caudal Fin Is Not Affected by Repeated<br />
Amputations. PLOS ONE 6(7): Article Number: e22820.<br />
Azevedo D, Antunes M, Prag S, Ma X, Hacker U, Brodland GW, Hutson MS,<br />
Solon J, Jacinto A. (2011). DRhoGEF2 Regulates Cellular Tension and Cell<br />
Pulsations in <strong>the</strong> Amnioserosa during Drosophila Dorsal Closure. PLOS ONE<br />
6 (9): Article Number: e23964.<br />
Azoitei M, Correia B, Ban Y-EA, Carrico C, Kalyuzhniy O, Chen L, Schroeter<br />
A, Huang P-S, McLellan J, Kwong PD, Baker D, Strong RK, Schief WR. (2011).<br />
Computation-Gui<strong>de</strong>d Backbone Grafting of a Discontinuous Motif onto a<br />
Protein Scaffold. Science 334(6054):373-376.<br />
Barreto VM, Magor BG. (2011). Activation-induced cytidine <strong>de</strong>aminase<br />
structure and functions: A species comparative view. Developmental and<br />
Comparative Immunology 35(9):991-1007.<br />
Belda<strong>de</strong> P, Mateus AR, Keller RA. (2011). Evolution and molecular mechanisms<br />
of adaptive <strong>de</strong>velopmental plasticity. Molecular Ecology 20 (7):1347-63<br />
Bento M, Correia E, Tavares AT, Becker JD, Belo JA. (2011). I<strong>de</strong>ntification<br />
of differentially expressed genes in <strong>the</strong> heart precursor cells of <strong>the</strong> chick<br />
embryo. Gene Expression Patterns 11(7):437-447.<br />
Bergmann JH, Rodriguez MG, Martins NMC, Kimura H, Kelly DA, Masumoto<br />
H, Larionov V, Jansen LET, Earnshaw WC. (2011). Epigenetic engineering<br />
shows H3K4me2 is required for HJURP targeting and CENP-A assembly on<br />
a syn<strong>the</strong>tic human kinetochore. EMBO Journal 30(2):328-340.<br />
Bettencourt-Dias M, Hil<strong>de</strong>brandt F, Pellman D, Woods G, Godinho SA. (2011).<br />
Centrosomes and cilia in human disease. Trends in Genetics 27(8): 307-15.<br />
Bilici T, Mutlu S, Kalaycioglu H, Kurt A, Sennaroglu A, Gulsoy M. (2011).<br />
Development of a thulium (Tm:YAP) laser system for brain tissue ablation.<br />
Lasers in Medical Science 26 (5):699-706.<br />
16. Boavida LC, Borges FS, Becker JD, Feijo JA. (2011). Whole-genome analysis of<br />
gene expression reveals coordinated activation of signaling and metabolic<br />
pathways during pollen-pistil interactions in Arabidopsis thaliana. Plant<br />
Physiology 155(4):2066-2080.<br />
IGC ANNUAL REPORT ‘11<br />
PUBLICATIONS<br />
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17.<br />
18.<br />
19.<br />
20.<br />
21.<br />
22.<br />
23.<br />
24.<br />
25.<br />
26.<br />
27.<br />
28.<br />
29.<br />
30.<br />
Bolasco G, Tracey-White DC, Tolmachova T, Thorley AJ, Tetley TD, Seabra<br />
MC, Hume AN. (2011). Loss of Rab27 function results in abnormal lung epi<strong>the</strong>lium<br />
structure in mice. American Journal of Physiology-Cell Physiology<br />
300(3):C466-C476.<br />
Borges F, Pereira PA, Slotkin RK, Martienssen RA, Becker JD. (2011). Micro-<br />
RNA activity in <strong>the</strong> Arabidopsis male germline. Journal of Experimental<br />
Botany 62(5):1611-1620 Sp Iss.<br />
Borralho PM, Simoes AES, Gomes SE, Lima RT, Carvalho T, Ferreira DMS,<br />
Vasconcelos MH, Castro RE, Rodrigues CMP. (2011). miR-143 Overexpression<br />
Impairs Growth of Human Colon Carcinoma Xenografts in Mice with Induction<br />
of Apoptosis and Inhibition of Proliferation. PLOS ONE 6(8) Article<br />
Number: e23787.<br />
Bouvignies G, Vallurupalli P, Hansen DF, Correia BE, Lange O, Bah A, Vernon<br />
RM, Dahlquist FW, Baker D, Kay L. (2011). Solution structure of a minor and<br />
transiently formed state of a T4 lysozyme mutant. Nature 477(7362):111-134.<br />
Bouzid D, Fourati H, Amouri A, Marques I, Abida O, Haddouk S, Ben AM,<br />
Tahri N, Penha-Goncalves C, Masmoudi H. (2011). The CREM gene is involved<br />
in genetic predisposition to inflammatory bowel disease in <strong>the</strong> Tunisian<br />
population. Human Immunology 72(12):1204-1209.<br />
Brás-Pereira C, Zhang T, Pignoni F, Janody F. (2011). Homeostasis of <strong>the</strong><br />
Drosophila adult retina by actin-capping protein and <strong>the</strong> Hippo pathway.<br />
Communicative & Integrative Biology 4(5):612-5.<br />
Bshary R, Oliveira RF, Grutter AS. (2011). Short-Term Variation in <strong>the</strong><br />
Level of Cooperation in <strong>the</strong> Cleaner Wrasse Labroi<strong>de</strong>s dimidiatus: Implications<br />
for <strong>the</strong> Role of Potential Stressors. Ethology 117(3):246-253.<br />
Budd ME, Antoshechkin IA, Reis C, Wold BJ, Campbell JL. (2011). Inviability of<br />
a DNA2 <strong>de</strong>letion mutant is due to <strong>the</strong> DNA damage checkpoint. Cell Cycle<br />
10(10):1690-1698.<br />
Caiado F, Carvalho T, Silva F, Castro C, Clo<strong>de</strong> N, Dye JF, Dias S. (2011). The<br />
role of fibrin E on <strong>the</strong> modulation of endo<strong>the</strong>lial progenitors adhesion differentiation<br />
and angiogenic growth factor production and <strong>the</strong> promotion<br />
of wound healing. Biomaterials 32(29):7096-105.<br />
Caramalho I, Rodrigues-Duarte L, Perez A, Zelenay S, Penha-Gonçalves C,<br />
Demengeot J. (2011). Regulatory T cells Contribute to Diabetes Protection<br />
in Lypopolissachari<strong>de</strong>-Treated Non-Obese Diabetic Mice. Scandinavian<br />
Journal of Immunology 74(6):585-95.<br />
Carvalho TP, Buonomano DV. (2011). A novel learning rule for long-term<br />
plasticity of short-term synaptic plasticity enhances temporal processing.<br />
Frontiers in integrative neuroscience 5:20.<br />
Carvalho-Santos Z, Azimza<strong>de</strong>h J, Pereira-Leal JB, Bettencourt-Dias M. (2011).<br />
Evolution: Tracing <strong>the</strong> origins of centrioles cilia and flagella. The Journal of<br />
Cell Biology 194(2):165-75.<br />
Casalou C, Costa A, Carvalho T, Gomes AL, Zhu ZP, Wu Y, Dias S. (2011).<br />
Cholesterol Regulates VEGFR-1 (FLT-1) Expression and Signaling in Acute<br />
Leukemia Cells. Molecular Cancer Research 9(2):215-224.<br />
Castro DS, Guillemot F. (2011). Old and new functions of proneural factors revealed<br />
by <strong>the</strong> genome-wi<strong>de</strong> characterization of <strong>the</strong>ir transcriptional targets.<br />
Cell Cycle 10(23):4026-4031.<br />
31. Chaouiya C, Naldi A, Remy E, Thieffry D. (2011). Petri net representation of<br />
multi-valued logical regulatory graphs. Natural Computing 10(2):727-750<br />
Sp Iss SI.<br />
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32.<br />
33.<br />
34.<br />
35.<br />
36.<br />
37.<br />
38.<br />
39.<br />
40.<br />
41.<br />
42.<br />
43.<br />
44.<br />
45.<br />
46.<br />
Chiang L, Ngo J, Schechter JE, Karvar S, Tolmachova T, Seabra MC, Hume<br />
AN, Hamm-Alvarez SF. (2011). Rab27b regulates exocytosis of secretory<br />
vesicles in acinar epi<strong>the</strong>lial cells from <strong>the</strong> lacrimal gland. American Journal<br />
of Physiology-Cell Physiology 301(2):C507-C521.<br />
Coelho FC, Co<strong>de</strong>ço CT, Gomes MG. (2011). A bayesian framework for parameter<br />
estimation in dynamical mo<strong>de</strong>ls. PLOS One 6(5):e19616.<br />
Conceição IC, Long AD, Gruber JD, Belda<strong>de</strong> P. (2011). Genomic Sequence<br />
around Butterfly Wing Development Genes: Annotation and Comparative<br />
Analysis. PLOS One 6(8):e23778.<br />
Correia BE, Holmes MA, Huang PS, Strong RK, Schief WR. (2011). High-resolution<br />
structure prediction of a circular permutation loop. Protein Science<br />
20(11):1929-34.<br />
Correia DV, Fogli M, Hudspeth K, da Silva MG, Mavilio D, Silva-Santos B. (2011).<br />
Differentiation of human peripheral blood V <strong>de</strong>lta 1(+) T cells expressing<br />
<strong>the</strong> natural cytotoxicity receptor NKp30 for recognition of lymphoid leukemia<br />
cells. Blood 118(4):992-1001.<br />
Costa RM. (2011). A selectionist account of <strong>de</strong> novo action learning. Current<br />
opinion in neurobiology 21(4):579-86.<br />
Costa SS, Andra<strong>de</strong> R, Carneiro LA, Goncalves EJ, Kotrschal K, Oliveira RF. (2011).<br />
Sex Differences in <strong>the</strong> Dorsolateral Telencephalon Correlate with Home<br />
Range Size in Blenniid Fish. Brain Behavior and Evolution 77(1):55-64.<br />
Costa N, Pires AE, Gabriel AM, Goulart LF, Pereira C, Leal B, Queiros AC,<br />
Chaara W, Moraes-Fontes MF, Vasconcelos C, Ferreira C, Martins J, Bastos<br />
M, Santos MJ, Pereira MA, Martins B, Lima M, João C, Six A, Demengeot<br />
J, Fesel C. (2011). Active regulatory T-cells contribute to broa<strong>de</strong>ned T-cell<br />
repertoire diversity in ivIg-treated SLE patients. Journal of Translational<br />
Medicine 9 Suppl 2:P6.<br />
Cruz AV, Mallet N, Magill PJ, Brown P, Averbeck BB. (2011). Effects of dopamine<br />
<strong>de</strong>pletion on information flow between <strong>the</strong> subthalamic nucleus and<br />
external globus pallidus. Journal of Neurophysiology 106(4):2012-2023.<br />
Debarros A, Chaves-Ferreira M, d'Orey F, Ribot JC, Silva-Santos B. (2011).<br />
CD70-CD27 interactions provi<strong>de</strong> survival and proliferative signals that<br />
regulate T cell receptor-driven activation of human γδ peripheral blood<br />
lymphocytes. European Journal of Immunology 41(1):195.<br />
De Oliveira VL, Almeida SC, Soares HR, Crespo A, Marshall-Clarke S, Parkhouse<br />
RM. (2011). A novel TLR3 inhibitor enco<strong>de</strong>d by African swine fever<br />
virus (ASFV). Archives of Virology 156(4):597-609.<br />
Didier G, Remy E, Chaouiya C. (2011). Mapping multivalued onto Boolean<br />
dynamics. Journal of Theoretical Biology 270(1):177-184.<br />
Diekmann Y, Seixas E, Gouw M, Tavares-Ca<strong>de</strong>te F, Seabra MC, Pereira-Leal<br />
JB. (2011). Thousands of rab GTPases for <strong>the</strong> cell biologist. PLOS Computational<br />
Biology 7(10):e1002217.<br />
Duque P. (2011). A role for SR proteins in plant stress responses. Plant<br />
Signaling and Behavior 1;6(1):49-54.<br />
Faustino L, Mucida D, Keller AC, Demengeot J, Bortoluci K, Sardinha LR,<br />
Takenaka MC, Basso AS, Faria AMC, Russo M. (2012). Regulatory T Cells<br />
Accumulate in <strong>the</strong> Lung Allergic Inflammation and Efficiently Suppress<br />
T-Cell Proliferation but Not Th2 Cytokine Production. Clin Dev Immunol<br />
2012:721817 (Published online 2011 November 15).<br />
47. Fernan<strong>de</strong>s AS, Pedro Goncalves A, Castro A, Lopes TA, Gardner R, Glass<br />
NL, Vi<strong>de</strong>ira A. (2011). Modulation of fungal sensitivity to staurosporine by<br />
targeting proteins i<strong>de</strong>ntified by transcriptional profiling. Fungal Genetics<br />
and Biology 48(12):1130-1138.<br />
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48.<br />
49.<br />
50.<br />
51.<br />
52.<br />
53.<br />
54.<br />
55.<br />
56.<br />
57.<br />
58.<br />
59.<br />
60.<br />
61.<br />
Fernán<strong>de</strong>z BG, Gaspar P, Brás-Pereira C, Jezowska B, Rebelo SR, Janody F.<br />
(2011). Actin-Capping Protein and <strong>the</strong> Hippo pathway regulate F-actin and<br />
tissue growth in Drosophila. Development 138(11):2337-46.<br />
Ferreira A, Marguti I, Bechmann I, Jeney V, Chora A, Palha NR, Rebelo S,<br />
Henri A, Beuzard Y, Soares MP. (2011). Sickle Hemoglobin Confers Tolerance<br />
to Plasmodium Infection. Cell 145 (3):398-409.<br />
Figueiredo LF, <strong>de</strong> Gossmann T, Ziegler M, Schuster S. (2011). Pathway analysis<br />
of NAD(+) metabolism. Biochemical Journal 439:341-348 .<br />
French CA, Jin X, Campbell TG, Gerfen E, Groszer M, Fisher SE, Costa RM. (2011).<br />
An aetiological Foxp2 mutation causes aberrant striatal activity and alters<br />
plasticity during skill learning. Molecular Psychiatry [Epub ahead of print].<br />
Galhardo L, Vital J, Oliveira RF. (2011). The role of predictability in <strong>the</strong> stress<br />
response of a cichlid fish. Physiology & Behavior 102(3-4):367-372<br />
Galhardo L, Almeida O, Oliveira RF. (2011). Measuring motivation in a cichlid<br />
fish: An adaptation of <strong>the</strong> push-door paradigm. Applied Animal Behaviour<br />
Science 130(1-2):60-70.<br />
Gil FN, Gonçalves AC, Jacinto MJ, Becker JD, Viegas CA. (2011). Transcriptional<br />
profiling in Saccharomyces cerevisiae relevant for predicting alachlor<br />
mechanisms of toxicity. Environmental Toxicology and Chemistry<br />
30(11):2506–2518.<br />
Gonçalves L, Filipe M, Marques S, Salgueiro AM, Becker JD, Belo JA. (2011).<br />
I<strong>de</strong>ntification and functional analysis of novel genes expressed in <strong>the</strong> Anterior<br />
Visceral Endo<strong>de</strong>rm. The International journal of <strong>de</strong>velopmental biology<br />
55(3):281-95.<br />
Gonçalves LG, Borges N, Serra F, Fernan<strong>de</strong>s PL, Dopazo H, Santos H. (2011).<br />
Evolution of <strong>the</strong> biosyn<strong>the</strong>sis of di-myo-inositol phosphate a marker of adaptation<br />
to hot marine environments. Environmental Microbiology [Epub<br />
ahead of print].<br />
Gonzalez LM, Ramiro R, Garcia L, Parkhouse RME, McManus DP, Garate T.<br />
(2011). Genetic variability of <strong>the</strong> 18 kDa/HP6 protective antigen in Taenia<br />
saginata and Taenia asiatica: Implications for vaccine <strong>de</strong>velopment.<br />
Molecular and Biochemical Parasitology 176(2):131-134.<br />
Gonçalves-Sá J, Murray A. (2011). Asymmetry in sexual pheromones is not<br />
required for ascomycete mating. Current Biology 21(16):1337-46.<br />
Gouveia LO, Sobral J, Vicente AM, Ferro JM, Oliveira SA. (2011). Replication of<br />
<strong>the</strong> CELSR1 association with ischemic stroke in a Portuguese case-control<br />
cohort. A<strong>the</strong>rosclerosis 217(1):260-262.<br />
Govindarajan A, Israely I, Huang SY, Tonegawa S. (2011). The <strong>de</strong>ndritic branch<br />
is <strong>the</strong> preferred integrative unit for protein syn<strong>the</strong>sis-<strong>de</strong>pen<strong>de</strong>nt LTP.<br />
Neuron 69:132-146.<br />
Gozzelino R, Soares MP. (2011). Heme Sensitization to TNF-Mediated Programmed<br />
Cell Death. Advance Experimental Med Biol 691:211-219.<br />
62. Grbić M, Van Leeuwen T, Clark RM, Rombauts S, Rouzé P, Grbić V, Osborne<br />
EJ, Dermauw W, Ngoc PC, Ortego F, Hernán<strong>de</strong>z-Crespo P, Diaz I, Martinez M,<br />
Navajas M, Sucena É, Magalhães S, Nagy L, Pace RM, Djuranović S, Smagghe<br />
G, Iga M, Christiaens O, Veenstra JA, Ewer J, Villalobos RM, Hutter JL, Hudson<br />
SD, Velez M, Yi SV, Zeng J, Pires-da-Silva A, Roch F, Cazaux M, Navarro<br />
M, Zhurov V, Acevedo G, Bjelica A, Fawcett JA, Bonnet E, Martens C, Baele<br />
G, Wissler L, Sanchez-Rodriguez A, Tirry L, Blais C, Demeestere K, Henz SR,<br />
Gregory TR, Mathieu J, Verdon L, Farinelli L, Schmutz J, Lindquist E, Feyereisen<br />
R, Van <strong>de</strong> Peer Y. (2011). The genome of Tetranychus urticae reveals<br />
herbivorous pest adaptations. Nature 479(7374):487-92.<br />
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64.<br />
65.<br />
66.<br />
67.<br />
68.<br />
69.<br />
70.<br />
71.<br />
72.<br />
73.<br />
74.<br />
75.<br />
76.<br />
Guerrero A, Carneiro J, Pimentel A, Wood CD, Corkidi G, Darszon A. (2011).<br />
Strategies for locating <strong>the</strong> female gamete: <strong>the</strong> importance of measuring<br />
sperm trajectories in three spatial dimensions. Molecular Human Reproduction<br />
17(8) Special Issue: SI 511-523.<br />
Guimarãis M, Gregório A, Cruz A, Guyon N, Moita MA. (2011). Time <strong>de</strong>termines<br />
<strong>the</strong> neural circuit un<strong>de</strong>rlying associative fear learning. Frontiers in<br />
behavioral neuroscience 5:89.<br />
Henriques ES, Brito RMM, Soares H, Ventura S, <strong>de</strong> Oliveira VL, Parkhouse<br />
RME. (2011). Mo<strong>de</strong>ling of <strong>the</strong> Toll-like receptor 3 and a putative Toll-like<br />
receptor 3 antagonist enco<strong>de</strong>d by <strong>the</strong> African swine fever virus. Protein<br />
Science 20(2):247-255.<br />
Hogekamp C, Damaris A, Pereira P, Becker JD, Hohnjec N, Küster H. (2011).<br />
Laser-microdissection unravels cell-type specific transcription in arbuscular<br />
mycorrhizal roots including CAAT-box TF gene expression correlating<br />
with fungal contact and spread. Plant Physiology 157(4):2023-43.<br />
Hume AN, Seabra MC. (2011). Melanosomes on <strong>the</strong> move: a mo<strong>de</strong>l to un<strong>de</strong>rstand<br />
organelle dynamics. Biochemical Society Transactions 39(5):1191-1196.<br />
Hume AN, Wilson MS, Ushakov DS, Ferenczi MA, Seabra MC. (2011). Semiautomated<br />
analysis of organelle movement and membrane content: un<strong>de</strong>rstanding<br />
Rab-motor complex transport function. Traffic 12(12):1686-701.<br />
Janody F, Treisman J. (2011). Requirements for Mediator Complex Subunits<br />
Distinguish Three Classes of Notch Target Genes at <strong>the</strong> Drosophila Wing<br />
Margin. Developmental Dynamics 240(9):2051-2059.<br />
Jesus AA, Liphaus BL, Silva CA, Bando SY, Andra<strong>de</strong> LEC, Coutinho A,<br />
Carneiro-Sampaio M. (2011). Complement and antibody primary immuno<strong>de</strong>ficiency<br />
in juvenile systemic lupus ery<strong>the</strong>matosus patients. LUPUS<br />
20(12):1275-1284.<br />
Jezowska B, Fernán<strong>de</strong>z BG, Amândio AR, Duarte P, Men<strong>de</strong>s C, Brás-Pereira C,<br />
Janody F. (2011). A dual function of Drosophila capping protein on DE-cadherin<br />
maintains epi<strong>the</strong>lial integrity and prevents JNK-mediated apoptosis.<br />
Developmental Biology 360(1):143-59.<br />
Kawasumi A, Nakamura T, Iwai N, Yashiro K, Saijoh Y, Belo JA, Shiratori H,<br />
Hamada H. (2011). Left-right asymmetry in <strong>the</strong> level of active Nodal protein<br />
produced in <strong>the</strong> no<strong>de</strong> is translated into left-right asymmetry in <strong>the</strong> lateral<br />
plate of mouse embryos. Developmental Biology 353(2):321-330.<br />
Kirilenko P, He G, Mankoo B, Mallo M, Jones R, Bobola N. (2011). Transient<br />
activation of Meox1 is an early component of <strong>the</strong> gene regulatory network<br />
downstream of Hoxa2. Molecular and Cellular Biology 31(6):1301-1308.<br />
Konrad KR, Wudick MM, Feijó JA. (2011). Calcium regulation of tip growth:<br />
new genes for old mechanisms. Current Opinion in Plant Biology 14(6):721-30.<br />
Lima FA, Moreira-Filho CA, Ramos PL, Brentani H, Lima L <strong>de</strong> A, Arrais M,<br />
Bento-<strong>de</strong>-Souza LC, Bento-<strong>de</strong>-Souza L, Duarte MI, Coutinho A, Carneiro-<br />
Sampaio M. (2011). Decreased AIRE Expression and Global Thymic Hypofunction<br />
in Down Syndrome. Journal of Immunology 187(6):3422-3430.<br />
Lin J-Y, Lin W-J, Hong W-H, Hung W-C, Nowotarski SH, Gouveia SM, Cristo I,<br />
Lin K-H. (2011). Morphology and organization of tissue cells in 3D microenvironment<br />
of monodisperse foam scaffolds. Soft Matter 7(21):10010-10016.<br />
77. Lourenço A, Conover M, Nematza<strong>de</strong>h A, Pan F, Wong A, Shatkay H, Rocha<br />
LM. (2011). A Linear Classifier Based on Entity Recognition Tools and a Statistical<br />
Approach to Method Extraction in <strong>the</strong> Protein-Protein Interaction<br />
Literature. BMC Bioinformatics 12(Suppl 8):S12.<br />
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78.<br />
79.<br />
80.<br />
81.<br />
82.<br />
83.<br />
84.<br />
85.<br />
86.<br />
87.<br />
88.<br />
89.<br />
90.<br />
91.<br />
Krallinger M, et al. (2011). The Protein-Protein Interaction tasks of BioCreative<br />
III: classification/ranking of articles and linking bio-ontology concepts<br />
to full text. BMC Bioinformatics 12(Suppl 8):S3.<br />
Mahtani-Patching J, Neves JF, Pang DJ, Stoenchev KV, Aguirre-Blanco AM,<br />
Silva-Santos B, Pennington DJ. (2011). PreTCR and TCR gamma <strong>de</strong>lta Signal<br />
Initiation in Thymocyte Progenitors Does Not Require Domains Implicated<br />
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Manso H, Krug T, Sobral J, Albergaria I, Gaspar G, Ferro JM, Oliveira SA,<br />
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stroke susceptibility through main effects and gene-gene interactions.<br />
Journal of Cerebral Blood Flow & Metabolism 31(8):1751-1759.<br />
Marcelino E, Martins T, Morais JB, Nolasco S, Cortes H, Hemphill A, Leitao<br />
A, Novo C. (2011). Besnoitia besnoiti protein disulfi<strong>de</strong> isomerase (BbPDI):<br />
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Marengo EB, <strong>de</strong> Moraes LV, Melo RL, Balan A, Fernan<strong>de</strong>s BL, Tambourgi DV,<br />
Rizzo LV, Sant'Anna OA. (2011). A Mycobacterium leprae Hsp65 Mutant as a<br />
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Signal Autoinducer-2 (AI-2) Characterization of Phospho-(S)-45-Dihydroxy-<br />
23-Pentanedione Isomerization by LsrG PROTEIN. Journal of Biological<br />
Chemistry 286(20):18331-18343.<br />
Martins BMC, Swain PS. (2011). Tra<strong>de</strong>-Offs and Constraints in Allosteric<br />
Sensing. PLOS Computational Biology 7(11):Article Number: e1002261.<br />
Martins H, Villesen P. (2011). Improved Integration Time Estimation of Endogenous<br />
Retroviruses with Phylogenetic Data. PLOS ONE 6(3):Art. Nº e14745.<br />
Martins M, Rosa A, Gue<strong>de</strong>s LC, Fonseca BV, Gotovac K, Violante S, Mestre T,<br />
Coelho M, Rosa MM, Martin ER, Vance JM, Outeiro TF, Wang L, Borovecki F,<br />
Ferreira JJ, Oliveira SA. (2011). Convergence of miRNA Expression Profiling<br />
alpha-Synuclein Interaction and GWAS in Parkinson's Disease. PLOS ONE<br />
6(10): Article Number: e25443<br />
Mateus AM, Gorfinkiel N, Schamberg S, Arias AM. (2011). Endocytic and<br />
Recycling Endosomes Modulate Cell Shape Changes and Tissue Behaviour<br />
during Morphogenesis in Drosophila. PLOS ONE 6(4): Art. Nº e18729.<br />
Mateus AM, Arias AM. (2011). Patterned Cell Adhesion Associated with Tissue<br />
Deformations during Dorsal Closure in Drosophila. PLOS ONE 6(11): Article<br />
Number: e27159.<br />
Mateus O, Araujo R, Natario C, Castanhinha R. (2011). A new specimen of<br />
<strong>the</strong> <strong>the</strong>ropod dinosaur Baryonyx from <strong>the</strong> early Cretaceous of Portugal and<br />
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McCue AD, Cresti M, Feijo JA, Slotkin RK. (2011). Cytoplasmic connection<br />
of sperm cells to <strong>the</strong> pollen vegetative cell nucleus: potential roles of <strong>the</strong><br />
male germ unit revisited. Journal of Experimental Botany 62(5):1621-1631<br />
Sp Iss SI.<br />
McLellan JS, Correia BE, Chen M, Yang YP, Graham BS, Schief WR, Kwong<br />
PD. (2011). Design and Characterization of Epitope-Scaffold Immunogens<br />
That Present <strong>the</strong> Motavizumab Epitope from Respiratory Syncytial Virus.<br />
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92. Mendonca AG, Alves RJ, Pereira-Leal JB. (2011). Loss of Genetic Redundancy<br />
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e1001082<br />
IGC ANNUAL REPORT ‘11<br />
PUBLICATIONS<br />
113
93.<br />
94.<br />
95.<br />
96.<br />
97.<br />
98.<br />
99.<br />
100.<br />
101.<br />
102.<br />
103.<br />
104.<br />
105.<br />
106.<br />
107.<br />
Michard E, Lima PT, Borges F, Silva AC, Portes MT, Carvalho JE, Gilliham M,<br />
Liu L-H, Obermeyer G, Feijó JA. (2011). Glutamate Receptor-like Genes Form<br />
Ca 2+ Channels in Pollen tubes and are regulated by Pistil D-Serine. Science<br />
332(6028):434-7.<br />
Moura RA, Cascão R, Perpétuo I, Canhão H, Vieira-Sousa E, Mourão AF,<br />
Rodrigues AM, Polido-Pereira J, Queiroz MV, Rosário HS, Souto-Carneiro<br />
MM, Graca L, Fonseca JE. (2011). Cytokine pattern in very early rheumatoid<br />
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50(2):278-82.<br />
Mourao-Sa D, Robinson MJ, Zelenay S, Sancho D, Chakravarty P, Larsen<br />
R, Plantinga M, Van Rooijen N, Soares MP, Lambrecht B, Reis e Sousa C.<br />
(2011). CLEC-2 signaling via Syk in myeloid cells can regulate inflammatory<br />
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Naldi A, Remy E, Thieffry D, Chaouiya C. (2011). Dynamically consistent<br />
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Nascimento R, Costa H, Dias JD, Parkhouse RM. (2010). MHV-68 Open Reading<br />
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of Virology Nov. 23 156(3):375-386.<br />
Nascimento R, Costa H, Parkhouse RM. (2011). Virus manipulation of cell cycle.<br />
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Oliveira M, Braga S, Passos-Coelho JL, Fonseca R, Oliveira J. (2011). Complete<br />
response in HER2+leptomeningeal carcinomatosis from breast cancer<br />
with intra<strong>the</strong>cal trastuzumab. Breast Cancer Research and Treatment<br />
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Oliveira RF, Canario AVM. (2011). Nemo through <strong>the</strong> looking-glass: a commentary<br />
on Desjardins & Fernald. Biology Letters 7(4):487-488.<br />
Oliveira RF, Silva JF, Simoes JM. (2011). Fighting Zebrafish: Characterization<br />
of Aggressive Behavior and Winner-Loser Effects. Zebrafish 8(2):73-81.<br />
Oliveira VG, Carida<strong>de</strong> M, Paiva RS, Demengeot J, Graca L. (2011). Sub-optimal<br />
CD4(+) T-cell activation triggers autonomous TGF-β-<strong>de</strong>pen<strong>de</strong>nt conversion<br />
to Foxp3(+) regulatory T cells. European Journal of Immunology<br />
41(5):1249-55.<br />
Olivieri D, Faro J, Gomez-Con<strong>de</strong> I, Tadokoro CE. (2011). Tracking T and B<br />
cells from two-photon microscopy imaging using constrained SMC clusters.<br />
J Integr Bioinform 8(3):180.<br />
Peca J, Feliciano C, Ting JT, Wang WT, Wells MF, Venkatraman TN, Talaignair<br />
N, Lascola CD, Fu ZY, Feng GP. (2011). Shank3 mutant mice display autisticlike<br />
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Pereira AL, Martins M, Oliveira MM, Carrapico F. (2011). Morphological and genetic<br />
diversity of <strong>the</strong> family Azollaceae inferred from vegetative characters<br />
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Perfeito L, Sousa A, Gordo I. (2011). Fitness effects of mutations in bacteria.<br />
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Portugal S, Carret C, Recker M, Armitage AE, Goncalves LA, Epiphanio S,<br />
Sullivan D, Roy C, Newbold CI, Drakesmith H, Mota MM. (2011). Host-mediated<br />
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108. Proenca CC, Gao KP, Shmelkov SV, Rafii S, Lee FS. (2011). Slitrks as emerging<br />
candidate genes involved in neuropsychiatric disor<strong>de</strong>rs. Trends in Neuroscience<br />
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IGC ANNUAL REPORT ‘11<br />
PUBLICATIONS<br />
114
109.<br />
110.<br />
111.<br />
112.<br />
113.<br />
114.<br />
115.<br />
116.<br />
117.<br />
118.<br />
119.<br />
120.<br />
121.<br />
122.<br />
123.<br />
Ramiro RS, Alpedrinha J, Carter L, Gardner A, Reece SE. (2011). Sex and<br />
Death: The Effects of Innate Immune Factors on <strong>the</strong> Sexual Reproduction<br />
of Malaria Parasites. PLOS Pathogens 7(3): Art. Nº e1001309.<br />
Ray-Gallet D, Woolfe A, Vassias I, Pellentz C, Lacoste N, Puri A, Schultz DC,<br />
Pchelintsev NLA, Adams PD, Jansen LET, Almouzni G. (2011). Dynamics of<br />
Histone H3 Deposition In Vivo Reveal a Nucleosome Gap-Filling Mechanism<br />
for H33 to Maintain Chromatin Integrity. Molecular Cell 44(6):928-941.<br />
Real C, Remedio L, Caiado F, Igreja C, Borges C, Trinda<strong>de</strong> A, Pinto-do-O P,<br />
Yagita H, Duarte A, Dias S. (2011). Bone Marrow-Derived Endo<strong>the</strong>lial Progenitors<br />
Expressing Delta-Like 4 (Dll4) Regulate Tumor Angiogenesis. PLOS<br />
ONE 6(4): Art. Nº e18323.<br />
Rezola A, <strong>de</strong> Figueiredo LF, Brock M, Pey J, Podhorski A, Wittmann C,<br />
Schuster S, Bockmayr A, Planes FJ. (2011). Exploring metabolic pathways<br />
in genome-scale networks via generating flux mo<strong>de</strong>s. Bioinformatics<br />
15;27(4):534-540.<br />
Ribeiro T, Santos S, Marques MIM, Gilmore M, Lopes MDS. (2011). I<strong>de</strong>ntification<br />
of a new gene vanV in vanB operons of Enterococcus faecalis.<br />
International Journal of Antimicrobial Agents 37(6):554-557.<br />
Ribot JC, <strong>de</strong>Barros A, Silva-Santos B. (2011). Searching for signal 2: costimulation<br />
requirements of gamma <strong>de</strong>lta T cells. Cellular and Molecular Life<br />
Sciences 68(14):2345-2355.<br />
Rickenbacher E, Greve DN, Azma S, Pfeuffer J, Marinkovic K. (2011). Effects<br />
of alcohol intoxication and gen<strong>de</strong>r on cerebral perfusion: an arterial spin<br />
labeling study. Alcohol 45(8):725-37.<br />
Ros AFH, Lusa J, Meyer M, Soares M, Oliveira RF, Brossard M, Bshary R.<br />
(2011). Does access to <strong>the</strong> bluestreak cleaner wrasse Labroi<strong>de</strong>s dimidiatus<br />
affect indicators of stress and health in resi<strong>de</strong>nt reef fishes in <strong>the</strong> Red Sea?<br />
Hormones and Behavior 59(1):151-158.<br />
Saenko SV, Marialva MS, Belda<strong>de</strong> P. (2011). Involvement of <strong>the</strong> conserved<br />
Hox gene Antennapedia in <strong>the</strong> <strong>de</strong>velopment and evolution of a novel trait.<br />
Evo<strong>de</strong>vo 19;2:9.<br />
Santos FJ, Costa RM, Tecuapetla F. (2011). Stimulation on <strong>de</strong>mand: closing<br />
<strong>the</strong> loop on <strong>de</strong>ep brain stimulation. Neuron 72(2):197-8.<br />
Santos ME, Athanasiadis A, Leitao AB, DuPasquier L, Sucena E. (2011). Alternative<br />
Splicing and Gene Duplication in <strong>the</strong> Evolution of <strong>the</strong> FoxP Gene<br />
Subfamily. Molecular Biology and Evolution 28(1):237-247.<br />
Serpa J, Dias S, (2011). Metabolic cues from <strong>the</strong> microenvironment act as a<br />
major selective factor for cancer progression and metastases formation.<br />
Cell Cycle 10(2):180-181.<br />
Serrano M, Real G, Santos J, Carneiro J, Moran CP Jr, Henriques AO. (2011).<br />
A Negative Feedback Loop That Limits <strong>the</strong> Ectopic Activation of a Cell<br />
Type-Specific Sporulation Sigma Factor of Bacillus subtilis. PLOS GENETICS<br />
7(9): Article Number: e1002220.<br />
Sharma R, Stuckas H, Bhaskar R, Khan I, Goyal SP, Tie<strong>de</strong>mann R. (2011). Genetically<br />
distinct population of Bengal tiger (Pan<strong>the</strong>ra tigris tigris) in Terai<br />
Arc Landscape (TAL) of India. Mammalian Biology 76(4):484-490.<br />
Silva A, Laranjeira ABA, Martins LR, Cardoso BA, Demengeot J, Yunes JA,<br />
Seddon B, Barata JT. (2011). IL-7 Contributes to <strong>the</strong> Progression of Human<br />
T-cell Acute Lymphoblastic Leukemias. Cancer Research 71(14):4780-4789.<br />
124. Silva AC, Filipe M, Steinbeisser H, Belo JA. (2011). Characterization of Cer-<br />
1 cis-regulatory region during early Xenopus <strong>de</strong>velopment. Development<br />
Genes and Evolution 221(1):29-41.<br />
IGC ANNUAL REPORT ‘11<br />
PUBLICATIONS<br />
115
125.<br />
126.<br />
127.<br />
128.<br />
129.<br />
130.<br />
131.<br />
132.<br />
133.<br />
134.<br />
135.<br />
136.<br />
137.<br />
138.<br />
139.<br />
Silva IN, Ferreira AS, Becker JD, Zlosnik JEA, Speert DP, He J, Mil-Homens<br />
D, Moreira LM. (2011). Mucoid morphotype variation of Burkhol<strong>de</strong>ria multivorans<br />
during chronic cystic fibrosis lung infection is correlated with changes<br />
in metabolism motility biofilm formation and virulence. Microbiology<br />
157(Pt 11):3124-37.<br />
Silva M, Bodor D, StellfoxM, Martins N, Hochegger H, Foltz D, Jansen LET.<br />
(2011). Cdk Activity Couples Epigenetic Centromere Inheritance to Cell Cycle<br />
Progression. Dev Cell 22(1):52-63.<br />
Silva RF, Mendonca SCM, Carvalho LM, Reis AM, Gordo I, Trinda<strong>de</strong> S, Dionisio<br />
F. (2011). Pervasive Sign Epistasis between Conjugative Plasmids<br />
and Drug-Resistance Chromosomal Mutations. PLOS GENETICS 7(7):Article<br />
Number: e1002181<br />
Soares MC, Oliveira RF, Ros AFH, Grutter A, Bshary R. (2011). Tactile stimulation<br />
lowers stress in fish. Nature Communications 2: Article Number: 534.<br />
Sousa A, Magalhães S, Gordo I. (2011). Cost of antibiotic resistance and<br />
<strong>the</strong> geometry of adaptation. Molecular biology and evolution [Epub<br />
ahead of print].<br />
Sousa FL, Alves RJ, Pereira-Leal JB, Teixeira M, Pereira MM. (2011). A Bioinformatics<br />
Classifier and Database for Heme-Copper Oxygen Reductases.<br />
PLOS ONE 6(4): Art. Nº e19117.<br />
Sousa S, Afonso N, Bensimon-Brito A, Fonseca M, Simoes M, Leon J, Roehl<br />
H, Cancela ML, Jacinto A. (2011). Differentiated skeletal cells contribute<br />
to blastema formation during zebrafish fin regeneration. Development<br />
138(18):3897-3905.<br />
Sousa VC, Beaumont MA, Fernan<strong>de</strong>s P, Coelho MM, Chikhi L. (2011). Population<br />
divergence with or without admixture: selecting mo<strong>de</strong>ls using an ABC<br />
approach. Heredity (Edinb) [Epub ahead of print].<br />
Su X, Qiu W, Gupta M Jr, Pereira-Leal JB, Reck-Peterson S, Pellman D. (2011).<br />
Mechanisms Un<strong>de</strong>rlying <strong>the</strong> Dual-Mo<strong>de</strong> Regulation of Microtubule Dynamics<br />
by Kip3/Kinesin-8. Molecular Cell 43(5):751-763.<br />
Szuts TA, Fa<strong>de</strong>yev V, Kachiguine S, Sher A, Grivich MV, Agrochao M, Hottowy<br />
P, Dabrowski W, Lubenov EV, Siapas AG, Uchida N, Litke AM, Meister<br />
M. (2011). A wireless multi-channel neural amplifier for freely moving animals.<br />
Nature Neuroscience 14(2):263-269.<br />
Taraf<strong>de</strong>r AK, Wasmeier C, Figueiredo AC, Booth AE, Orihara A, Ramalho JS,<br />
Hume A, Seabra MC. (2011). Rab27a Targeting to Melanosomes Requires<br />
Nucleoti<strong>de</strong> Exchange but not Effector Binding. Traffic 12(8):1056-66.<br />
Tavares B, Dias PN, Domingos P, Moura TF, Feijó JA, Bicho A. (2011). Calciumregulated<br />
anion channels in <strong>the</strong> plasma membrane of Lilium longiflorum<br />
pollen protoplasts. The New Phytologist 192(1):45-60.<br />
Tavares B, Domingos P, Dias PN, Feijó JA, Bicho A. (2011). The essential role<br />
of anionic transport in plant cells: <strong>the</strong> pollen tube as a case study. Journal<br />
of Experimental Botany 62(7):2273-98.<br />
Teixeira V, Are<strong>de</strong> N, Gardner R, Rodriguez-Leon J, Tavares AT. (2011). Targeting<br />
<strong>the</strong> hemangioblast with a novel cell type-specific enhancer. BMC<br />
Developmental Biology 11(1):76.<br />
Thorsteinsdóttir S, Deries M, Cachaço AS, Bajanca F. (2011). The extracellular<br />
matrix dimension of skeletal muscle <strong>de</strong>velopment. Developmental Biology<br />
354(2):191-207.<br />
140. Tomás AR, Certal AC, Rodríguez-León J. (2011). FLRT3 as a key player on<br />
chick limb <strong>de</strong>velopment. Developmental Biology 355(2):324-33.<br />
IGC ANNUAL REPORT ‘11<br />
PUBLICATIONS<br />
116
141.<br />
142.<br />
143.<br />
144.<br />
145.<br />
146.<br />
147.<br />
148.<br />
149.<br />
150.<br />
151.<br />
152.<br />
153.<br />
Tsuji S, Cortesao C, Bram R, Platt J, Cascalho M. (2011). TACI <strong>de</strong>ficiency impairs<br />
sustained Blimp-1 expression in B cells <strong>de</strong>creasing long-lived plasma<br />
cells in <strong>the</strong> bone marrow. Blood 118(22):5832-5839.<br />
Van Damme P, Hole K, Pimenta-Marques A, Helsens K, Van<strong>de</strong>kerckhove J,<br />
Martinho RG, Gevaert K, Arnesen T. (2011). NatF Contributes to an Evolutionary<br />
Shift in Protein N-Terminal Acetylation and Is Important for Normal<br />
Chromosome Segregation. PLoS Genetics 7(7): e1002169.<br />
Van <strong>de</strong> Ven C, Bialecka M, Neijts R, Young T, Rowland J, Stringer E, van<br />
Rooijen C, Meijlink F, Novoa A, Freund J-N, Mallo M, Beck F, Deschamps<br />
J. (2011). Concerted involvement of Cdx/Hox genes and Wnt signaling in<br />
morphogenesis of <strong>the</strong> caudal neural tube and cloacal <strong>de</strong>rivatives from <strong>the</strong><br />
posterior growth zone. Development 138(16):3451-3462.<br />
Velez <strong>de</strong> Mendizabal N, Carneiro J, Sole RV, Goni J, Bragard J, Martinez-<br />
Forero I, Martinez-Pasamar S, Sepulcre J, Torreal<strong>de</strong>a J, Bagnato F, Garcia-<br />
Ojalvo J, Villoslada P. (2011). Mo<strong>de</strong>ling <strong>the</strong> effector - regulatory T cell crossregulation<br />
reveals <strong>the</strong> intrinsic character of relapses in Multiple Sclerosis.<br />
BMC Systems Biology 5 Article Number: 114.<br />
Vicente MI, Mainen ZF. (2011). Convergence in <strong>the</strong> piriform cortex. Neuron<br />
70(1):1-2.<br />
Vilares I, Dam G, Kording K. (2011). Trust and Reciprocity: Are Effort and<br />
Money Equivalent? PLOS ONE 6(2):e17113.<br />
Vilares I, Kording K. (2011). Bayesian mo<strong>de</strong>ls: <strong>the</strong> structure of <strong>the</strong> world<br />
uncertainty behavior and <strong>the</strong> brain. Annals of <strong>the</strong> New York Aca<strong>de</strong>my of<br />
Sciences 1224(1):22-39.<br />
Vilas-Boas F, Fior R, Swedlow JR, Storey KG, Henrique D. (2011). A novel reporter<br />
of notch signalling indicates regulated and random notch activation<br />
during vertebrate neurogenesis. BMC Biology 9: Article Number: 58.<br />
Vinod PK, Freire P, Rattani A, Ciliberto A, Uhlmann F, Novak B. (2011). Computational<br />
mo<strong>de</strong>lling of mitotic exit in budding yeast: <strong>the</strong> role of separase and<br />
Cdc14 endocycles. Journal of <strong>the</strong> Royal Society Interface 8(61):1128-1141.<br />
Xavier JM, Shafiee NM, Gha<strong>de</strong>ri F, Rosa A, Abdollahi BS, Nadji A, Shahram<br />
F, Davatchi F, Oliveira SA. (2011). Association of mitochondrial polymorphism<br />
m709G > A with Behcet's disease. Annals of <strong>the</strong> Rheumatic Diseases<br />
70(8):1514-1516.<br />
Winter O, Mohr E, Manz RA. (2011). Alternative cell types form a Multi-<br />
Component-Plasma-Cell-Niche. Immunology Letters 141(1):145-146.<br />
Wollenberg I, Agua-Doce A, Hernan<strong>de</strong>z A, Almeida C, Oliveira V, Faro J,<br />
Graca L. (2011). Regulation of <strong>the</strong> Germinal Center Reaction by Foxp3(+)<br />
Follicular Regulatory T Cells. Journal of Immunology 187(9):4553-4560.<br />
Zenclussen ML, Casalis PA, El-Mousleh T, Rebelo S, Langwisch S, Linzke N,<br />
Volk H-D, Fest S, Soares MP, Zenclussen AC. (2011). Haem oxygenase-1 dictates<br />
intrauterine fetal survival in mice via carbon monoxi<strong>de</strong>. Journal of<br />
Pathology 225(2):293-304.<br />
154. Zenclussen ML, Jensen F, Rebelo S, El-Mousleh T, Casalis PA, Zenclussen AC.<br />
(2011). Heme Oxygenase-1 Expression in <strong>the</strong> Ovary Dictates a Proper Oocyte<br />
Ovulation Fertilization and Corpora Lutea Maintenance. American journal<br />
of reproductive immunology [Epub ahead of print].<br />
IGC ANNUAL REPORT ‘11<br />
PUBLICATIONS<br />
117
BOOK CHAPTERS<br />
Cabrito TR, Remy E, Teixeira MC, Duque P, Sá-Correia I. (2011). Resistance to<br />
herbici<strong>de</strong>s in <strong>the</strong> mo<strong>de</strong>l organisms Saccharomyces cerevisiae and Arabidopsis<br />
thaliana: <strong>the</strong> involvement of multidrug resistance transporters in Herbici<strong>de</strong>s and<br />
Environment (ed A Kortekamp). Tech Vienna Austria pp 623-640.<br />
Costa H, Correia S, Nascimento R, Parkhouse RM. (2011). Interferon <strong>the</strong> Cell Cycle<br />
and Herpesvirus in Herpesviridae - A Look Into This Unique Family of Viruses.<br />
Edited by George D Magel and Stephen Tyring. Tech Education and Publishing<br />
(ISBN 978-953-51-0186-4)<br />
Sepulveda N, Carneiro J. (2011), Repertoire dynamics of peripheral regulatory<br />
and effector T cells competing for antigen presenting cells. Ma<strong>the</strong>matical Mo<strong>de</strong>ls<br />
and Immune Cell Biology (Editors: Ly<strong>the</strong> and Molina-Paris) Elsevier.<br />
PROCEEDINGS<br />
Luna B, Chaouiya C. (2011). Relating Formalisms for <strong>the</strong> Qualitative Mo<strong>de</strong>lling of<br />
Regulatory Networks. 5th In Conf on Practical Applications of Computational<br />
Biology & Bioinformatics (PACBB 2011) in Advances in Intelligent and Soft<br />
Computing Vol 93 pp. 293-302.<br />
Kolchinsky A, Rocha LM. (2011). Prediction and Modularity in Dynamical Systems.<br />
Advances in Artificial Life Proceedings of <strong>the</strong> Eleventh European Conference<br />
on <strong>the</strong> Syn<strong>the</strong>sis and Simulation of Living Systems (ECAL 2011) Paris France<br />
MIT Press pp. 423-430.<br />
Marques-Pita M, Rocha LM. (2011) Schema Re<strong>de</strong>scription in Cellular Automata:<br />
Revisiting Emergence in Complex Systems. The 2011 IEEE Symposium on Artificial<br />
Life at <strong>the</strong> IEEE Symposium Series on Computational Intelligence 2011<br />
Paris France pp. 233-240.<br />
IGC ANNUAL REPORT ‘11<br />
PUBLICATIONS<br />
118
IGC ANNUAL REPORT ‘11<br />
PUBLICATIONS<br />
119
PRIZES AND HONOURS<br />
INSTITUTO GULBENKIAN DE CIÊNCIA<br />
Best Places to Work for Post-docs 2011 Award<br />
The Scientist - Faculty of 1000's Magazine of <strong>the</strong> Life Sciences<br />
Professional Merit Award<br />
Oeiras Rotary Club (Portugal)<br />
Honorary Membership of <strong>the</strong> Or<strong>de</strong>m <strong>de</strong> Sant'Iago da Espada<br />
Presi<strong>de</strong>nt of <strong>the</strong> Republic (Portugal)<br />
IGC SCIENCE COMMUNICATION TEAM<br />
Ciencia en Acción - Teaching Resources 1st Place<br />
Ciencia en Acción (Spain)<br />
IGC ANNUAL REPORT ‘11<br />
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António Coutinho<br />
Professional Merit Award<br />
Oeiras Rotary Club (Portugal)<br />
Miguel Soares<br />
Roche Organ Transplantation Research Foundation (ROTRF) Recognition Prize<br />
Recognising Excellence in Organ Transplantation Research<br />
Seeds of Science - Life Science Award<br />
Ciência Hoje and Ciência Viva (Portugal)<br />
Miguel Godinho Ferreira<br />
Gold Medal of Merit<br />
Oeiras City Council (Portugal)<br />
José Feijó<br />
Gold Medal of Merit<br />
Oeiras City Council (Portugal)<br />
Tiago Carneiro<br />
Best Paper Award<br />
Portuguese Society for Human Genetics (Portugal)<br />
Xin Jin and Rui Costa<br />
Best Paper Award<br />
Portuguese Society for Neuroscience and Bayer (Portugal)<br />
Rui Costa<br />
Elected Vice-Presi<strong>de</strong>nt, Portuguese Society for Neuroscience<br />
Nominated to <strong>the</strong> Editorial Board, Frontiers in Integrative Neuroscience<br />
Florence Janody<br />
Nominated to <strong>the</strong> Scientific Editorial Board, The Scientific World and PLoS ONE<br />
Isabel Gordo<br />
Nominated Associate Editor, Evolution<br />
Nominated Review Editor, Fronteirs in Population and Evolutionary Genetics<br />
Moises Mallo<br />
Nominated to <strong>the</strong> Editorial Board, Developmental Dynamics<br />
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BUDGET<br />
OVERVIEW<br />
TOTAL BUDGET 2011: €17.4million<br />
EXTERNAL PUBLIC<br />
(EUROPEAN COMMISSION, FCT, CITY COUNCILS, OTHERS)<br />
€5.2million<br />
CALOUSTE GULBENKIAN FOUNDATION<br />
€9million<br />
EXTERNAL PRIVATE<br />
(CHAMPALIMAUD FOUNDATION, BILL & MELINDA GATES FOUNDATION, COMPANIES, OTHERS)<br />
€3.2million<br />
BREAKDOWN OF IGC EXPENDITURE 2011<br />
TOTAL: €17.4million<br />
€7million<br />
€8.6million<br />
PERSONELL<br />
(STAFF & RESEARCHERS))<br />
OPERATIONS<br />
(NEW EQUIPMENT, FACILITY COSTS, ETC)<br />
INFRASTRUCTURE<br />
(BUILDING MAINTENANCE, REFURBISHMENTS)<br />
€1.8million<br />
EXTERNAL FUNDING<br />
€2.2million<br />
CALOUTE GULBENKIAN FOUNDATION<br />
€6.4million<br />
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GRADUATE<br />
TRAINING<br />
AND<br />
EDUCATION
PHD PROGRAMME<br />
IN INTEGRATIVE<br />
BIOMEDICAL SCIENCES<br />
Thiago Carvalho Head<br />
PhD in Immunology, Universida<strong>de</strong> do Porto, Portugal, 2003<br />
The IGC's PhD Programme in Integrative Biomedical Sciences (PIBS) provi<strong>de</strong>s<br />
a solid foundation in <strong>the</strong> life sciences, and exposes stu<strong>de</strong>nts to cutting edge<br />
research, before <strong>the</strong>y <strong>de</strong>sign and submit <strong>the</strong>ir in<strong>de</strong>pen<strong>de</strong>nt research projects<br />
un<strong>de</strong>r <strong>the</strong> guidance of Institute scientists. PIBS stu<strong>de</strong>nts are an international<br />
group, hailing from many different educational backgrounds. During <strong>the</strong>ir aca<strong>de</strong>mic<br />
modules, stu<strong>de</strong>nts are taught by both IGC scientists and an international<br />
faculty of leading scientists from around <strong>the</strong> world.<br />
SUPPORT STAFF<br />
Manuela Cor<strong>de</strong>iro (Secretary)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
Calouste <strong>Gulbenkian</strong> Foundation, Portugal<br />
Stu<strong>de</strong>nt life at <strong>the</strong> IGC is not restricted to <strong>the</strong> course modules, with several<br />
workshops and courses available throughout <strong>the</strong> year, an abundance of guest<br />
seminar speakers and meetings stu<strong>de</strong>nts <strong>the</strong>mselves organise. PIBS represents<br />
<strong>the</strong> continuation of a strong investment in graduate education at <strong>the</strong> IGC, dating<br />
back to <strong>the</strong> first PhD programme, created in 1993. IGC alumni have not only been<br />
personally successful, but over <strong>the</strong> past <strong>de</strong>ca<strong>de</strong> those who stayed or returned<br />
to Portugal have dramatically reshaped <strong>the</strong> country’s research landscape. The<br />
PIBS programme is supported by <strong>the</strong> Fundação para Ciência e Tecnologia and<br />
<strong>the</strong> Calouste <strong>Gulbenkian</strong> Foundation.<br />
STUDENTS IN 2011<br />
Ana Rita Aires Portugal Evolutionary and Developmental Biology Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Ana M. Ribeiro Portugal Evolutionary and Developmental Biology Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Ana Stankovic Serbia Experimental Biomedicine University of Belgra<strong>de</strong>, Serbia<br />
Irma Lasheras Spain Biology, Evolution, Biodiversity, and Conservation Lei<strong>de</strong>n University, The Ne<strong>the</strong>rlands<br />
Jaroslaw Surkont Poland Biotechnology Jagiellonian University, Poland<br />
Maria Ines Pais Portugal Evolutionary and Developmental Biology Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Marta Marialva Portugal Evolutionary and Developmental Biology Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Ozhan Ozkaya Turkey Molecular Biology and Genetics Istanbul Technical University, Turkey<br />
Rafal Gumienny Poland Biotechnology Jagiellonian University, Poland<br />
Rômulo Areal Brazilian Oncology Research National Cancer Institute, Brazil<br />
Sandra Tavares Portugal Molecular Biomedicine Universida<strong>de</strong> <strong>de</strong> Aveiro, Portugal<br />
Sara Esteves Portugal Evolutionary and Developmental Biology Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
COURSES IN 2011<br />
History of Biological Concepts<br />
3 - 7 October<br />
Organiser: Thiago Carvalho (IGC, PT)<br />
Faculty: Pietro Corsi (Oxford Univ., UK), Jonathan Howard (University of Cologne, DE),<br />
Thiago Carvalho, Christen Mirth, Lars Jansen, José Pereira Leal and Joe Paton<br />
(IGC, PT)<br />
Molecular and Structural Biology<br />
10 - 14 October<br />
Organiser: Alekos Athanasiadis (IGC, PT)<br />
Faculty: Reuben Harris (University of Minnesota, USA), Guillermo Montoya<br />
(CNIO, ES), Manwlis Matzapetakis, Claudio Soares and Bruno Victor (ITQB, PT)<br />
Insi<strong>de</strong> <strong>the</strong> Cell<br />
17 - 21 October<br />
Organiser: Lars Jansen (IGC, PT)<br />
Faculty: Niels Gehring, Bjoern Schumacher (University of Cologne, DE), Geneviève<br />
Almouzni (CNRS Institut Curie, Paris, FR), Andrew Holland (UC Davis, USA), Rob<br />
Wolthuis (The Ne<strong>the</strong>rland Cancer Institute, NL), Luísa Figueiredo (IMM, PT), Alekos<br />
Athanasiadis, Lars Jansen and Miguel Godinho Ferreira (IGC, PT)<br />
The PIBS classes of 2010 and 2011 with <strong>the</strong> IGC Director, António Coutinho.<br />
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Cells to organisms I<br />
24 - 28 October<br />
Organiser: Thiago Carvalho (IGC, PT)<br />
Faculty: Pierre Golstein (CIML, FR), Mathieu Molet (Université Pierre et Marie<br />
Curie, FR), Kevin Foster (Oxford University, UK), Etienne Danchin (Université<br />
Paul Sabatier - Toulouse III, FR), Élio Sucena, Thiago Carvalho, Karina Xavier<br />
and Filipe Borges (IGC, PT)<br />
Cells to Organisms II - Limb Development<br />
31 October - 4 November<br />
Organiser(s): Diogo Castro and Joaquin Léon (IGC, PT)<br />
Faculty: Malcolm Logan (MRC London, UK), Juan Hurlé (Universidad <strong>de</strong> Cantabria,<br />
ES), James Sharpe (CRG Barcelona, ES), Florence Janody, Kohtaro Tanaka,<br />
Diogo Castro (IGC, PT), Solveig Thorstensdottir (Universida<strong>de</strong> <strong>de</strong> Lisboa, PT),<br />
Joaquin Rodriguez-Leon (IGC, PT/Extremadura University, ES)<br />
Statistics<br />
7- 11 November<br />
Organiser: Jorge Carneiro (IGC, PT)<br />
Faculty: Jorge Carneiro (IGC, PT)<br />
Genetic Mo<strong>de</strong>ls<br />
14 - 18 November<br />
Organiser: Vitor Barbosa (IGC, PT)<br />
Faculty: Jesús Aguirre (Universidad Nacional Autonóma <strong>de</strong> México, MX), Fernando<br />
Roch (Univ. Toulouse, FR), Karen Liu (Kings College London, UK), Miodrag<br />
Grbic (Univ. Logroño, ES), Thiago Carvalho, Filipa Alves, Sara Carvalho, Ana<br />
Borges, Clara Reis, Moises Mallo, Elena Baena, Ana Mena (IGC, PT)<br />
Evolution<br />
21 - 25 November<br />
Organiser: Isabel Gordo (IGC, PT)<br />
Faculty: Brian Charlesworth (University of Edinburgh, UK), Olivier Tenaillon<br />
(INSERM, FR), Michael Turelli (UC Davis, USA), Henrique Teotónio, Gabriela<br />
Gomes (IGC, PT)<br />
Evolution, Development and Ecology<br />
28 November - 2 December<br />
Organiser(s): Patricia Belda<strong>de</strong>, Élio Sucena and Christen Mirth (IGC, PT)<br />
Faculty: Atanasios Pavlopoulos (University of Cambridge, UK), Christian Braendle<br />
(Université <strong>de</strong> Nice, FR), Johannes Jaeger (EMBL/CRG, ES), Patricia Belda<strong>de</strong>, Élio<br />
Sucena, Christen Mirth (IGC, PT)<br />
Instrumentation<br />
5 - 10 December<br />
Organiser: Nuno Moreno (IGC, PT)<br />
Faculty: Andrew Rid<strong>de</strong>ll (EMBL, DE), Jan Willem Brost (JWB, NL), Nuno Moreno,<br />
Emilio Gualda, Gabriel Martins, Pedro Almada, Jorg Becker (IGC, PT), José Rino<br />
(IMM, PT)<br />
Neurobiology<br />
12 - 21 December<br />
Organiser: Michael Orger, Luisa Vasconcelos (CNP, PT)<br />
Faculty: Rui Costa, Zachary Mainen, Adam Kampff, Michael Orger, Alfonso<br />
Renart, Inbal Israely, Megan Carey, Carlos Ribeiro, Florian Dehmelt, Magor<br />
Lorincz, Luísa Vasconcelos, Susana Lima, Joe Paton (CNP, PT)<br />
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PHD PROGRAMME<br />
IN COMPUTATIONAL<br />
BIOLOGY<br />
Jorge Carneiro Head<br />
PhD in Biomedicine, Universida<strong>de</strong> do Porto, 1997<br />
PI of Quantitative Organism Biology Group<br />
The PhD Programme in Computational Biology (PDBC) is a pilot graduate programme<br />
that aims to create a critical mass of researchers in computational biology,<br />
to act as future lea<strong>de</strong>rs in <strong>the</strong> field. To this end it operates in close association with<br />
its twin initiative, <strong>the</strong> Collaboratorium in Computational Biology. It is sponsored<br />
by <strong>the</strong> Portuguese Ministry for Science and Technology, <strong>the</strong> Calouste <strong>Gulbenkian</strong><br />
Foundation, and Siemens Portugal SA.<br />
The PDBC was launched in 2005, has a <strong>de</strong>finitive lifespan and was planned to<br />
educate four generations of 12 stu<strong>de</strong>nts per year. Education is organised as a<br />
four-year programme divi<strong>de</strong>d into a year of full-time courses, workshops and<br />
projects, covering <strong>the</strong> main aspects of computational biology from <strong>the</strong> biological,<br />
computational, ma<strong>the</strong>matical, chemical and physical points of view, and<br />
three years of research training in a recognised laboratory anywhere in <strong>the</strong><br />
world, including Portugal. Non-national citizens were accepted but <strong>the</strong>ir research<br />
training was restricted to Portuguese research labs. The choice of laboratory<br />
was left to <strong>the</strong> stu<strong>de</strong>nt but met <strong>the</strong> standards set by <strong>the</strong> Programme<br />
Direction.<br />
SUPPORT STAFF<br />
Cláudio Soares (ITQB, Deputy Director)<br />
Manuela Cor<strong>de</strong>iro (Administrative Assistant)<br />
FUNDING<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
Siemens Portugal, SA<br />
Calouste Gulbenkain Foundation, Portugal<br />
PT Foundation, Portugal<br />
Fundação Luso-Americana para o Desenvolvimento (FLAD), Portugal<br />
Fundação para a Computação Científica Nacional (FCCN), Portugal<br />
The PDBC has come of age and all 41 stu<strong>de</strong>nts are carrying out <strong>the</strong>ir research<br />
training in labs in Europe and beyond, and eight (Inês <strong>de</strong> Jesus, José Cruz, Nuno<br />
Men<strong>de</strong>s, Marcio Mourão, Sara da Silva, Pedro Monteiro, Bruno Correia, and Luis<br />
Figueiredo) have obtained <strong>the</strong>ir doctoral <strong>de</strong>gree. Information on <strong>the</strong> individual<br />
stu<strong>de</strong>nts, and completed <strong>the</strong>ses, can be found on <strong>the</strong> programme’s website.<br />
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INDP - INTERNATIONAL<br />
NEUROSCIENCE<br />
DOCTORAL PROGRAMME<br />
Zachary Mainen Head<br />
PhD in Neurosciences, University of California, San Diego, 1995<br />
PI of Systems Neuroscience Group<br />
The INDP aims at providing stu<strong>de</strong>nts with a broad and integrative education<br />
in neuroscience with a focus on <strong>the</strong> neuronal and circuit basis of behaviour.<br />
A main goal of <strong>the</strong> programme is to foster and encourage active participation,<br />
in<strong>de</strong>pen<strong>de</strong>nce and critical thinking on <strong>the</strong> part of <strong>the</strong> stu<strong>de</strong>nts. In <strong>the</strong> first<br />
year of <strong>the</strong> programme, stu<strong>de</strong>nts attend courses structured as modules lasting<br />
one or a few weeks, which cover basic topics in contemporary neuroscience<br />
such as basic cellular and synaptic physiology, sensation and action and cognitive<br />
neuroscience. Quantitative approaches are emphasised and stu<strong>de</strong>nts also<br />
receive background courses on basic biology, ma<strong>the</strong>matics and programming.<br />
The next three years are <strong>de</strong>dicated to research on a specific topic leading to<br />
a PhD <strong>the</strong>sis. No previous background in neuroscience is required, but candidates<br />
with a background in biology or quantitative disciplines are encouraged<br />
to apply.<br />
SUPPORT STAFF<br />
Alexandra Pieda<strong>de</strong> (Assistant)<br />
Alfonso Renart, PhD (Coordinator)<br />
FUNDING<br />
Champalimaud Foundation, Portugal<br />
Fundação para a Ciência e a Tecnologia (FCT), Portugal<br />
Calouste <strong>Gulbenkian</strong> Foundation, Portugal<br />
STUDENTS IN 2011<br />
André Luzardo Brazil Psychobiology Universida<strong>de</strong> <strong>de</strong> São Paulo, Ribeirão Preto, Brazil<br />
Jacques Bourg France Electrical Engineering Inst. National <strong>de</strong>s Sciences Appliquées <strong>de</strong> Lyon, France<br />
Jens Bierfeld Germany Biology University of Konstanz, Konstanz, Germany<br />
João Afonso Portugal Clinical Psychology Inst. Superior Psicologia Aplicada, Lisboa, Portugal<br />
Joaquim Jacob Portugal Neuroscience Fac. Medicina da Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Ricardo Zacarias Portugal Evolutionary and Develop. Biology Fac. Ciências da Univ. <strong>de</strong> Lisboa, Portugal<br />
Roberto Medina Mexico Ma<strong>the</strong>matics University of Illinois at Urbana-Champaign, USA<br />
Silvana Araújo Portugal Psychopharmacology University of Nottingham, United Kingdom<br />
Sofia Soares Portugal Human Biology and Environment Fac. Ciências da Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
Luis Moreira Portugal Ecology Universida<strong>de</strong> <strong>de</strong> Coimbra, Portugal<br />
COURSES IN 2011<br />
Introduction<br />
10 - 14 January<br />
Organiser(s): Susana Lima, Marta Moita, Carlos Ribeiro (IGC/FC , PT)<br />
Faculty: Susana Lima (IGC/FC), Marta Moita (IGC/FC), Carlos Ribeiro (IGC/FC , PT)<br />
Introduction: Evolution<br />
17 - 21 January<br />
Organiser(s): Susana Lima, Marta Moita, Carlos Ribeiro and Luisa Vasconcelos<br />
(IGC/FC, PT)<br />
Faculty: Susana Lima, Marta Moita, Carlos Ribeiro, Luisa Vasconcelos (IGC/FC,<br />
PT), Chris Braun (Hunter College, City University of New York, USA)<br />
Cellular Physiology<br />
24 - 28 January<br />
Organiser(s): Joshua Dudman (Howard Hughes Medical Institute, USA)<br />
Faculty: Alex Reyes (Center for Neural Science - New York University, USA)<br />
Circuits<br />
31 January - 4 February<br />
Organiser(s): Michael Orger (FC, PT)<br />
Faculty: Ruben Portugues (Department of Molecular and Cellular Biology, Harvard<br />
University, USA)<br />
Plasticity<br />
7 - 11 February<br />
Organiser(s): Inbal Israeli (IGC/FC, PT)<br />
Faculty: Steve Kushner (Erasmus MC University Medical Center Rotterdam, The<br />
Ne<strong>the</strong>rlands)<br />
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Learning<br />
14 - 18 February<br />
Organiser(s): Megan Carey (FC, PT)<br />
Faculty: Sam Sober (School of Biology Emory University Atlanta, USA)<br />
Metabolism<br />
28 February - 4 March<br />
Organiser(s): Carlos Ribeiro (IGC/FC, PT)<br />
Faculty: Matt Piper (University College London, UK)<br />
Sensory & Motor<br />
7 - 11 March<br />
Organiser(s): Carlos Ribeiro (IGC/FC, PT), Eugenia Chiappe (Howard Hughes<br />
Medical Institute, USA), Michael Orger (FC, PT)<br />
Faculty: Eugenia Chiappe (Howard Hughes Medical Institute, USA)<br />
Movement into Action<br />
14 - 18 March<br />
Organiser(s): Rui Costa (IGC/FC, PT)<br />
Faculty: José Carmena (Department of Electrical Engineering and Computer Sciences,<br />
University of California, Berkeley, USA), Joe Mcintyre (CNRS Laboratoire<br />
<strong>de</strong> Physiologie <strong>de</strong> la Perception et <strong>de</strong> l'Action - College <strong>de</strong> France, France)<br />
Experimental Approaches - Basic<br />
21 - 25 March<br />
Organiser(s): Adam Kampff, Michael Orger (FC, PT), Florian Engert (Harvard University,<br />
USA)<br />
Faculty: Adam Kampff, Michael Orger (FC, PT)<br />
Experimental Techniques–Advanced<br />
28 March - 1 April<br />
Organiser(s): Adam Kampff, Michael Orger (FC, PT), Florian Engert (Harvard University,<br />
USA)<br />
Faculty: Florin Albeanu (Cold Spring Harbor Laboratory, USA)<br />
Projects<br />
4 - 15 April<br />
Faculty: Adam Douglass (Harvard University, USA), Janet Iwasa (Department of<br />
Cell Biology - Harvard Medical School, USA)<br />
Computational Approaches<br />
26 - 29 April<br />
Organiser(s): Christian Machens, Alfonso Renart (FC, PT)<br />
Faculty: Sophie Deneve (Départment d'Etu<strong>de</strong>s Cognitives (DEC), Ecole Normale<br />
Supérieure), John Hertz (Niels Bohr Institute, Denmark)<br />
Vision to Decision<br />
9 - 13 May<br />
Organiser(s): Joe Paton (IGC/FC, PT)<br />
Faculty: Gabe Murphy (Howard Hughes Medical Institute, USA) Virginia Flanigan<br />
(Ludwig-Maximilians-Universität - Department of Neurology, Germany), Brian<br />
Lau (Dept of Neuroscience Columbia University, USA), Kenway Louie (Center<br />
for Neural Science, New York University, USA) David Freedman (Department of<br />
Neurobiology, The University of Chicago, USA)<br />
Consciousness<br />
23 - 27 May<br />
Organiser(s): Zachary Mainen (IGC/FC, PT)<br />
Faculty: Peter Mandik (Department of Philosophy, William Patterson University, USA)<br />
Social Interactions<br />
23 - 27 May<br />
Organiser(s): Marta Moita, Susana Lima (IGC/FC, PT)<br />
Faculty: Regina Sullivan (Department of Zoology, University of Oklahoma, USA)<br />
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Extroduction<br />
30 May - 3 June<br />
Organiser(s): Élio Sucena (IGC , PT)<br />
History of Biological Concepts<br />
3 - 7 October<br />
Organiser: Thiago Carvalho (IGC, PT)<br />
Faculty: Pietro Corsi (Faculty of History, University of Oxford, UK), Jonathan Howard<br />
(Department of Cell Genetics, Institute for Genetics, University of Cologne,<br />
Germany), Thiago Carvalho, Chrirsten Mirth, Lars Jansen, José Pereira Leal (IGC,<br />
PT), Joe Paton (IGC/FC, PT)<br />
Molecular and Structural Biology<br />
10 - 14 October<br />
Organiser: Alekos Athanasiadis (IGC, PT)<br />
Faculty: Niels Gehring (Institute for Genetics, University of Cologne, Germany),<br />
Guillermo Montoya (Spanish National Cancer Research Centre, Spain), Manwlis<br />
Matzapetakis, Claudio Soares, Bruno Viktor (ITQB, Portugal)<br />
Insi<strong>de</strong> <strong>the</strong> Cell<br />
17 - 21 October<br />
Organiser: Lars Jansen (IGC, PT)<br />
Faculty: Niels Gehring (Institute for Genetics, University of Cologne, Germany),<br />
Bjoern Schumacher (CECAD Cologne at <strong>the</strong> Institute for Genetics, University of<br />
Cologne, Germany), Geneviève Almouzni (Nuclear Dynamics and Genome Plasticity<br />
Unit, Curie Institute, France), Andrew Holland (Ludwig Institute for Cancer Research,<br />
USA), Rob Wolthuis (The Ne<strong>the</strong>rlands Cancer Institute, The Ne<strong>the</strong>rlands)<br />
Cells to Organisms I<br />
24 - 28 October<br />
Organiser: Thiago Carvalho (IGC)<br />
Faculty: Mathieu Molet (Université Pierre et Marie Curie, France), Kevin Foster<br />
(Department of Zoology, Oxford University, UK), Pierre Golstein (Centre<br />
d'Immunologie <strong>de</strong> Marseille-Luminy, France), Etienne Danchin (Directeur <strong>de</strong> Recherche<br />
CNRS Head of <strong>the</strong> Laboratoire Evolution et Diversité Biologique Univ.<br />
Paul Sabatier, France)<br />
Cells to Organisms II - Limb Development<br />
31 October - 4 November<br />
Organiser(s): Diogo Castro, Joaquin Léon (IGC, PT)<br />
Faculty: Malcolm Logan (National Institute for Medical Research, UK), Juan<br />
Hurlé (University of Extremadura, Spain), James Sharpe (EMBL - Center for<br />
Genomic Regulation, Spain), Diogo Castro, Joaquin Léon, Florence Janody (IGC,<br />
PT), Solveig Thorsteinsdottir (FCUL, PT)<br />
Statistics<br />
7 - 11 November<br />
Organiser: Jorge Carneiro (IGC, PT)<br />
Faculty: Jorge Carneiro (IGC, PT)<br />
Genetic Mo<strong>de</strong>ls<br />
14 - 18 November<br />
Organiser: Vitor Barbosa (IGC, PT)<br />
Faculty: Jesús Aguirre (Univ. Nacional Autónoma <strong>de</strong> México, México), Fernando<br />
Roch (University of Toulouse, France), Karen Liu (King’s College London, UK),<br />
Miodrag Grbic (University of Western Ontario, Canada), Thiago Carvalho, Filipa<br />
Alves, Sara Carvalho, Ana Borges, Clara Reis, Moises Mallo, Elena Baena, Ana<br />
Mena (IGC, PT)<br />
Evolution<br />
21 - 25 November<br />
Organiser: Isabel Gordo (IGC, PT)<br />
Faculty: Brian Charlesworth (University of Edimburgh, UK), Olivier Tenaillon<br />
(Universite <strong>de</strong> Paris VII, France), Michael Turelli (University of California, Davis,<br />
USA), Henrique Teotónio, Gabriela Gomes (IGC, PT)<br />
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Evolution, Development and Ecology<br />
28 November - 2 December<br />
Organiser(s): Patricia Belda<strong>de</strong>, Élio Sucena, Christen Mirth (IGC, PT)<br />
Faculty: Atanasios Pavlopoulos (University of Cambridge, UK), Christian Braendle<br />
(Université <strong>de</strong> Nice, France), Johannes Jaeger (EMBL - Center for Genomic<br />
Regulation, Spain), Patricia Belda<strong>de</strong>, Élio Sucena, Christen Mirth (IGC, PT)<br />
Instrumentation<br />
5 - 10 December<br />
Organiser: Nuno Moreno (IGC, PT)<br />
Faculty: Andrew Rid<strong>de</strong>ll (Head of Flow Cytometry Core Facility, EMBL, Germany),<br />
Jan Willem Brost (JWB, The Ne<strong>the</strong>rlands), Nuno Moreno, Emilio Gualda, Gabriel<br />
Martins, Pedro Almada, Jorg Becker (IGC, PT), José Rino (IMM, PT)<br />
Neurobiology<br />
12 - 19 December<br />
Organiser(s): Michael Orger (FC, PT), Luisa Vasconcelos (FC/IGC, PT)<br />
Faculty: Rui Costa, Zach Mainen, Inbal Israeli, Carlos Ribeiro, Susana Lima, Luisa<br />
Vasconcelos), Joe Paton (IGC/FC, PT), Michael Orger, Alfonso Renart, Adam<br />
Kampff (FC, PT), Magor Lorincz (postdoctoral fellow, IGC/FC), Florian A. Dehmelt<br />
(PhD stu<strong>de</strong>nt, FC)<br />
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PROGRAMME<br />
FOR ADVANCED MEDICAL RESEARCH -<br />
DOCTORAL PROGRAMME FOR PHYSICIANS<br />
António Coutinho Head<br />
PhD in MD, Medical Microbiology, Karolinska Institute, Stockholm, 1974<br />
Director of IGC<br />
The Programme for Advanced Medical Education is a Doctoral Programmme for<br />
physicians, supported by <strong>the</strong> <strong>Gulbenkian</strong> and Champalimaud Foundations, <strong>the</strong><br />
Ministry of Health and <strong>the</strong> Fundação para a Ciência e a Tecnologia, Portugal. The<br />
4th edition is also sponsored by Espírito Santo Saú<strong>de</strong> and José <strong>de</strong> Mello Saú<strong>de</strong>.<br />
The Programme targets highly motivated clinicians who wish to acquire a strong<br />
scientific background as a basis for excellence in medical research and clinical<br />
practice. The programme selects 10 stu<strong>de</strong>nts per year, ei<strong>the</strong>r on a full time (Specialists<br />
and Interns) or part-time basis (Interns).<br />
SUPPORT STAFF<br />
Francisca Moura (FCG)<br />
Manuela Cor<strong>de</strong>iro (IGC)<br />
FUNDING<br />
Calouste <strong>Gulbenkian</strong> Foundations, Portugal<br />
Champalimaud Foundation, Portugal<br />
Ministry of Health, Portugal<br />
Fundação para a Ciência e a Tecnologia, Portugal.<br />
Espírito Santo Saú<strong>de</strong>, Portugal<br />
José <strong>de</strong> Mello Saú<strong>de</strong>, Portugal<br />
Stu<strong>de</strong>nts attend graduate courses by an international faculty, followed by <strong>the</strong>sis<br />
work at national or international institutions. Graduate courses take place<br />
at leading Portuguese biomedical research institutions: <strong>Instituto</strong> <strong>Gulbenkian</strong><br />
<strong>de</strong> Ciência; <strong>Instituto</strong> <strong>de</strong> Medicina Molecular, Faculda<strong>de</strong> <strong>de</strong> Medicina <strong>de</strong> Lisboa;<br />
IPATIMUP, Porto; Faculda<strong>de</strong> <strong>de</strong> Ciências Médicas, Universida<strong>de</strong> Nova <strong>de</strong> Lisboa;<br />
Faculda<strong>de</strong> <strong>de</strong> Medicina da Universida<strong>de</strong> do Porto.<br />
STUDENTS IN 2011<br />
Mariana Machado<br />
Ana Sofia Duarte António<br />
Maria Ester Pereira<br />
Mafalda Santos Barbosa<br />
Branca Isabel Pereira<br />
Liliana Pereira<br />
João Nuno Duarte<br />
Ana Catarina Castro<br />
José Miguel Ferreira<br />
Specialist in Gastroenterology, Hospital Santa Maria, Lisbon<br />
Specialist in Neurology, Hospital D. Estefânia, Lisbon<br />
Specialist in Neurology, Hospital Santo António, Porto<br />
Specialist in Genetics, Centro <strong>de</strong> Genética Médica Jacinto Magalhães, Lisbon<br />
Specialist in Infectious Diseases, Hospitais da Universida<strong>de</strong> <strong>de</strong> Coimbra<br />
Intern in Ophtalmology, <strong>Instituto</strong> Gama Pinto, Lisbon<br />
Intern in Maxillofacial Surgery, Hospitais da Universida<strong>de</strong> <strong>de</strong> Coimbra<br />
Intern in Pshychiatry, Hospital Júlio <strong>de</strong> Matos, Lisbon<br />
Intern in Radio<strong>the</strong>rapy, Hospital Santa Maria, Lisbon<br />
COURSES IN 2011<br />
Gene Expression<br />
27 September - 7 October<br />
Organiser(s): João Ferreira (IMM/FML, PT)<br />
Faculty: João Ferreira, Francisco Enguita (IMM/FML, PT), Thiago Carvalho, Joana<br />
Cardoso (IGC, PT), Margarida Gama-Carvalho, Carlos Farinha (FCUL, PT), Patrick<br />
Varga-Weisz (Babraham Institute, Cambridge, UK), Maria Mota, Leonor Saú<strong>de</strong>,<br />
Luis Graça, Bruno Santos (IMM/FML, PT)<br />
Molecular and Structural Biology<br />
10 - 14 October<br />
Organiser: Alekos Athanasiadis (IGC, PT)<br />
Faculty: Reuben Harris (University of Minnesota, USA), Guillermo Montoya (CNIO, ES),<br />
Manwlis Matzapetakis, Claudio Soares, Bruno Victor (ITQB, PT)<br />
Cell Cycle, Cytoskeleton & Disease<br />
24 - 28 October<br />
Organiser: Mónica Bettencout-Dias (IGC, PT)<br />
Faculty: Hel<strong>de</strong>r Maiato (IBMC, PT), Clare Waterman Storer (NIH, USA), Edgar<br />
Gomes (UMR S 787, Inserm/Pitie-Salpétrière, Université Paris VI, FR), Fanni<br />
Gergely (Cambridge Research Institute, UK), Tim Miller (Washington University<br />
School of Medicine, USA), Monica Bettencourt-Dias, Miguel Godinho-Ferreira,<br />
Florence Janody, Lars Jansen (IGC, PT)<br />
Medical Statistics<br />
31 October - 5 November<br />
Organiser: Armando Teixeira Pinto (FMUP, PT)<br />
Faculty: Armando Teixeira Pinto (FMUP, PT)<br />
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Medical Statistics<br />
7 - 11 November<br />
Organiser: Isabel Santos Silva (LSHTM, UK)<br />
Faculty: Valerie McCormack (International Agency for Research on Cancer, Lyon,<br />
FR), Isabel dos Santos Silva (LSHTM, UK)<br />
Medical Epi<strong>de</strong>miology<br />
14 - 18 November<br />
Organiser: José Pereira Leal (IGC, PT)<br />
Faculty: James Brenton (Cancer Research, UK), Yu-Hui Rogers (J. Craig Venter<br />
Institute, USA), Nuno Palma (BIAL, PT), Francois Balloux (Imperial College, UK),<br />
Ana Teresa Freitas (INESC-ID/IST, PT), Isabel Gordo, Jorge Carneiro, Sofia Braga,<br />
Joana Cardoso, Marie Bonnet , Jose Pereira-Leal (GC, PT), Catarina Coreia<br />
(IGC & INSRJ, PT)<br />
Development Biology<br />
21 - 25 November<br />
Organiser: Moises Mallo (IGC, PT)<br />
Faculty: Moises Mallo (IGC, PT), Miguel Manzanares (CNIC, ES), Malcolm Logan<br />
(NIMR, UK), Andreas Kispert (School of Medicine Hannover, DE), Jacqueline Deschamps<br />
(Hubrecht Institute, NL), Domingos Henrique ((FMUL/IMM, PT), Sérgio<br />
Dias (IPO Lisboa, PT)<br />
Genetics<br />
28 November - 02 December<br />
Organiser: Carlos Penha-Gonçalves (IGC, PT)<br />
Faculty: Taane Clark, Susana Campino (Wellcome Trust Sanger Institute, UK),<br />
Nuno Sepúlveda (LSHTM, UK), Lounes Chicki, Isabel Marques, Carlos Penha-Gonçalves,<br />
Inês Rolim (IGC, PT), Astrid Vicente(INSA, PT), Sofia Oliveira (IMM, PT),<br />
Ricardo Fernan<strong>de</strong>s (FMUL, PT)<br />
Pathogens & Hosts<br />
5 - 9 December<br />
Organiser: Adriano Henriques (ITQB/UNL, PT)<br />
Faculty: Adriano Henriques, Luis Jaime Mota (ITQB/UNL, PT), Karina Xavier<br />
(ITQB/UNL & IGC, PT)<br />
Evolution and Medicine<br />
12 - 14 December<br />
Organiser: Stephen Stearns (Yale Univ., USA)<br />
Faculty: Steven Stearns (Yale University, USA), and Jacob Koella (Imperial College<br />
London, UK)<br />
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GTPB - THE GULBENKIAN<br />
TRAINING PROGRAMME<br />
IN BIOINFORMATICS<br />
Pedro Fernan<strong>de</strong>s Head<br />
Head of Portuguese Bioinformatics Centre<br />
The GTPB provi<strong>de</strong>s practical skills in Bioinformatics. The objective is to <strong>de</strong>liver<br />
those skills with high efficiency and as much autonomy of usage as possible. It<br />
consists of short, intensive training courses, held in a specialised training room,<br />
installed afresh in February 2011. The courses are taught and fully documented<br />
in English. The target audience varies slightly with <strong>the</strong> course <strong>the</strong>mes. The majority<br />
of <strong>the</strong> participants are Biologists in <strong>the</strong> PhD project preparation phase.<br />
STUDENTS IN 2011<br />
In 2011, 241 stu<strong>de</strong>nts atten<strong>de</strong>d <strong>the</strong> GTPB training programme, including 40 from<br />
foreign institutions. Forty seven stu<strong>de</strong>nts are at <strong>the</strong> IGC, and 86 are in research<br />
groups at ITQB/IBET (partner institutes of <strong>the</strong> Associated Laboratory).<br />
COURSES IN 2011<br />
All courses were organised by Pedro Fernan<strong>de</strong>s.<br />
GACT11 - Genetic Architecture of Complex Traits<br />
19 - 21 January<br />
Faculty: Arcadi Navarro, Hafid Laayouni (Universtat Pompeu Fabre, Barcelona, ES)<br />
MDA11 - Massive Data Analysis(using Babelomics)<br />
21 - 23 February<br />
Faculty: Joaqui Dopazo, Javier Santoyo-Lopez (Centro <strong>de</strong> Investigacion Principe<br />
Felipe, Valencia, ES)<br />
AFADM11 - Automatic Functional Annotation and Data Mining<br />
24 - 25 February<br />
Faculty: Stefan Goetz, Javier Santoyo-Lopez (Centro <strong>de</strong> Investigacion Principe<br />
Felipe, Valencia, ES)<br />
IB11 - Introductory Bioinformatics<br />
28 March - 1 April<br />
Faculty: David Phillip Judge (Cambridge University, UK), Phil Cunningham (Kings<br />
College, London, UK), Pedro Fernan<strong>de</strong>s (IGC, PT)<br />
MAPS11 - Mo<strong>de</strong>l-based Inference of Population Structure<br />
4 - 8 April<br />
Faculty: Mark Beaumont (University of Bristol, UK), Lounès Chikhi (IGC, PT),<br />
Bárbara Parreira (IGC, PT)<br />
MEPA11 - Molecular Evolution, Phylogenetics and Adaptation<br />
11 - 15 April<br />
Faculty: Hernan Dopazo, François Serra (Centro <strong>de</strong> Investigacion Principe Felipe,<br />
Valencia, ES)<br />
BPB11 - Bioinformatics using Python for Biologists<br />
2 - 6 May<br />
Faculty: Allegra Via, Fabrizio Ferrè (“La Sapienza”, IT)<br />
RNA11 - RNA Bioinformatics<br />
9 - 13 May<br />
Faculty: Anton Enright (EBI, UK), Lars Barquist (Sanger Institute, UK)<br />
NGSDM11 - NGS Data Management<br />
26 - 27 May<br />
Faculty: Matthias Haimel (EBI, UK), David Phillip Judge (Cambridge University, UK)<br />
A course held in <strong>the</strong> new Bioinformatics Training Room. Interaction between an<br />
instructor and participants.<br />
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HGP11 - Hunting for Genes and Promoters<br />
27 - 30 June<br />
Faculty: Alexan<strong>de</strong>r Kel (GeneXplain GmbH, DE), Enrique Blanco (Universitat <strong>de</strong><br />
Barcelona, ES)<br />
BBWA11 - Building Bioinformatics Web Applications<br />
4 - 7 July<br />
Faculty: David Lea<strong>de</strong>r, Richard Cooper (University of Glasgow, UK)<br />
KDMC11 - Knowledge Discovery and Management in Chemoinformatics<br />
12 - 15 July<br />
Faculty: Alexey Lagunin, Alexey Zakharov (Institute of Biomedical Chemistry of<br />
Rus. Acad. Med. Sci., RU)<br />
MDARB11 - Microarray Data Analysis usingR and Bioconductor<br />
5 - 9 September<br />
Faculty: Oscar Rueda, Benilton Carvalho (Cambridge University, UK), Ana Rita<br />
Grosso (<strong>Instituto</strong> <strong>de</strong> Medicina Molecular, PT)<br />
PA11 - Pathway Analysis and Mo<strong>de</strong>lling of Biological Networks<br />
19 - 20 October<br />
Faculty: Christoph Wierling (Max Plank Institute, Berlin, DE), Roman Zubarev<br />
(Karolinska Institutet, SE)<br />
BFB11 - Biostatistical Foundations in Bioinformatics<br />
24 - 28 October<br />
Faculty: Antónia Turkman (Faculda<strong>de</strong> <strong>de</strong> Ciências da Universida<strong>de</strong> <strong>de</strong> Lisboa, PT),<br />
Carina Silva Fortes (Escola Superior <strong>de</strong> Tecnologias da Saú<strong>de</strong> <strong>de</strong> Lisboa, PT)<br />
IB11A - Introductory Bioinformatics, 2nd course<br />
12 - 16 December<br />
Faculty: David Phillip Judge (Cambridge University, UK), Phil Cunningham (Kings<br />
College, London, UK), Pedro Fernan<strong>de</strong>s (IGC, PT)<br />
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THESES<br />
MSc THESES<br />
Sofia Pereira<br />
Development of mo<strong>de</strong>ls to <strong>de</strong>termine dynamic DNE expression in vivo to aid<br />
resolution of sialic acid dysfunction associated with Hereditary Inclusion Body<br />
Myopathy<br />
Universida<strong>de</strong> <strong>de</strong> Trás-os-Montes e Alto Douro, Portugal<br />
February 2011<br />
Inês Pais<br />
I<strong>de</strong>ntification and comparison of laboratory and wild caught Drosophila gut<br />
microbiota<br />
Faculda<strong>de</strong> <strong>de</strong> Ciências, Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
October 2011<br />
Pedro Silva<br />
Supervised and unsupervised spermatozoa <strong>de</strong>tection, classification and tracking<br />
in imaging data<br />
Faculda<strong>de</strong> <strong>de</strong> Ciências, Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
October 2011<br />
Andreia Cunha<br />
Hox genes and <strong>the</strong> patterning of <strong>the</strong> axial skeleton<br />
Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
November 2011<br />
Emanuel Costa<br />
Viral modulation of interferon (IFN) responses to African swine fever virus (ASFV)<br />
Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
December 2011<br />
Isa Pais<br />
Genetic diversity in a little known Lemur species from <strong>the</strong> North of Madagascar<br />
(Microcebus tavaratra)<br />
Faculda<strong>de</strong> <strong>de</strong> Ciências, Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
December 2011<br />
Pedro dos Santos Lopes<br />
Quantitative analysis of Bicyclus anynana‘s eyespot wing pattern images<br />
Faculda<strong>de</strong> <strong>de</strong> Ciências, Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
December 2011<br />
PhD THESES<br />
Tânia Vinagre<br />
Hox genes control <strong>the</strong> specification of global vertebral domains<br />
Universida<strong>de</strong> Nova <strong>de</strong> Lisboa, Portugal<br />
January 2011<br />
Ana Barbara Santos<br />
Anionic currents in pollen grain protoplasts from Arabidopsis thaliana and Lilium<br />
longiflorum<br />
Universida<strong>de</strong> <strong>de</strong> Lisboa, Portugal<br />
June 2011<br />
Raquel Antunes<br />
Neural mechanisms of stimulus generalisation in auditory fear conditioning<br />
Universida<strong>de</strong> Nova <strong>de</strong> Lisboa, Portugal<br />
July 2011<br />
Ana Rita da Costa<br />
Mitosis and N-terminal acetylation<br />
Universida<strong>de</strong> Nova <strong>de</strong> Lisboa, Portugal<br />
September 2011<br />
Raquel Carvalho<br />
Functional and molecular characterisation of SR45, a plant-specific splicing factor<br />
involved in sugar and stress signaling in Arabidopsis thaliana<br />
Universida<strong>de</strong> Nova <strong>de</strong> Lisboa, Portugal<br />
November 2011<br />
Ines Cunha Ferreira<br />
Regulation of PLK4 levels and activity to ensure centriole number control<br />
Universida<strong>de</strong> Nova <strong>de</strong> Lisboa, Portugal<br />
December 2011<br />
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135
SEMINARS<br />
WORKSHOPS<br />
AND<br />
MEETINGS
SEMINARS AT THE IGC<br />
JANUARY 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
05.01 Lucien Aar<strong>de</strong>n Sanquin Blood Supply Foundation, Holland Immune responses to <strong>the</strong>rapeutic monoclonal<br />
antibodies<br />
06.01 Michael Men<strong>de</strong>s Sloan-Kettering Institute, USA Synaptic plasticity in <strong>the</strong> mouse spinal reflex circuit<br />
11.01 Patrícia Belda<strong>de</strong> IGC, Portugal On <strong>the</strong> origin and diversification of novel traits:<br />
old genes, new tricks<br />
12.01 Didier Faustino Bureau <strong>de</strong>s Mésarchitectures Don’t trust architects<br />
13.01 Carol-Anne Martin University of Edinburgh, UK Un<strong>de</strong>rstanding human brain size: centrosomes,<br />
kinetochores and chromosomes<br />
14.01 Bjoern Schumacher University of Cologne, Germany Genome instability in ageing and longevity<br />
17.01 Jean-René Huynh Curie Institute, France Aurora-B and Survivin regulate <strong>the</strong> germline stem<br />
cell lineage in Drosophila<br />
18.01 Vitor Barbosa IGC, Portugal Surveillance of transcription during meiosis<br />
modulates polarity of Drosophila oocytes<br />
20.01 Corine Schoebel Dept. of Aquatic Ecology & Institute Host-parasite interactions in Daphnia<br />
of Integrative Biology, ETH Zurich<br />
- <strong>the</strong> role of variable environments<br />
20.01 Erida Gjini Univ. of Glasgow, UK Bridging between parasite genomic data<br />
and population processes:<br />
Trypanosome dynamics and <strong>the</strong> VSG archive<br />
21.01 Christopher Braun City University of New York, USA The evolution of a behavioural repertoire:<br />
Jamming and jamming avoidance in weaklyelectric<br />
fishes with a pulse discharge<br />
21.01 João Sollari-Lopes CCMAR, Universida<strong>de</strong> do Algarve, Portugal Co-estimation of recombination and molecular<br />
adaptation by approximate Bayesian computation<br />
24.01 Sheila Vidal IGC, Portugal FCT R&D Projects in all Scientific Domains 2010.<br />
How to apply?<br />
26.01 Roberto Keller, IGC, Portugal (Post-doc seminar) Flapping wings and strong heads:<br />
novel structures in queen and worker ants<br />
26.01 Luciana Moraes IGC, Portugal (Post-doc seminar) Parasite sequestration in murine mo<strong>de</strong>l<br />
for pregnancy-associated malaria<br />
26.01 Ana Cristina Borges IGC, Portugal (Post-doc seminar) Tight Junction components:<br />
novel players in Epi<strong>the</strong>lial Morphogenesis?<br />
26.01 Ana Catarina Afonso IGC, Portugal (Post-doc seminar) Ion dynamics during fin regeneration in zebrafish<br />
26.01 Ana Mena IGC, Portugal (Post-doc seminar) Animals in research: gui<strong>de</strong>lines and awareness<br />
27.01 Sheila Vidal IGC, Portugal FCT R&D Projects in all Scientific Domains 2010.<br />
How to apply?<br />
28.01 Dirk Bumann University of Basel, Switzerland Salmonella-host interactions in infected tissues<br />
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FEBRUARY 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
01.02 Luis Teixeira IGC, Portugal Drosophila anti-viral immunity<br />
01.02 Greenfield Slu<strong>de</strong>r University of Massachusetts Medical School, USA Life after troubled mitosis: what happens<br />
after cleavage fails or prometaphase is too long<br />
02.02 Max Cooper Emory University, USA Evolution of lymphocyte-based adaptive immunity<br />
08.02 Luis Rocha IGC, Portugal The complex systems approach to mo<strong>de</strong>lling<br />
biochemical regulation and <strong>organisation</strong><br />
09.02 Geert Kops University Medical Center Utrecht, The Ne<strong>the</strong>rlands Maintaining genomic stability:<br />
how mitotic kinases regulate chromosome<br />
segregation<br />
10.02 Steve Kushner University Medical Center Rotterdam, The Ne<strong>the</strong>rlands Selection of neuronal ensembles during<br />
fear learning<br />
11.02 Sarah Teichmann University of Cambridge, UK A quantitative view of gene expression levels<br />
14.02 Luciano Adorini Intercept Pharmaceuticals, Corciano (Perugia), Italy Farnesoid X Receptor agonists in <strong>the</strong> treatment<br />
of autoimmune diseases<br />
15.02 José Feijó IGC, Portugal Pollen tube research at <strong>the</strong> IGC:<br />
still growing after all <strong>the</strong>se years<br />
15.02 Maria Helena Goldman FFCLRP University of São Paulo, Brazil Sci1, a tissue-specific cell cycle regulator<br />
that controls stigm/style <strong>de</strong>velopment<br />
17.02 Pedro Batista Stanford University, USA Characterisation of a Argonaute-related<br />
small RNA pathways in C. elegans<br />
18.02 Bruno Silva-Santos IMM, Portugal Caring for a minority:<br />
gamma-<strong>de</strong>lta T cell differentiation and activation<br />
in mice and men<br />
21.02 Leila Laredj Swiss Institute for Experimental Research PML nuclear bodies, <strong>the</strong> a<strong>de</strong>no-associated virus<br />
in Cancer (ISREC), Switzerland<br />
and <strong>the</strong> innate immune response<br />
22.02 Moisés Mallo IGC, Portugal Hox genes and <strong>the</strong> ribs: an old relationship<br />
with many faces<br />
25.02 Pierre Golstein Centre <strong>de</strong> Immunologie Marseille-Luminy, France Autophagic cell <strong>de</strong>ath in <strong>the</strong> Dictyostelium mo<strong>de</strong>l<br />
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MARCH 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
01.03 Constantin Fesel IGC, Portugal Lupus and autoimmune repertoires<br />
03.03 Ana Margarida Sousa IGC, Portugal (Post-doc seminar) Effects of synonymous (silent?) mutations<br />
03.03 Maria Teresa Portes IGC, Portugal (Post-doc seminar) Investigating spatio-temporal causalities between<br />
ion dynamics and growth in pollen tubes:<br />
establishing <strong>the</strong> oscillations phase relationship<br />
and <strong>the</strong>ir molecular bases<br />
03.03 Álvaro Ferreira IGC, Portugal (Post-doc seminar) Antiviral immunity in Drosophila<br />
03.03 Tiago Carneiro IGC, Portugal (Post-doc seminar) Checkpoint inhibition at fission yeast telomeres<br />
03.03 Sílvia Correia IGC, Portugal (Post-doc seminar) Evasion of interferon responses by African<br />
Swine Fever Virus<br />
04.03 Ignácio Rubio Max Planck Institute for Developmental Biology, Small RNA networks with major roles in plant<br />
Germany<br />
<strong>de</strong>velopment<br />
11.03 Denis Duboule University of Geneva, Switzerland Un<strong>de</strong>rstanding <strong>the</strong> mammalian regulatory<br />
genome during <strong>de</strong>velopment; of <strong>de</strong>serts<br />
and archipelagos<br />
15.03 Jocelyne Demengeot IGC, Portugal Sweetbread, in<strong>de</strong>ed<br />
17.03 Benedicte Sanson Univ. of Cambridge, UK Mechanisms of morphogenesis in early embryos<br />
17.03 Pavel Tomancak Max Planck Institute of Molecular Cell Biology Gene expression divergence recapitulates<br />
and Genetics, Germany<br />
<strong>the</strong> <strong>de</strong>velopmental hourglass<br />
17.03 Norbert Perrimon Harvard Medical School, USA Tissue and physiological homeostasis in Drosophila<br />
18.03 Casper C. Hoogenraad Erasmus Medical Center, Rotterdam, The Ne<strong>the</strong>rlands Cytoskeletal <strong>organisation</strong> and polarised transport<br />
in neurons<br />
22.03 José Pereira-Leal IGC, Portugal New bioinformatics tools for evolutionary<br />
cell biology<br />
29.03 Jorg Becker IGC, Portugal Small RNA activity in <strong>the</strong> Arabidopsis male germline<br />
30.03 Patricia Brito IGC, Portugal (Post-doc seminar) The importance of AI-2 mediated quorum sensing<br />
for Escherichia coli fitness<br />
30.03 Lea Zinck IGC, Portugal (Post-doc seminar) Development of a behavioural paradigm<br />
to study <strong>the</strong> neuronal basis of social preferences<br />
and mate choice in mice<br />
30.03 Inês Conceição IGC, Portugal (Post-doc seminar) Genomic sequence around butterfly wing<br />
<strong>de</strong>velopment genes<br />
30.03 Daniela Brito IGC, Portugal (Post-doc seminar) Plk4 activity: timing it rightly<br />
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APRIL 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
01.04 Ehab Abouheif McGill University, Canada Attempting to syn<strong>the</strong>size environment,<br />
<strong>de</strong>velopment, and evolution through <strong>the</strong> study<br />
of winged and wingless castes in <strong>the</strong> hyperdiverse<br />
ant genus Pheidole<br />
05,04 Rui Martinho IGC, Portugal Spliceosome many faces during Drosophila<br />
<strong>de</strong>velopment<br />
07.04 Jerry Shay University of Texas, USA Role of telomeres and telomerase in normal<br />
and cancer cells<br />
08.04 Rainer Hedrich Inst. for Molecular Plant Physiology and Biophysics, Guard cell action is controlled by signalling<br />
Univ. of Wuerzburg, Biocenter, Germany<br />
and phosphatases<br />
11.04 Clau<strong>de</strong> Antony European Molecular Biology Laboratory Electron tomography approach to study<br />
microtubule arrays and SPBs in fission yeast cells<br />
13.04 Michael D. Ehlers Chief Scientific Officer, Neuroscience Pfizer Global Circuit integration and subcellular trafficking<br />
Research & Development, PharmaTherapeutics in neuronal plasticity<br />
Neuroscience Research Unit<br />
18.04 Frances Schweisguth Institute Pasteur, Paris Control of cell fate by Notch: a live imaging analysis<br />
19.04 Miguel Soares IGC, Portugal Tissue Damage Control:<br />
A central component in <strong>the</strong> establishment<br />
of host tolerance to infection<br />
21.04 Pedro Beltrão University of California San Francisco, USA Evolution of cellular networks: from interactions<br />
to phenotypes<br />
26.04 Mónica Dias IGC, Portugal Building it up and tearing it down:<br />
centriole assembly & function in <strong>de</strong>velopment<br />
and evolution<br />
27.04 Clara Reis IGC, Portugal (Post-doc seminar) MRN te<strong>the</strong>rs dysfunctional telomeres for NHEJ<br />
repair<br />
27.04 Rasmus Larsen IGC, Portugal (Post-doc seminar) Not supplied<br />
27.04 Takashi Koyama IGC, Portugal (Post-doc seminar) Exploring <strong>the</strong> role for FoxO in body size regulation<br />
by <strong>the</strong> integration of insulin and ecdysone<br />
signalling<br />
27.04 Elsa Seixas IGC, Portugal (Post-doc seminar) Involvement of Rab GTPases in phagocytosis<br />
27.04 Silvia Castro IGC, Portugal (Post-doc seminar) IGC in <strong>the</strong> news<br />
29.04 Carel van Schaik Zurich University, Switzerland Cooperative breeding and <strong>the</strong> evolution<br />
of human uniqueness<br />
IGC ANNUAL REPORT ‘11<br />
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140
MAY 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
03.05 Claudine Chaouiya IGC, Portugal Qualitative mo<strong>de</strong>lling to gain insights into<br />
<strong>the</strong> functioning of large regulatory networks<br />
06.05 Volker Loeschcke Aarhus University, Denmark A systems biology approach to <strong>the</strong> study<br />
of <strong>the</strong>rmal adaptation<br />
09.05 Helen White-Cooper Cardiff University, UK Regulation of tissue specific gene expression;<br />
a wake-up-call from fly testes<br />
10.05 Carlos Ribeiro IGC, Portugal The neuronal basis of nutrient choices<br />
13.05 Alexan<strong>de</strong>r Stark Research Institute of Molecular Pathology (IMP), Vienna High conservation of transcription factor binding<br />
across six Drosophila species<br />
16.05 Michael Rose Univ. of California, Irvine, USA Genomics of experimental evolution and beyond<br />
17.05 Gabriela Gomes IGC, Portugal Heterogeneity in host-microparasite systems<br />
18.05 Andreia Lino IGC, Portugal (Post-doc seminar) The antibody solution<br />
18.05 Zita Santos IGC, Portugal (Post-doc seminar) The molecular mechanisms un<strong>de</strong>rlying<br />
<strong>the</strong> biogenesis of a motile axoneme<br />
18.05 Raffaella Gozzelino IGC, Portugal (Post-doc seminar) Ferritin H chain confers tolerance to Plasmodium<br />
infection<br />
18.05 Laura Santos IGC, Portugal Not supplied<br />
19.05 Etienne Danchin Univ. Paul Sabatier, Toulouse, France Beyond DNA:<br />
integrating inclusive inheritance into <strong>the</strong> <strong>the</strong>ory<br />
of evolution<br />
20.05 Michel O. Steinmetz Paul Scherrer Institut, Villigen-PSI, Switzerland Structure-function relationship of protein networks<br />
regulating <strong>the</strong> microtubule cytoskeleton<br />
23.05 Reto Gassmann Ludwig Institute for Cancer Research, UK Segregating <strong>the</strong> genome in mitosis<br />
23.05 Ana Carvalho Ludwig Institute for Cancer Research, UK Contractile ring dynamics during cytokinesis<br />
24.05 Miguel Godinho-Ferreira IGC, Portugal Two tales from <strong>the</strong> telomere lab<br />
24.05 Ka<strong>the</strong>rine Brown EMBO Journal Behind <strong>the</strong> scenes of scientific publishing<br />
25.05 Wen-Hsiung Li University of Chicago, USA Genetic and epigenetic factors in evolution<br />
of gene regulation<br />
27.05 Marcos González-Gaitin University of Geneva, Switzerland Dynamic of Dpp signalling and growth control<br />
30.05 Mariana Guerreiro IGC, Portugal How to apply to <strong>the</strong> 2011 FCT Call for individual<br />
fellowships<br />
31.05 Luisa Vasconcelos, IGC, Portugal Comparing brains for avoidance, indifference<br />
and selection responses<br />
IGC ANNUAL REPORT ‘11<br />
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141
JUNE 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
03.06 Margaret McFall-Ngai Univ. of Wisconsin, USA The chronic colonisation of epi<strong>the</strong>lia<br />
by bacterial symbionts: insights from <strong>the</strong> study<br />
of mo<strong>de</strong>l systems<br />
07.06 Elisabetta Padovan IGC, Portugal Immunemodulation<br />
09.06 Michael Neuberger University of Cambridge, UK Antibody diversification by AID-mediated<br />
DNA <strong>de</strong>amination<br />
14.06 Louise van Ou<strong>de</strong>nhove, Estación Biológica <strong>de</strong> Doñana - CSIC, Seville, Spain Tra<strong>de</strong>-offs and foraging activity in Mediterannean<br />
ant communities<br />
16.06 Emidio Capriotti Dep. of Bioengineering Stanford Univ., USA / Computational methods for molecular biology<br />
Dep. of Ma<strong>the</strong>matics and Computer Sciences,<br />
Univ. of Balearic Islands, Spain<br />
17.06 Herve Vaucheret Institut Jean-Pierre Bourgin, INRA Versailles, France Genetic dissection of plant RNA <strong>de</strong>gradation<br />
pathways: lessons from silent transgenes<br />
21.06 Michael Parkhouse IGC, Portugal Host-pathogen interaction: an evolutionary<br />
arms race<br />
24.06 Philip Gerrish University of New Mexico, USA Forecasting evolution:<br />
a humble beginning...maybe<br />
28.06 Carlos Penha-Gonçalves IGC, Portugal To be a B cell in a T cell world:<br />
integrating innate stimuli and adaptive responses<br />
29.06 Nelson Martins IGC, Portugal (Post-doc seminar) Evolving <strong>the</strong> immune response of Drosophila<br />
melanogaster - insights using experimental<br />
evolution<br />
29.06 Manuel Marques Pita IGC, Portugal (Post-doc seminar) Objects to think with: (bio) complexity<br />
29.06 Danesh Tarapore IGC, Portugal (Post-doc seminar) Mo<strong>de</strong>lling collective systems: from cells to robots<br />
29.06 Ana Cunha IGC, Portugal Possible role of Ferritin heavy chain in Experimental<br />
Autoimmune Encephalomyelitis<br />
(a mouse mo<strong>de</strong>l of multiple sclerosis)<br />
30.06 Maria João Amorim University of Cambridge, UK Mechanisms for trafficking of Influenza<br />
A virus Vrnas to <strong>the</strong> apical plasma membrane<br />
IGC ANNUAL REPORT ‘11<br />
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142
JULY 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
01.07 Salvatore Spicuglia Centre d’Immunologie Marseille-Luminy Marseille, Control of tissue-specific gene expression<br />
France<br />
in normal and leukemic T cells<br />
05.07 Thiago Carvalho IGC, Portugal Graduate education at <strong>the</strong> IGC<br />
06.07 Marta Cascante Univ. <strong>de</strong> Barcelona, Spain Metabolism as target for novel <strong>the</strong>rapies<br />
in multifactorial diseases<br />
08.07 Claudio Alonso University of Sussex, UK The role of RNA processing in <strong>the</strong> modulation<br />
of Hox gene specificity during <strong>de</strong>velopment<br />
11.07 Graça Raposo Institut Curie, Paris Exosomes and melanosomes: <strong>the</strong> endocytic<br />
pathway for exocytic functions<br />
12.07 Marta Moita IGC, Portugal The sounds of silence<br />
12.07 Susana Lima IGC, Portugal Mate choice in mice<br />
15.07 Miguel Prudêncio IMM, Portugal Plasmodium infection:<br />
parasite molecules, host factors and anti-malarial<br />
interventions<br />
18.07 Susana Seixas IPATIMUP, Porto, Portugal Examples of human adaptation in <strong>the</strong> proteolysis<br />
universe<br />
19.07 Carlos Tadokoro IGC, Portugal Immunethology<br />
21.07 Susana Coelho Station Biologique <strong>de</strong> Roscoff, France The private life of Ectocarpus:<br />
genetics and genomics of sex and alternation<br />
of generations in a mo<strong>de</strong>l brown alga<br />
22.07 Gaspar Jekely Max Planck Institute, Tubingen, Germany Sensory-motor regulation of ciliary swimming<br />
in marine zooplankton<br />
26.07 Johan Bollen Indiana University, Bloomington, USA Scientific impact indicators and stock market<br />
prediction mo<strong>de</strong>ls from large-scale online<br />
attention data<br />
28.07 Guillaume Besnard CNRS, Evolution et Diversité Biologique Lab, Toulouse Phylogenetics of multiple evolution<br />
of <strong>the</strong> C4 photosyn<strong>the</strong>tic syndrome<br />
29.07 Tom Little University of Edinburgh, UK Host parasite coevolution and <strong>the</strong> invertebrate<br />
immune response<br />
AUGUST 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
01.08 Magda Atilano ITQB, Portugal Modifications of <strong>the</strong> cell surface allow bacteria<br />
to eva<strong>de</strong> <strong>the</strong> host immune system<br />
IGC ANNUAL REPORT ‘11<br />
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143
SEPTEMBER 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
02.09 Nicola Clayton University of Cambridge, UK The evolution of shopping lists<br />
06.09 Joaquim Léon IGC, Portugal Control of Apical Ecto<strong>de</strong>rmal Ridge growth<br />
during limb <strong>de</strong>velopment<br />
06.09 Joana Rosario NIH-NIAID, USA NIH Grantsmanship Workshop<br />
09.09 Miguel Martins, Cell Death Regulation Laboratory, Mitochondrial protein misfolding<br />
MRC Toxicology Unit, Leicester, UK<br />
and Parkinson’s disease<br />
13.09 Florence Janody, IGC, Portugal Cancer research:<br />
it’s not what you think. Find out more<br />
14.09 Ioannis Theologidis IGC, <strong>Gulbenkian</strong> (Post-doc seminar) Not supplied<br />
14.09 Catarina Henriques IGC, Portugal (Post-doc seminar) Do telomeres regulate whole organism ageing?<br />
Characterising <strong>the</strong> telomerase mutant zebrafish.<br />
14.09 Sheila Vidal IGC, Portugal & IMM, Portugal Information session on ERC Starting Grants 5th Call<br />
& Margarida Trinda<strong>de</strong><br />
16.06 Bernardo Reina-San Martin Institut <strong>de</strong> Genetique et <strong>de</strong> Biologie Moléculaire Molecular mechanism driving immunoglobulin class<br />
et Cellulaire (IGBMC), France<br />
switch recombination<br />
19.09 Saumya Samarawe School of Molecular & Biomedical Science, The investigation of <strong>the</strong> role of RNA in dominant<br />
University of A<strong>de</strong>lai<strong>de</strong>, Australia<br />
expan<strong>de</strong>d repeat diseases<br />
20.09 Scott ONeill Faculty of Science, Monash University, Extending our un<strong>de</strong>rstanding of Drosophila<br />
Clayton, Australia<br />
symbionts to <strong>de</strong>velop new approaches to control<br />
Dengue fever in human populations<br />
20.09 William Cresko University of Oregon, USA Examining evolution genome-wi<strong>de</strong><br />
in <strong>the</strong> threespine stickleback fish<br />
22.09 Lounes Chikhi IGC, Portugal You're spatial to me: some consequences of space<br />
(and time) on <strong>the</strong> population genetics<br />
of endangered species<br />
27.09 Rui Costa IGC, Portugal Learning new tricks<br />
28.09 Reeta Sharma IGC, Portugal (Post-doc seminar) Shit of an elephant: What is it worth?<br />
28.09 Post-doc Committee IGC, Portugal The Scientist Best Places Survey Results<br />
29.09 Melanie Tanguy Inst. <strong>de</strong> Biologie Moléculaire et cellulaire du CNRS, Regulating <strong>the</strong> regulators - cellular miRNA<br />
Univ. <strong>de</strong> Strasbourg, France<br />
<strong>de</strong>stabilisation in virus infection<br />
30.09 Brian Tsou Sloan Kettering Institute, USA The maintenance of <strong>the</strong> centriole-cilium complex<br />
in animals<br />
30.09 Michael Men<strong>de</strong>s Kaltschmidt Lab Developmental Biology Program Presynaptic mGluR1 mediates synaptic plasticity<br />
Sloan-Kettering Institute, New York<br />
in an inhibitory circuit of <strong>the</strong> mouse spinal cord<br />
IGC ANNUAL REPORT ‘11<br />
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144
OCTOBER 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
04.10 Isabel Gordo IGC, Portugal Evolution of E. coli in <strong>the</strong> tube and in <strong>the</strong> Gut<br />
06.10 Patrick Varga-Weisz Babraham Institute, UK Chromatin remo<strong>de</strong>lling in replication<br />
and epigenomic stability<br />
07.10 Ryoko Kuriyama University of Minnesota, USA Centrioles in ciliogenesis and cell transformation<br />
07.10 Pietro Corsi Oxford University, UK Yesterday as today: <strong>the</strong> many voices of evolution<br />
11.10 Jorge Carneiro IGC, Portugal A wondrous voyage in <strong>the</strong> cockpit of a cell<br />
12.10 Beatriz Fernan<strong>de</strong>z IGC, Portugal (Post-doc seminar) The actin cytoskeleton has a crucial role<br />
to restrain signalling pathways that control tissue<br />
growth<br />
12.10 Susana Gouveia IGC, Portugal Centriole elongation<br />
13.10 Margarida Matos Faculda<strong>de</strong> <strong>de</strong> Ciências da Universida<strong>de</strong> From Nature to Lab: all hell breaks loose 18 years<br />
<strong>de</strong> Lisboa, Portugal<br />
studying evolutionary domestication<br />
in Drosophila subobscura<br />
14.10 Reuben Harris University of Minnesota, USA HIV Vif hijacks multiple cellular proteins<br />
to counteract APOBEC3G and promote<br />
pathogenesis<br />
17.10 Rob Wolthuis Ne<strong>the</strong>rlands Cancer Institute, The Ne<strong>the</strong>rlands Protein <strong>de</strong>struction and syn<strong>the</strong>sis in <strong>the</strong> mitotic<br />
spindle checkpoint<br />
18.10 Henrique Teotónio IGC, Portugal Natural selection in C. elegans experimental<br />
populations<br />
18.10 Andrew Holland Ludwig Institute, UK One becomes two: dividing <strong>the</strong> genome<br />
19.10 Niels Gehring University of Cologne, Germany Gene regulation by RNA-binding protein complexes<br />
21.10 Genevieve Almouzni Institut Curie Paris, France (hetero)chromatin assembly and nuclear<br />
<strong>organisation</strong><br />
24.10 Clare Waterman Storer NIH, USA Integrating actin dynamics and adhesion<br />
in cell migration<br />
25.10 Edgar Gomes Paris VII, France Mechanisms of nuclear positioning during skeletal<br />
muscle formation<br />
25.10 Karina Xavier IGC, Portugal Integration of environmental cues with quorum<br />
sensing<br />
26.10 Tim Miller Washington University, USA Gene down regulation as a <strong>the</strong>rapy<br />
for neuro<strong>de</strong>generative disease<br />
27.10 Hel<strong>de</strong>r Maiato IBMC, Portugal How to make a precise chromosome segregation<br />
machine<br />
28.10 Fanny Gergely University of Cambridge, UK From brain <strong>de</strong>velopment to immune response:<br />
<strong>the</strong> many faces of <strong>the</strong> vertebrate centrosome<br />
28.10 Kevin Foster Oxford University, UK The sociobiology of molecular systems<br />
31.10 Bruno Houdry IBDM, Parc Scientifique <strong>de</strong> Luminy, Marseille, France Deciphering novel facets of Hox regulatory<br />
functions during <strong>de</strong>velopment and evolution<br />
IGC ANNUAL REPORT ‘11<br />
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145
NOVEMBER 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
03.11 James Sharpe CRG Barcelona, Spain Computer mo<strong>de</strong>lling of mouse limb <strong>de</strong>velopment<br />
reveals <strong>the</strong> need for directional cell activities<br />
08.11 Lars Jansen IGC, Portugal On <strong>the</strong> inheritance of proteins<br />
09.11 Ana Augusto IGC, Portugal SnRK1-induced downregulation of PPRZ<br />
is mediated by miRNAs<br />
10.11 Hid<strong>de</strong> Ploegh Ploegh Laboratory, Whitehead Inst. Roads to ruin: protein homeostasis<br />
for Biomedical Research, Cambridge, USA<br />
and its relevance for host-pathogen interactions<br />
11.11 Santiago Zelenay Cancer Research UK, UK Immunity after <strong>de</strong>ath<br />
14.11 Claudia Almeida Laboratory of Morphogenesis and Intracellular How does intracellular trafficking contribute<br />
Signalling, CNRS UMR144, Institute Curie<br />
to neuronal (dys)function?<br />
15.11 Filipa Alves IGC, Portugal Biophysics and genetics of morphogenesis<br />
17.11 Miodrag Grbic The University of Western Ontario, Canada The genome of Tetranychus urticae reveals<br />
herbivorous pest adaptations<br />
18.11 Jess Aguirre Dep. <strong>de</strong> Biología Celular y Desarrollo, Inst. Ros, stress signal transduction and cell<br />
<strong>de</strong> Fisiología Celular, Univ. Nacional Autónoma differentiation in filamentous fungi<br />
<strong>de</strong> México, Mexico<br />
21.11 Thad<strong>de</strong>us George Director of Biology, Amnis Discriminating cells based on <strong>the</strong>ir appearance<br />
using ImageStream cytometry<br />
22.11 João Garcia IGC, Portugal High-performance computational servers<br />
and o<strong>the</strong>r computational matters<br />
22.11 José Leal IGC, Portugal The Bioinformatics Unit<br />
23.11 Carla Lopes IGC, Portugal (Post-doc seminar) Centrosome abnormalities in cancer progression<br />
23.11 Kai Konrad IGC, Portugal (Post-doc seminar) The role of ion channels in membrane potential<br />
polarity control during pollen tube growth<br />
25.11 Michael Turelli University of California Davis, USA Wolbachia Evolution<br />
29.11 Lucas Sanchez Centro <strong>de</strong> Investigaciones Biológicas (C.S.I.C.), Spain Evolutionary paths for sex-<strong>de</strong>termining<br />
mechanisms based on X-chromosome elimination:<br />
The sciarid system<br />
IGC ANNUAL REPORT ‘11<br />
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DECEMBER 2011<br />
DATE SPEAKER AFFILIATION TITLE<br />
02.02 Johannes Jaeger EMBL/CRG Research Unit in Systems Biology, Shift happens:<br />
CRG-Centre <strong>de</strong> Regulació Genòmica, Spain<br />
<strong>the</strong> evolutionary and <strong>de</strong>velopmental dynamics<br />
of <strong>the</strong> gap gene network<br />
06.02 Vasco Barreto IGC, Portugal Physiologic DNA double strand breaks<br />
in B lymphocytes and beyond<br />
06.02 Mónica Roxo Rosa Faculda<strong>de</strong> <strong>de</strong> Engenharia, Universida<strong>de</strong> Católica A contribution to get insight into <strong>the</strong> virulence<br />
Portuguesa, Campus <strong>de</strong> Sintra<br />
of <strong>the</strong> human gastric pathogen Helicobacter pylori<br />
07.12 Francisco Pereira IGC, Portugal (Post-doc seminar) Not supplied<br />
07. 12 Susana Ramos IGC, Portugal (Post-doc seminar) Not supplied<br />
09.12 Christen Mirth IGC, Portugal The Eco-Devo of body size: elucidating<br />
<strong>the</strong> mechanisms that <strong>de</strong>termine body size<br />
and proportions in response to nutrition<br />
in fruit flies<br />
09.02 David Pellman Danna Farber and Harvard Medical School, USA Genome evolution driven by centrosome<br />
amplification<br />
13.12 Ana Mena IGC, Portugal A tour of <strong>the</strong> animal house facility gui<strong>de</strong>lines<br />
14.12 Catarina Carmo IGC, Portugal (Post-doc seminar) I<strong>de</strong>ntification of Wolbachia effector proteins<br />
14.12 Pedro Coelho IGC, Portugal (Post-doc seminar) The evolution of host-parasite interactions<br />
at <strong>the</strong> cellular level<br />
15.12 Marta Vicente-Crespo IGC, Portugal Nonsense-mediated mRNA Decay in vivo:<br />
keeping down <strong>the</strong> nonsense<br />
16.12 António Jacinto CEDOC, Portugal CEDOC<br />
19.12 Geert Kops University of Utrecht, The Ne<strong>the</strong>rlands Coupling <strong>the</strong> microtubule attachment site<br />
on kinetochores to mitotic checkpoint signalling<br />
20.12 Joana Sá IGC, Portugal Experimenting with politics and risk perception<br />
22.12 David J. Solecki St. Ju<strong>de</strong> Children's Research Hospital, Memphis, USA Siah regulation of Pard3A controls neuronal cell<br />
adhesion during germinal zone exit<br />
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PRESENTATIONS BY IGC RESEARCHERS<br />
AT INTERNATIONAL MEETINGS<br />
FILIPA ALVES<br />
Biophysical mo<strong>de</strong>ls for ion dynamics in cell polarisation and apical growth<br />
The 8th International Symposium on Networks in Bioinformatics (ISNB 2011)<br />
Amsterdam, The Ne<strong>the</strong>rlands<br />
April 2011<br />
Mo<strong>de</strong>ling <strong>the</strong> <strong>de</strong>velopment and evolution of pigmentation patterns in butterflies<br />
Geometry of Interfaces<br />
Primošten, Croatia<br />
October 2011<br />
JOÃO ALVES<br />
The evolutionary history of an inversion polymorphism in <strong>the</strong> human genome<br />
European Meeting of PhD Stu<strong>de</strong>nts in Evolutionary Biology (EMPSEB)<br />
Seia, Portugal<br />
August 2011<br />
ALEKOS ATHANASIADIS<br />
Conformational junctions in DNA and genomic instability<br />
XXIII international congress of Crystallography<br />
Madrid, Spain<br />
August 2011<br />
ELENA BAENA-GONZÁLEZ<br />
Early signalling in <strong>the</strong> stress response<br />
Invited speaker, 6th International PhD Summer School on Environmental Signalling<br />
Utrecht University, The Ne<strong>the</strong>rlands<br />
August 2011<br />
Dissecting <strong>the</strong> SnRK1 signalling pathway<br />
Invited speaker, 1st European meeting on <strong>the</strong> “TOR kinase signalling pathway in plants”<br />
INRA-Versailles, France<br />
December 2011<br />
VÍTOR BARBOSA<br />
Meiotic surveillance of <strong>the</strong> cohesion protein dPds5 in insulator body formation<br />
requires ATM but not ATR<br />
52nd Drosophila Research Conference, Genetics Society of America, USA<br />
March 2011<br />
JÖRG BECKER<br />
Transcriptomics approaches to study <strong>the</strong> Arabidopsis male germline<br />
and Medicago symbioses<br />
OCAST meeting, Ardmore, Oklahoma, USA<br />
August 2011<br />
PATRÍCIA BELDADE<br />
Evo-<strong>de</strong>vo and <strong>the</strong> mechanisms of morphological diversification<br />
Seminar at <strong>the</strong> Institute for Evolution and Biodiversity of Munster University<br />
Münster, Germany<br />
April 2011<br />
The origin and diversification of novel traits<br />
Discussion group "The future of Evo-Devo", Foundation <strong>de</strong>s Treilles, Les Treilles<br />
Tourtour, France<br />
April 2011<br />
The origin and diversification of novel traits:<br />
a locus affecting embryonic <strong>de</strong>velopment and contributing to wing pattern variation<br />
Institute of Biology, Lei<strong>de</strong>n University, <strong>the</strong> Ne<strong>the</strong>rlands<br />
June 2011<br />
IGC ANNUAL REPORT ‘11<br />
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On <strong>the</strong> origin and diversification of novel traits: old genes, new tricks<br />
13th Congress of <strong>the</strong> European Society for Evolutionary Biology<br />
Tuebingen, Germany<br />
August 2011<br />
MÓNICA BETTENCOURT DIAS<br />
CABD<br />
Seville, Spain<br />
January 2011<br />
Intitut <strong>de</strong> Genetique Humaine<br />
Montpellier, France<br />
February 2011<br />
ETH<br />
Zurique, Switzerland<br />
March 2011<br />
University of Geneva, Switzerland<br />
March 2011<br />
Annual Helsinki Biomedical Graduate School (HBGS) Stu<strong>de</strong>nt Council Symposium<br />
on “Cell cycle"<br />
Nordic Cilia Meeting, Denmark<br />
March 2011<br />
??????and Proliferation”<br />
Helsinki, Finland.<br />
April 2011<br />
LMCB<br />
London, UK<br />
June 2011<br />
FEBS/DGZ workshop in Potsdam<br />
"The spi<strong>de</strong>r's web: how microtubules organise cellular space"<br />
June 2011<br />
Clare Hall (CRUK Institute) London, UK<br />
July 2011<br />
GRC Motile & Contractile Systems, Colby-Sawyer College in New London<br />
New Hampshire, USA<br />
August 2011<br />
European Drosophila Research Conference<br />
Lisbon<br />
September 2011<br />
Centrosome and SPB Conference<br />
Barcelona<br />
October 2011<br />
IRB PhD stu<strong>de</strong>nt Symposia<br />
Barcelona<br />
November 2011<br />
Genes and Cancer Meeting<br />
Warwick, UK<br />
December 2011<br />
LEONOR BOAVIDA<br />
Potential functions for gamete-expressed tetraspanins in sexual plant reproduction<br />
XXXVI Jornadas Portuguesas <strong>de</strong> Genética<br />
Coimbra, Portugal<br />
May 2011<br />
IGC ANNUAL REPORT ‘11<br />
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149
Tetraspanins in higher plants: a functional role in sexual reproduction<br />
FASEB Summer Conferences: Membrane Organization by Molecular Scaffolds,<br />
Saxtons River, Vermont, USA<br />
July 2011<br />
SOFIA BRAGA<br />
The heterogeneity of breast cancer<br />
Canceromatics II, Multilevel Interpretation of Cancer genome, Centro Nacional<br />
<strong>de</strong> Investigaciones Oncologicas<br />
Madrid, Spain<br />
March 2011<br />
Centrosome components and regulators as clinically relevant prognostic markers<br />
in cancer<br />
15th Annual Meeting Socieda<strong>de</strong> Portuguesa Genética Humana<br />
Lisbon, Portugal<br />
November 2011<br />
JOANA CARDOSO<br />
Translational Bioinformatics at <strong>the</strong> Computational Genomics Laboratory<br />
VII Conferência Estatística e Qualida<strong>de</strong> em Saú<strong>de</strong><br />
Lisbon, Portugal<br />
May 2011<br />
CLAUDINE CHAOUIYA<br />
Logical mo<strong>de</strong>ls provi<strong>de</strong> insights into regulatory networks dynamics<br />
Invited seminar, CADP<br />
Seville, Spain<br />
March 2011<br />
Current <strong>de</strong>velopments in qualitative mo<strong>de</strong>lling of biological networks<br />
COMBINE (Computational Mo<strong>de</strong>lling in Biology Network)<br />
Hei<strong>de</strong>lberg, Germany<br />
September 2011<br />
LOUNES CHIKHI<br />
Génétique <strong>de</strong>s populations dans l’espace et dans le temps:<br />
reconstruire l’histoire démographique <strong>de</strong>s populations<br />
Biodiversité et Informatique<br />
Grenoble, Switzerland<br />
June 2011<br />
Population genetics in space and time: can we reconstruct <strong>the</strong> <strong>de</strong>mographic<br />
history of (endangered) populations<br />
European Meeting of PhD Stu<strong>de</strong>nts in Evolutionary Biology (EMPSEB)<br />
Seia, Portugal<br />
August 2011<br />
Population genetics in space and time: can we reconstruct <strong>the</strong> <strong>de</strong>mographic<br />
history of (endangered) populations?<br />
ISPA<br />
Lisbon, Portugal<br />
September 2011<br />
Very spatial in<strong>de</strong>ed: some consequences of space (and time) on <strong>the</strong> population<br />
genetics of endangered species<br />
TiBE, CIBIO<br />
Vairão, Portugal<br />
December 2011<br />
Conservation, phylogéographie et génétique <strong>de</strong> lémuriens dans <strong>de</strong>s habitats<br />
fragmentés <strong>de</strong> Madagascar et <strong>de</strong> l’archipel <strong>de</strong>s Comores<br />
Fondation Recherche et Biodiversité<br />
Paris, France<br />
December 2011<br />
IGC ANNUAL REPORT ‘11<br />
SEMINARS, WORKSHOPS, AND MEETINGS<br />
150
HELENA COSTA<br />
Mechanism of IL-8 induction by HCMV UL76<br />
9th Joint Meeting of <strong>the</strong> International Cytokine Society (ICS)<br />
and <strong>the</strong> International Society for Interferon and Cytokine Research (ISICR)<br />
Florence, Italy<br />
October 2011<br />
NUNO COSTA<br />
Active regulatory T-cells contribute to broa<strong>de</strong>ned T-cell repertoire diversity<br />
in ivIg-treated SLE patients<br />
2º Congresso Nacional <strong>de</strong> Auto-Imunida<strong>de</strong>, Almancil, Portugal<br />
April 2011<br />
RUI COSTA<br />
First Songbird Satellite Symposium<br />
Washington, USA<br />
CRG<br />
Barcelona, Spain<br />
Janelia Conference ‘The Neural Basis of Motor Control’<br />
Ashburn, USA<br />
CRG<br />
Barcelona, Spain<br />
Riken BSI<br />
Barcelona, Wako, Japan<br />
Development of Brain and Mind Symposium<br />
Kobe, Japan<br />
Keynote, Portuguese Society for Educational Sciences<br />
Guarda, Portugal<br />
ISPA<br />
Lisbon, Portugal<br />
IMP<br />
Vienna, Austria<br />
100th Anniversary University of Lisbon<br />
Portugal<br />
College <strong>de</strong> France<br />
Paris, France<br />
CSHL<br />
Cold Spring Harbor, USA<br />
103rd Titisee Conference<br />
Titisee, Germany<br />
Janelia Farm Research Campus<br />
Ashburn, USA<br />
FMI<br />
Basel, Switzerland<br />
JOCELYNE DEMENGEOT<br />
From clinical trials to SLE pathogenesis and vice versa:<br />
Did we explore everything we could from animal mo<strong>de</strong>ls?<br />
8th European Lupus Meeting 2008<br />
Porto, Portugal<br />
April 2011<br />
IGC ANNUAL REPORT ‘11<br />
SEMINARS, WORKSHOPS, AND MEETINGS<br />
151
YOAN DIEKMANN<br />
10000 Rabs for <strong>the</strong> cell biologist<br />
EMBO Conference on Comparative Genomics of Eukaryotic Microorganisms<br />
San Feliu <strong>de</strong> Guixols, Spain<br />
October 2011<br />
PAULA DUQUE<br />
The plant-specific SR45 splicing factor is a novel player<br />
in hexokinase-in<strong>de</strong>pen<strong>de</strong>nt glucose signalling in Arabidopsis<br />
Second International EURASNET Conference on Alternative Splicing<br />
Granada, Spain<br />
March 2011<br />
The plant-specific SR45 splicing factor is a novel player<br />
in hexokinase-in<strong>de</strong>pen<strong>de</strong>nt glucose signalling in Arabidopsis<br />
Second International EURASNET Conference on Alternative Splicing<br />
Granada, Spain<br />
March 2011<br />
Alternative splicing and proteomic diversity in plant responses<br />
to environmental stress<br />
Universida<strong>de</strong> do Algarve, Faro, Portugal<br />
July 2011<br />
Alternative splicing and proteomic diversity in plant responses<br />
to environmental stress<br />
Universida<strong>de</strong> do Algarve<br />
Faro, Portugal<br />
July 2011<br />
JOSÉ FEIJÓ<br />
Signalling with ions: merging genetics with biophysics on <strong>the</strong> pollen tube system<br />
Dept Cell and Molecular Biology<br />
University of Maryland<br />
USA<br />
Space and time coordination of cellular growth processes by free cytosolic ions<br />
in pollen tubes<br />
Plenary Speaker, Wagenigen, 2011, “Botanical Microscopy Meeting”<br />
Royal Microscopical Society<br />
Wagenigen, The Ne<strong>the</strong>rlands<br />
Space and time coordination of cellular growth processes by free cytosolic ions<br />
in pollen tubes<br />
Estación Experimental Zaidin, Granada<br />
and University of Granada, Spain<br />
April 2011<br />
Space and time coordination of cellular growth processes by free cytosolic ions<br />
in pollen tubes<br />
Plenary Speaker, Biophysical Basis of Development EMBO workshop<br />
IGC<br />
Oeiras, Portugal<br />
May 2011<br />
Of mo<strong>de</strong>ls and mechanisms of ion dynamics and signalling in pollen tubes<br />
MPI, Cologne University<br />
Germany<br />
June 2011<br />
Space and time coordination of cellular growth processes by free cytosolic ions<br />
in pollen tubes<br />
Keynote speaker, Society for Experimental Biology<br />
Glasgow, UK<br />
July 2011<br />
IGC ANNUAL REPORT ‘11<br />
SEMINARS, WORKSHOPS, AND MEETINGS<br />
152
Of mo<strong>de</strong>ls and mechanisms of ion dynamics and signalling in pollen tubes<br />
Symposium Keynote speaker, International Botany Meeting<br />
Melbourne, Australia<br />
July 2011<br />
Space and time coordination of cellular growth processes by free cytosolic ions<br />
in pollen tubes<br />
The Harold Woolhouse Lecture 2011<br />
University of A<strong>de</strong>lai<strong>de</strong>, Australia<br />
August 2011<br />
Of mo<strong>de</strong>ls and mechanisms of ion dynamics and signalling in pollen tubes<br />
RCN pollen workshop, Satellite meeting to <strong>the</strong> ASPB<br />
Minnesota, USA<br />
August 2011<br />
Excitement in sexual plant reproduction: <strong>the</strong> remarkable biology of pollen tubes<br />
Genetics Society<br />
Coimbra, Portugal<br />
PEDRO FERNANDES<br />
Treino em Bioinformática - o programa GTPB<br />
VII Conferência Estatística e Qualida<strong>de</strong> na Saú<strong>de</strong>, IHMT-UNL, Lisbon, Portugal<br />
May 2011<br />
Skills in Bioinformatics via training courses<br />
Interbio International Meeting, Valencia, Spain<br />
Nov 2011<br />
CONSTANTIN FESEL<br />
T-cell regulation in SLE patients and unaffected relatives<br />
8th European Lupus Meeting, Porto, Portugal<br />
April 2011<br />
MIGUEL GODINHO FERREIRA<br />
MRN self-dimerisation, not its checkpoint function, is required for NHEJ<br />
at fission yeast telomeres<br />
Telomeres and Telomerase Meeting, CSHL<br />
NY, USA<br />
May 2011<br />
Establishing anti-telomerase <strong>the</strong>rapy for melanoma in zebrafish<br />
IPATIMUP<br />
Porto, Portugal<br />
June 2011<br />
Zebrafish telomerase mutant - a mo<strong>de</strong>l system for ageing and cancer<br />
CECAD - Cluster of Excellence in Aging-associated Diseases<br />
Cologne, Germany.<br />
June 2011<br />
Chromosome Structure is an Evolutionary Selectable Trait<br />
The Sixth International Fission Yeast Meeting, Boston, USA<br />
June 2011<br />
Telomeres and chromosome-end protection<br />
Institute of Biochemistry<br />
ETH Zürich, Switzerland<br />
September 2011<br />
GABRIELA GOMES<br />
Measures of immunity across scales<br />
Infection Dynamics: Bridging <strong>the</strong> Gap between Theory and Application<br />
Utrecht Centre for Infection Dynamics<br />
The Ne<strong>the</strong>rlands<br />
March 2011<br />
IGC ANNUAL REPORT ‘11<br />
SEMINARS, WORKSHOPS, AND MEETINGS<br />
153
Heterogeneity in host-microparasite systems<br />
Phylodynamics, NESCent - National Evolutionary Syn<strong>the</strong>sis Centre<br />
Durham, USA<br />
May 2011<br />
Heterogeneity in antibody range and <strong>the</strong> antigenic drift of influenza A viruses<br />
VIII European Conference on Ma<strong>the</strong>matical and Theoretical Biology<br />
Krakow, Poland.<br />
June 2011<br />
Heterogeneity in antibody range and <strong>the</strong> antigenic drift of influenza viruses<br />
From Chaos to Complexity, Ma<strong>the</strong>matics Interdisciplinary Research<br />
University of Warwick, UK<br />
July 2011<br />
RICARDO GONÇALVES<br />
Metabolism and nutritional <strong>de</strong>cision, present and future of a mo<strong>de</strong>l<br />
<strong>Instituto</strong> Superior <strong>de</strong> Saú<strong>de</strong> do Alto Ave (ISAVE), Póvoa <strong>de</strong> Lanhoso, Portugal<br />
November 2011<br />
MARC GOUW<br />
mtocDB: <strong>the</strong> Evolution of Microtuble <strong>de</strong>rived organelles, RSGTP<br />
Lisbon, Portugal<br />
May 2011<br />
INBAL ISRAELY<br />
The <strong>de</strong>ndritic branch as an integrative unit for protein syn<strong>the</strong>sis <strong>de</strong>pen<strong>de</strong>nt<br />
synaptic plasticity<br />
Synapse: From Molecules to Circuits & Behaviour<br />
Cold Spring Harbor Laboratory Meeting, CSHL<br />
USA<br />
April 2011<br />
FLORENCE JANODY<br />
The actin cytoskeleton: A tumour suppressor organelle<br />
Skirball Institute<br />
New York, USA<br />
April 2011<br />
The role of <strong>the</strong> actin cytoskeleton in mechano-transduction and tissue growth<br />
Biophysical Mechanisms of Development EMBO Workshop<br />
IGC<br />
Oeiras, Portugal<br />
May 2011<br />
LARS JANSEN<br />
The centromere: A showcase for epigenetic inheritance<br />
<strong>Instituto</strong> <strong>de</strong> Biologia Molecular e Celular (IBMC)<br />
Porto, Portugal<br />
February 2011<br />
The centromere: A showcase for epigenetic inheritance<br />
Centro <strong>de</strong> Biomedicina Molecular e Estrutural, Faro, Portugal<br />
March 2011<br />
The centromere: A showcase for epigenetic inheritance<br />
Young Investigator Programme meeting, EMBL<br />
Hei<strong>de</strong>lberg, Germany<br />
May 2011<br />
Epigenetics and <strong>the</strong> Rebirth of Lamarckism<br />
SIMC symposium<br />
Museu da Ciência<br />
Coimbra, Portugal<br />
May 2011<br />
IGC ANNUAL REPORT ‘11<br />
SEMINARS, WORKSHOPS, AND MEETINGS<br />
154
The centromere: A showcase for epigenetic inheritance<br />
Institute for Genetics<br />
University of Cologne<br />
Cologne, Germany<br />
June 2011<br />
Centromere inheritance and propagation<br />
2nd Dynamic kinetochore workshop, IMP<br />
Vienna, Austria<br />
June 2011<br />
The centromere: A showcase for epigenetic inheritance<br />
ETH<br />
Zurich, Switzerland<br />
November 2011<br />
Locus specific histone turnover and assembly<br />
YIP Chromatin network meeting, EMBL<br />
Hei<strong>de</strong>lberg, Germany<br />
December 2011<br />
MARIA ADELINA JERÓNIMO<br />
The origin of novel traits: epi<strong>de</strong>rmal wounds and butterfly eyespots<br />
17th EMPSEB (European Meeting of PhD stu<strong>de</strong>nts in Evolutionary Biology)<br />
Seia, Portugal<br />
August 2011<br />
CATARINA JÚLIO<br />
Should scientific research institutions communicate directly with public?<br />
I National Meeting of Evolutionary Biology, Science communication workshop,<br />
Museu da Ciência da Universida<strong>de</strong> <strong>de</strong> Coimbra<br />
Portugal<br />
December 2011<br />
ROBERTO KELLER<br />
Ants protect <strong>the</strong>ir mouthparts by locking <strong>the</strong>m in place<br />
Congrès 2011 <strong>de</strong> la section française <strong>de</strong> l'UIEIS<br />
Banyuls, France<br />
April 2011<br />
Queen, workers and working queens: morphological adaptations related<br />
to caste-specific behaviours in ants<br />
Department of Zoology<br />
University of Cambridge, UK<br />
November 2011<br />
TAKASHI KOYAMA<br />
Exploring <strong>the</strong> role for FoxO in body size regulation by <strong>the</strong> integration of insulin<br />
and ecdysone signalling<br />
Ecdysone Workshop at <strong>the</strong> 52nd Annual Drosophila Research Conference,<br />
San Diego, U.S.A.<br />
March 2011<br />
BEATRIZ LUNA<br />
Relating Formalisms for <strong>the</strong> Qualitative Mo<strong>de</strong>lling of Regulatory Networks<br />
5th International Conference on Practical Applications of Computational<br />
Biology & Bioinformatics (PACBB 2011)<br />
Salamanca, Spain<br />
April 2011<br />
IGC ANNUAL REPORT ‘11<br />
SEMINARS, WORKSHOPS, AND MEETINGS<br />
155
ZACHARY MAINEN<br />
Task-<strong>de</strong>pen<strong>de</strong>nt strategies for <strong>de</strong>cision-making un<strong>de</strong>r uncertainty<br />
Columbia University<br />
New York, USA<br />
April 2011<br />
Neural circuits for odor-gui<strong>de</strong>d <strong>de</strong>cisions in <strong>the</strong> rat<br />
Société <strong>de</strong>s Neurosciences 10e Colloque<br />
Marseille, France<br />
May 2011<br />
Targeting <strong>the</strong> serotonin system using optogenetics:<br />
Towards a post-pharmacological view<br />
Causal Neuroscience, FENS-IBRO-SfN School<br />
Bertinoro, Italy<br />
June 2011<br />
Knowing what you know: Mo<strong>de</strong>ls and mechanisms for judgments of confi<strong>de</strong>nce<br />
What Makes Us Human? 2011 GABBA Annual Symposium<br />
Porto, Portugal<br />
July 2011<br />
Neural mechanisms for <strong>de</strong>cision making in <strong>the</strong> rat:<br />
Uncertainty in brain and behavior<br />
Genes, circuits, behaviour Symposium<br />
RIKEN Brain Science Institute,<br />
Tokyo, Japan<br />
October 2011<br />
MOISÉS MALLO<br />
Making animals with <strong>the</strong> right number of ribs: who has <strong>the</strong> instruction manual?<br />
<strong>Instituto</strong> Superior <strong>de</strong> Agronomia<br />
Lisbon, Portugal<br />
June 2011<br />
What makes Hox10 proteins fail to repress rib formation<br />
2011 COST Meeting on Hox and Tale Transcription Factors in Development<br />
and Disease<br />
Carry-le-Rouet, France<br />
October 2011<br />
ANA RITA MATEUS<br />
Hormonal manipulations and <strong>de</strong>velopmental plasticity<br />
17th EMPSEB (European Meeting of PhD stu<strong>de</strong>nts in Evolutionary Biology)<br />
Seia, Portugal<br />
August 2011<br />
Hormonal manipulations and <strong>de</strong>velopmental plasticity: in<strong>de</strong>pen<strong>de</strong>nce of highly<br />
integrated traits<br />
VII Encontro Nacional <strong>de</strong> Biologia Evolutiva<br />
Museu <strong>de</strong> Ciência da Universida<strong>de</strong> <strong>de</strong> Coimbra<br />
Coimbra, Portugal<br />
December 2011<br />
CHRISTEN MIRTH<br />
How nutrition regulates adult body size: lessons from fruit flies<br />
CIC bioGUNE<br />
Derio, Spain<br />
March 2011<br />
The evolution of foraging behaviour in larvae of <strong>the</strong> genus Drosophila<br />
Centro <strong>de</strong> Regulació Genômica<br />
Barcelona, Spain<br />
June 2011<br />
IGC ANNUAL REPORT ‘11<br />
SEMINARS, WORKSHOPS, AND MEETINGS<br />
156
Mechanisms <strong>de</strong>termining adult body size and proportions in response to nutrition<br />
in Drosophila melanogaster<br />
Centro Andaluz <strong>de</strong> Biología <strong>de</strong>l Desarrollo (CABD)<br />
Seville, Spain.<br />
July 2011<br />
Ecdysone regulates size-<strong>de</strong>pen<strong>de</strong>nt <strong>de</strong>velopment<br />
Endocrine control of growth, body size and allometric scaling symposium<br />
at <strong>the</strong> North American Society for Comparative Endocrinology Meeting<br />
Ann Arbor, USA.<br />
July 2011<br />
The Development and Evolution of Environmentally-Depen<strong>de</strong>nt Traits<br />
Junior European Drosophila Investigators Meeting<br />
Leysin, Switzerland.<br />
September 2011<br />
MARTA MOITA<br />
Producing and Perceiving Complex Acoustic Signals:<br />
Songbirds and Mice as Mo<strong>de</strong>l Systems Conference<br />
Janelia Farm, USA<br />
March 2011<br />
103rd International Titisee Conference on “Genetic analysis of neural circuits”<br />
Titisee, Germany<br />
March 2011<br />
Cutting edge in synapse research<br />
NAIST, Japan<br />
December 2011<br />
RIKEN Brain Science Institute<br />
Japan<br />
December 2011<br />
PEDRO MONTEIRO<br />
Modélisation et vérification formelle <strong>de</strong>s réseaux <strong>de</strong> régulation biologique :<br />
vers une approche intégrée<br />
Workshop Formalisme logique, apports et défis pour la modélisation <strong>de</strong> réseaux<br />
<strong>de</strong> régulation biologique<br />
Rabat, Morocco<br />
April 2011<br />
RICARDO PAIVA<br />
T cell Maturation Stage Conditions <strong>de</strong> novo Foxp3 Expression in vivo<br />
Yale School of Medicine, Department of Immunobiology<br />
New Haven, Connecticut, USA<br />
January 2011<br />
MICHAEL PARKHOUSE<br />
Manipulation of interferon responses by African Swine Fever Virus<br />
AFRISK<br />
Seville, Spain<br />
January 2011<br />
The diversity of immune responses to microbes<br />
8th European Lupus Meeting<br />
Porto, Portugal<br />
April 2011<br />
Strategies for <strong>the</strong> control of T. solium cysticercosis<br />
CYTED<br />
UNAM, México<br />
May 2011<br />
IGC ANNUAL REPORT ‘11<br />
SEMINARS, WORKSHOPS, AND MEETINGS<br />
157
African Swine Fever Virus has evolved multiple strategies to manipulate<br />
<strong>the</strong> interferon responses by <strong>the</strong> host<br />
AFRISK<br />
Lisbon, Portugal<br />
September 2011<br />
El control <strong>de</strong> la cisticercosis bovina, porcina y humana<br />
XX Congresso Latinoamericano <strong>de</strong> Parasitologia<br />
Bogota, Colombia<br />
September 2011<br />
Control <strong>de</strong> cisticercosis por vacunacion<br />
Cisticercosis bovina: <strong>de</strong>safio a ser vencido Workshop<br />
UNESP<br />
Brazil<br />
November 2011<br />
Estratégias racionales para el <strong>de</strong>sarrollo <strong>de</strong> vacunas<br />
<strong>Instituto</strong> Biomed<br />
Venezuela<br />
December 2011<br />
BÁRBARA PARREIRA<br />
The impact of <strong>the</strong> social structure on patterns of genetic diversity:<br />
a simulation approach<br />
17th European Meeting of PhD Stu<strong>de</strong>nts in Evolutionary Biology (EMPSEB)<br />
Seia, Portugal<br />
August 2011<br />
The impact of <strong>the</strong> social structure on patterns of genetic diversity:<br />
a simulation approach<br />
TiBE, CIBIO<br />
Vairão, Portugal<br />
December 2011<br />
JOE PATON<br />
A representation of time for learning in <strong>the</strong> striatum of behaving rats<br />
Paris, France<br />
A representation of time for reinforcement learning in <strong>the</strong> striatum of behaving rats<br />
Parallel distributed processing<br />
Princeton, NJ, USA<br />
A representation of time for learning in <strong>the</strong> striatum of behaving rats<br />
Decision making in neural circuits<br />
Ashburn, VA, USA<br />
A representation of time for learning in <strong>the</strong> striatum of behaving rats<br />
Group meeting of Ann Graybeil lab, MIT<br />
Boston, USA<br />
JOSÉ PEREIRA-LEAL<br />
New bioinformatics tools for an evolutionary cell biology<br />
Utrecht, Ne<strong>the</strong>rlands<br />
March 2011<br />
New bioinformatics tools for an evolutionary cell biology<br />
EMBnet meeting<br />
Oeiras, Portugal<br />
April 2011<br />
mtodDB<br />
Madrid, Spain<br />
April 2011<br />
IGC ANNUAL REPORT ‘11<br />
SEMINARS, WORKSHOPS, AND MEETINGS<br />
158
The evolutionary dynamics of (Rab) proteins and interactions<br />
Interbio Meeting<br />
Oeiras, Portugal<br />
May 2011<br />
The computational Genomics Laboratory<br />
3E<br />
Caparica, Portugal<br />
June 2011<br />
Towards an evolutionary cell biology and its translational applications<br />
Computational Methods in Functional Genomics<br />
Bertinoro, Italy<br />
September 2011<br />
The evolution of cellular structures and compartments<br />
Dusseldorf, Germany<br />
November 2011<br />
The evolution of intracellular compartments and its translational applications<br />
Viena, Austria<br />
December 2011<br />
CARLOS RIBEIRO<br />
The Molecular and Neuronal Control of Nutrient Choice in Drosophila<br />
ICVS, University of Minho, Braga, Portugal<br />
April 2011<br />
The Molecular and Neuronal Control of Nutrient Choice in Drosophila<br />
XII Meeting of <strong>the</strong> Portuguese Society for Neuroscience<br />
Lisbon, Portugal<br />
May 2011<br />
The Molecular and Neuronal Control of Nutrient Choice in Drosophila<br />
<strong>Instituto</strong> <strong>de</strong> Medicina Molecular<br />
University of Lisbon<br />
Lisbon, Portugal<br />
June 2011<br />
Where did I go and how did I get <strong>the</strong>re?<br />
E3 forum, Education, Employment, Entrpreneurship<br />
MIT Portugal Program<br />
Lisbon<br />
June 2011<br />
The Behavior and metabolism laboratory<br />
The first Junior European Drosophila Investigator meeting<br />
Leysin, Switzerland<br />
September 2011<br />
The Molecular and Neuronal Control of Nutrient Choice in Drosophila<br />
22nd European Drosophila Research Conference<br />
Lisbon, Portugal<br />
September 2011<br />
The Molecular and Neuronal Control of Nutrient Choice in Drosophila<br />
Deprtment of Zoology<br />
University of Cambridge<br />
Cambridge, UK<br />
December 2011<br />
LUIS M. ROCHA<br />
The complex systems approach to mo<strong>de</strong>lling biochemical regulation<br />
and <strong>organisation</strong><br />
Colloquium, IGC<br />
Portugal<br />
February 2011<br />
IGC ANNUAL REPORT ‘11<br />
SEMINARS, WORKSHOPS, AND MEETINGS<br />
159
Schema Re<strong>de</strong>scription in Automata Networks: Revisiting Emergence<br />
in Complex Systems<br />
Cognitive Science Programme<br />
Indiana University<br />
Bloomington, IN, USA<br />
March 2011<br />
Text Classification of <strong>the</strong> Biomedical Literature<br />
Networks and Complex Systems Talk Series<br />
Indian University<br />
Bloomington, IN, USA<br />
March 2011<br />
Collective Computation in Biochemical Networks: Canalization,<br />
Control and Modularity<br />
University of Nebraska at Lincoln, USA<br />
October 2011<br />
Reality is stranger than fiction: Exploring <strong>the</strong> Evolutionary Role of RNA Editing<br />
with Computational Mo<strong>de</strong>ls<br />
Colloquium Speaker, Theoretical Biology Seminar Series<br />
CREA-CNRS<br />
Paris, France<br />
November 2011<br />
JORDI SALMONA<br />
Signature of a pre-human population collapse in <strong>the</strong> critically endangered<br />
Reunion Island en<strong>de</strong>mic forest bird Coracina newtoni<br />
TiBE, CIBIO<br />
Vairão, Portugal<br />
December 2011<br />
RAQUEL SANTOS<br />
The oocyte-specific function of dPds5 in insulator assembly is monitored by <strong>the</strong><br />
checkpoint kinase ATM but not by ATR<br />
22nd European Drosophila Research Conference<br />
September 2011<br />
REETA SHARMA<br />
Addressing <strong>the</strong> genetic response of Bornean elephants to habitat loss<br />
and fragmentation<br />
ESEB<br />
Tübingen, Germany<br />
August 2011<br />
LEILA SHIRAI<br />
Evo-<strong>de</strong>vo in Bicyclus anynana<br />
Embryo Club, Joint Meeting of Lisbon-based research groups<br />
in Developmental Biology<br />
Calouste <strong>Gulbenkian</strong> Foundaiton<br />
Portugal<br />
March 2011<br />
CARLOS E. TADOKORO<br />
Immunethology<br />
Faculda<strong>de</strong> <strong>de</strong> Ciências, Universida<strong>de</strong> <strong>de</strong> Lisboa<br />
Portugal<br />
January 2011<br />
Immunethology<br />
Otto-von-Guerricke University<br />
Mag<strong>de</strong>burg, Germany<br />
March 2011<br />
IGC ANNUAL REPORT ‘11<br />
SEMINARS, WORKSHOPS, AND MEETINGS<br />
160
HENRIQUE TEÓTONIO<br />
The genetic basis of adaptation in C. Elegans<br />
<strong>Instituto</strong> <strong>de</strong> Medicina Molecular<br />
Lisbon, Portugal<br />
March 2011<br />
The genetic basis of adaptation in C. Elegans<br />
University of Nice<br />
Nice, France<br />
March 2011<br />
The genetic basis of adaptation in C. Elegans<br />
Portugalia Genetica, Porto Portugal<br />
April 2011<br />
The genetic basis of adaptation in C. Elegans<br />
University of Vienna, Vienna Austria<br />
May 2011<br />
The genetic basis of adaptation in C. Elegans<br />
Worm Meeting<br />
Los Angeles USA<br />
June 2011<br />
The genetic basis of adaptation in C. Elegans<br />
European Evolutionary Biology<br />
Tubingen, Germany<br />
August 2011<br />
The genetic basis of adaptation in C. Elegans<br />
Universida<strong>de</strong> <strong>de</strong> Lisboa<br />
Lisbon, Portugal<br />
The genetic basis of adaptation in C. Elegans<br />
University of Aarhus<br />
Aarhus, Denmark<br />
November 2011<br />
The genetic basis of adaptation in C. Elegans<br />
Selection in Populations<br />
Paris, France<br />
December 2011<br />
MARIA LUÍSA VASCONCELOS<br />
Search for neuronal circuits of innate responses in <strong>the</strong> fruit fly<br />
National Institute of Medical Research (NIMR)<br />
London, UK<br />
October 2011<br />
SHEILA VIDAL<br />
Financiamento em Ciência: Elaboração <strong>de</strong> um Projecto <strong>de</strong> Investigação<br />
1º Encontro dos Bolseiros <strong>de</strong> Doutoramento <strong>Gulbenkian</strong> <strong>de</strong> Países Africanos <strong>de</strong><br />
Língua Oficial Portuguesa nas áreas das Doenças Tropicais Negligenciadas e das<br />
Ciências da Saú<strong>de</strong>, Fundação Calouste <strong>Gulbenkian</strong>, Lisbon, Portugal<br />
May 2011<br />
Importance of Mobility within RM&A Professional Development Training:<br />
European & International Internship Programmes<br />
Annual Conference EARMA 2012, Agricultural School, <strong>Instituto</strong> Politécnico <strong>de</strong><br />
Bragança, Portugal<br />
June 2011<br />
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CONFERENCES, MEETINGS,<br />
WORKSHOPS, SUMMER SCHOOLS<br />
ITQB-IGC PLANT INTERACTION MEETINGS<br />
Organisers: Nelson Saibo (ITQB) and Elena Baena-González (IGC)<br />
The main purpose of <strong>the</strong>se monthly meetings is to enhance <strong>the</strong> interaction<br />
between <strong>the</strong> plant groups of <strong>the</strong> ITQB, IBET, and IGC, to exchange i<strong>de</strong>as with<br />
regard to practical/conceptual problems in <strong>the</strong> current projects and in <strong>the</strong> longterm<br />
to promote collaborations amongst <strong>the</strong>se institutions.<br />
AMeeGuS<br />
3 - 5 February 2011<br />
Organisers: PhD Stu<strong>de</strong>nt Committee - Pedro Lima, Inês Trancoso, Ali Ozgur<br />
Argunsah, Marisa Oliveira, Rui Castanhinha, Alex Leitão, Bruno Afonso (IGC)<br />
Funding by: IGC, STAB Vida, Dias <strong>de</strong> Sousa, Quilaban, VWR, Biognostica (Portugal)<br />
The primary goal of <strong>the</strong> annual PhD retreat is to create an open, inspiring<br />
and comfortable atmosphere for all PhD stu<strong>de</strong>nts of <strong>the</strong> IGC to discuss <strong>the</strong>ir<br />
research with peers and a small number of senior scientists, both from <strong>the</strong> IGC<br />
and o<strong>the</strong>r international research centres.<br />
DISTANCE AND eLEARNING TECHNOLOGIES<br />
2 March 2011<br />
Organisers: Pedro Fernan<strong>de</strong>s (IGC)<br />
Funding by: Self-financed by participants<br />
An open discussion on <strong>the</strong> impact of distance and eLearning technologies on<br />
<strong>the</strong> acquisition of skills.<br />
INTRODUCTION TO FLOW CYTOMETRY<br />
27 - 30 April; 29 November - 3 December 2011<br />
Organisers: Rui Gardner (IGC)<br />
The aim of <strong>the</strong>se courses is to introduce researchers to <strong>the</strong> basic concepts of<br />
flow cytometry and provi<strong>de</strong> hands-on experience in <strong>the</strong> most important applications,<br />
namely, immunophenotyping and cell cycle analysis.<br />
IGC PRACTICAL COURSE ON ANIMAL HANDLING AND EXPERIMENTATION<br />
- GOOD PRACTICES WITH RODENTS, FISH AND FROGS<br />
3 - 6 May 2011<br />
Organisers: Ana Mena, Manuel Rebelo and Jocelyne Demengeot (IGC)<br />
Funding by: Ultragene, Tecniplast, Aquatic Solutions<br />
The aim of this course was to train researchers that carry out experiments<br />
with animals in basic procedures, following Fe<strong>de</strong>ration of European Laboratory<br />
Animal Science Associations (FELASA) gui<strong>de</strong>lines. Training in laboratory animal<br />
sciences is mandatory by Portuguese and European Law, in or<strong>de</strong>r for researchers<br />
to be consi<strong>de</strong>red capable to work with animals. This 20 hours course was<br />
structured to cover all vertebrate mo<strong>de</strong>ls in use at <strong>the</strong> IGC, namely mouse, rat,<br />
zebrafish and frog.<br />
DIA DA BIODIVERSIDADE / JOURNÉE DE LA BIODIVERSITÉ / BIODIVERSITY DAY<br />
20 May 2011<br />
Organisers: Lounes Chikhi (IGC), Jean-Pierre Courtiat (French Embassy in Lisbon)<br />
Funding by: IGC, French Embassy in Lisbon<br />
With <strong>the</strong> aim of reflecting on real changes that happened during <strong>the</strong> 2010 International<br />
Year of Biodiversity, and on future prospects and priorities, this oneday<br />
symposium (held at <strong>the</strong> Calouste <strong>Gulbenkian</strong> Foundation) provi<strong>de</strong>d a forum<br />
for citizens and scientists to discuss several relevant issues in biodiversity and<br />
species conservation, namely: <strong>the</strong> rapid <strong>de</strong>cline in species number, threats to<br />
<strong>the</strong> environment and to natural resources. Researchers working in Portugal and<br />
in France were invited to take part.<br />
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EMBnet - ANNUAL GENERAL MEETING 2011<br />
22 - 25 May 2011<br />
Organisers: Pedro Fernan<strong>de</strong>s (IGC)<br />
Funding by: EMBnet<br />
EMBnet Mini Symposium, Meetings and AGM<br />
BIOPHYSICAL MECHANISMS OF DEVELOPMENT<br />
24 - 27 May 2011<br />
Organisers: Beatriz García Fernán<strong>de</strong>z, Ana Catarina Certal, Ana Borges<br />
and Filipa Alves (IGC), Ana Tavares (Universida<strong>de</strong> Técnica <strong>de</strong> Lisboa)<br />
Funding by: EMBO, The EMBO Journal, Applicable Electronics LLC, Grupo Taper,<br />
Zeiss, Leica, Utragene, Tecniplast, Aquatic Solutions, Delta Q,<br />
Oeiras City Council, Socieda<strong>de</strong> Portuguesa <strong>de</strong> Biologia<br />
do Desenvolvimento, Fundação para a Ciência e a Tecnoloiga,<br />
Fundação Calouste <strong>Gulbenkian</strong> (Portugal)<br />
In recent years, a combination of new imaging techniques, genetics and computational<br />
biology have provi<strong>de</strong>d an integrated framework to explore biophysical<br />
phenomena with a resolution thus far difficult to achieve. This workshop aimed<br />
to discuss recent advances and new mechanisms arising in <strong>the</strong> field of <strong>de</strong>velopmental<br />
biophysics in several mo<strong>de</strong>l organisms, extending to <strong>de</strong>velopmentrelated<br />
contexts such as tissue regeneration and tumourigenesis. The main goal<br />
was to bring toge<strong>the</strong>r researchers working at <strong>the</strong> frontiers of <strong>de</strong>velopmental<br />
biology and physics, that employ a wi<strong>de</strong> range of quantitative biology approaches.<br />
In total, 99 people atten<strong>de</strong>d. The panel of 19 invited speakers and five selected<br />
speakers were organised into five sessions: Ion dynamics in <strong>de</strong>velopment;<br />
Regeneration & disease; Tissue mechanics & tension in morphogenesis; Cellular<br />
mechanosensing & mechanotransduction; Morphogen gradients & pattern formation<br />
(see Development 138: 4111).<br />
MASTER COURSES IN BIOINFORMATICS AND BIOLOGICAL COMPUTATION,<br />
CELL BIOLOGY AND BIOTECHNOLOGY AND IN MOLECULAR BIOLOGY<br />
15 - 17 June 2011<br />
Organisers: Jörg Becker, Patricia Pereira and Filipe Borges (IGC)<br />
Sixteen masters stu<strong>de</strong>nts of <strong>the</strong> Faculty of Sciences (University of Lisbon)<br />
learned how to analyse microarray data and performed <strong>the</strong>ir own analysis in<br />
three separate projects.<br />
GENOME BIOLOGY AND EVOLUTION<br />
1 - 19 August 2011<br />
Organisers: Jose Pereira Leal and Thiago Carvalho (IGC)<br />
Funding by: Volkswagen Foundation (Germany), Calouste <strong>Gulbenkian</strong> Foundation<br />
(Portugal)<br />
An international Summer School that brought toge<strong>the</strong>r lea<strong>de</strong>rs in <strong>the</strong> field<br />
(27 speakers) with approximately 40 European stu<strong>de</strong>nts.<br />
EUROPEAN DROSOPHILA RESEARCH CONFERENCE<br />
21 - 24 September 2011<br />
Organisers: Vitor Barbosa, Élio Sucena and Luis Teixeira (IGC), António Jacinto<br />
(CEDOC), Cláudio Sunkel (IBMC)<br />
With over 500 participants from all Europe, <strong>the</strong> biannual European meeting<br />
of Drosophila researchers took place at <strong>the</strong> Calouste <strong>Gulbenkian</strong> Foundation<br />
and <strong>the</strong> satellite workshops were held at <strong>the</strong> IGC. In addition to a panel of<br />
leading plenary speakers <strong>the</strong> conference inclu<strong>de</strong>d sessions on cell biology, cell<br />
cycle, chromatin and gene expression, evo-<strong>de</strong>vo, immunity, mo<strong>de</strong>ls of human<br />
disease, neurobiology and behaviour, next generation resources, organogenesis<br />
and morphogenesis, patterning, physiology, and signaling. The “Drosophila symbionts:<br />
from pathogens to mutualists” workshop, organised within <strong>the</strong> European<br />
Drosophila Research Conference, and <strong>the</strong> "Making and maintaining <strong>the</strong> fly<br />
intestine" workshop brought toge<strong>the</strong>r talks at <strong>the</strong> intersection of Drosophila<br />
and immunology fields. There were about 80 participants in this workshop.<br />
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PathProt-4<br />
21 - 22 October 2011<br />
Organisers: Pedro Fernan<strong>de</strong>s (IGC), Roman Zubarev (Karolinska Institute,<br />
Swe<strong>de</strong>n), Alexan<strong>de</strong>r Kel (GenExplain GmbH, Germany)<br />
Funding by: Self-financed by participants<br />
PathProt is <strong>the</strong> international forum for Pathway Analysis in Proteomics. We are<br />
an informal discussion forum that holds brainstorming meetings.<br />
THEORETICAL COURSE IN LABORATORY ANIMAL SCIENCE - FELASA CATEGORY B<br />
14 - 18 November 2011<br />
Organisers: Ana Mena, Manuel Rebelo and Jocelyne Demengeot (IGC)<br />
The aim of this course was to teach <strong>the</strong>oretical concepts to researchers that<br />
carry out experiments with animals, following FELASA gui<strong>de</strong>lines and in fulfillment<br />
of Portuguese and European Law, which require training in or<strong>de</strong>r for<br />
researchers be consi<strong>de</strong>red capable to work with animals.<br />
ANNUAL MEETING OF THE PORTUGUESE SOCIETY OF IMMUNOLOGY<br />
29 - 30 November 2011<br />
Organisers: Jocelyne Demengeot, Jorge Carneiro, Thiago Carvalho<br />
and Carlos Tadokoro (IGC)<br />
Funding by: Socieda<strong>de</strong> Portuguesa <strong>de</strong> Imunologia, Calouste <strong>Gulbenkian</strong><br />
Foundation, Actimel, Roche, PeproTech (Portugal)<br />
Entitled “Portrait of <strong>the</strong> immune system: history and perspective”, this meeting<br />
hosted 120 participants. It shared a session with <strong>the</strong> symposium Jerne100:<br />
a century of Niels K. Jerne, a ga<strong>the</strong>ring of colleagues, associates, and friends of<br />
one of <strong>the</strong> most remarkable and intemporal figures in immunology. It provi<strong>de</strong>d<br />
<strong>the</strong> opportunity to present and discuss work with members of <strong>the</strong> society and<br />
with several speakers selected from <strong>the</strong> Jerne100 symposium.<br />
GAMEETS 2011 - IGC NETWORKS:<br />
INTERACTIONS WITHIN THE IGC PROGRAMMES<br />
27 December 2011<br />
Organisers: Miguel Godinho Ferreira, Rui Martinho (IGC) and Greta Martins (IGC)<br />
Funding by: Oeiras City Council<br />
The aim of this annual meeting was to present examples of past and ongoing<br />
collaborations within <strong>Gulbenkian</strong> Alumni and discuss ways to stimulate such collaborative<br />
research projects.<br />
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PUBLIC<br />
ENGAGEMENT<br />
IN SCIENCE
SCIENCE<br />
COMMUNICATION<br />
AND OUTREACH<br />
Ana Godinho Head<br />
PhD in Developmental Neurobiology, University of London, UK, 1999<br />
Head of service since January 2008<br />
The IGC runs a <strong>de</strong>dicated science communication and outreach programme,<br />
which actively engages IGC researchers and staff in its two main aims: to raise<br />
<strong>the</strong> profile of <strong>the</strong> IGC and its research, both nationally and internationally, and<br />
to promote public engagement in science. A fur<strong>the</strong>r, closely linked goal, is to<br />
provi<strong>de</strong> scientists with tools to effectively communicate scientific research to<br />
non-specialist audiences, specifically to engage <strong>the</strong> general public and <strong>the</strong> media.<br />
Projects are built around two-way, dialogue-based interactions between<br />
IGC researchers, stu<strong>de</strong>nts and staff with a range of audiences: <strong>the</strong> media, stu<strong>de</strong>nts,<br />
teachers, <strong>the</strong> general public, artists and policy makers.<br />
STAFF<br />
Filipa Barbosa (Post-doc) (left in January)<br />
Sílvia Castro (Post-doc) (left in August)<br />
Inês Domingues (Post-doc)(Started in November)<br />
Ana Mena (Post-doc)<br />
Vitor Faustino (with Collective Dynamics Group) (Project Manager)<br />
Catarina Júlio (Project Officer)<br />
MAJOR PROJECTS AND ACCOMPLISHMENTS<br />
Press Office<br />
Research <strong>de</strong>velopments by IGC scientists are announced through press releases,<br />
which are covered in national and international media. In 2011, 300<br />
news clippings mentioning <strong>the</strong> IGC were registered, in Portuguese (80%) and<br />
international (20%) media outlets (values are un<strong>de</strong>restimations). In total, 16<br />
press releases were sent out; on average, each press release generated 12.1<br />
news items. The IGC has established itself as a major point of call for journalists:<br />
in 2011, a total of 15 spontaneous media enquiries were received, not<br />
directly related to media contacts ma<strong>de</strong> by <strong>the</strong> IGC. Our database of national<br />
and international print, broadcast and online media outlets reaches over<br />
7,000 reporters, in over 60 countries.<br />
Science on TV - a study into science and technology in <strong>the</strong> news<br />
The IGC and <strong>the</strong> national media regulator Entida<strong>de</strong> Reguladora para a Comunicação<br />
Social (ERC) launched a study to quantify coverage of science<br />
and technology in national television news programmes. The aim is to un<strong>de</strong>rstand<br />
how <strong>the</strong> media contribute to raising awareness of scientific research,<br />
and, subsequently, to scientific literacy. The findings of this study shall be<br />
published and discussed at a public meeting for scientists, <strong>de</strong>cision-makers,<br />
journalists and communication scholars.<br />
Schools´ outreach<br />
Personal interactions with stu<strong>de</strong>nts and teachers are an important part<br />
of our outreach. IGC scientists and <strong>the</strong> science communication team took<br />
hands-on activities to school science days and science fairs (D. Pedro IV<br />
School - Queluz, Gama Barros Secondary Schoool - Cacém), holiday camps<br />
(ACDP Basketball Holiday Camp - Oeiras), and organised informal talks by IGC<br />
scientists in several cities (Miguel Torga Secondary School - Lisbon, Alexandre<br />
Herculano Secondary School - Porto).<br />
One of <strong>the</strong> nor<strong>the</strong>ast Portugal high school stu<strong>de</strong>nts, in <strong>the</strong> Lymphocyte Physiology<br />
Group.<br />
Summer Placements<br />
(Collaboration between IGC and city councils of Bragança district)<br />
The third edition of <strong>the</strong> summer placements for nor<strong>the</strong>ast Portugal final<br />
year stu<strong>de</strong>nts hosted five stu<strong>de</strong>nts, from three towns, in three IGC research<br />
groups (Lymphocyte Physiology, Epigenetic Mechanisms, Telomeres and Genome<br />
Stability). Stu<strong>de</strong>nts <strong>de</strong>veloped mini-projects un<strong>de</strong>r direct supervision<br />
of IGC researchers, and presented and discussed <strong>the</strong>ir findings with <strong>the</strong>ir<br />
peers and IGC scientists. Stu<strong>de</strong>nts' said, "Learning new concepts ma<strong>de</strong> this<br />
week awesome and un<strong>de</strong>r <strong>the</strong>. We learnt many things that will be useful in<br />
<strong>the</strong> future".<br />
Poster of Gripenet awareness, for <strong>the</strong> 2001/12 campaign, aimed at recruiting<br />
volunteers for <strong>the</strong> online flu-monitoring survey.<br />
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Science Projects Support Programme<br />
Since 2009 <strong>the</strong> science communication team works with IGC researchers to<br />
provi<strong>de</strong> supervision, <strong>the</strong>oretical and experimental guidance to secondary<br />
school stu<strong>de</strong>nts carrying out science projects. In 2011, we worked with six<br />
groups of stu<strong>de</strong>nts, organising visits to IGC facilities (Drosophila and ro<strong>de</strong>nt<br />
facilities), discussions with scientists (neuroscience, Drosophila genetics,<br />
bioinformatics), providing experimental and in-class protocols (in embryology,<br />
microbiology, biodiversity, genetics).<br />
Biology in Mo<strong>de</strong>rn Times Seminars for Teachers<br />
Targeted at secondary school science teachers, <strong>the</strong> Biology in Mo<strong>de</strong>rn Times<br />
seminars aim to update teachers on current research questions, techniques<br />
and <strong>de</strong>velopments in <strong>the</strong> life sciences. IGC scientists, from PhD stu<strong>de</strong>nts<br />
to <strong>the</strong> director, led informal presentations with Q&A on immunology, <strong>de</strong>velopmental<br />
biology, evolution, neuroscience and bioinformatics. Up to 23<br />
teachers, mostly from <strong>the</strong> Greater Lisbon area, atten<strong>de</strong>d each session. The<br />
sessions were positively evaluated by <strong>the</strong> teachers.<br />
'Aqui há Ciência' for Primary School Teachers<br />
We are <strong>de</strong>veloping in-class activities and teacher-training for pre- and primary<br />
schools. The project uses enquiry-based learning, which aims to recapitulate<br />
<strong>the</strong> scientific process in each activity: observation, questioning, experimenting,<br />
registering, concluding and communicating. Two local primary<br />
schools are involved: 44 teachers and 798 stu<strong>de</strong>nts, over two years. In 2011<br />
we <strong>de</strong>veloped and put in place a microbiology activity - Clean Hands, Dirty<br />
Hands. All protocols will be available online.<br />
Partners: Oeiras City Council, <strong>Instituto</strong> Superior Técnico.<br />
Funding by: Oeiras City Council and QREN/PORLisboa (Portugal).<br />
Online Education Resources<br />
We are <strong>de</strong>veloping stand-alone educational resources for primary, middle<br />
and secondary education. Our first animation - Me and My Body - introduces<br />
and/or explores <strong>the</strong> concept of cells and <strong>the</strong> different research methods<br />
used by scientists, including <strong>the</strong> use of animals in research. Targeted mainly<br />
at 9-12 year olds, it is appropriate for all ages. This vi<strong>de</strong>o won first place<br />
in <strong>the</strong> Teaching Resources category of <strong>the</strong> international 2011 Ciência en<br />
Acción Competition (Spain) , and has received 8,841 views on YouTube. Two<br />
more vi<strong>de</strong>os, on evolution and genetics, are planned for 2012.<br />
Funding by: Casa das Ciências (Portugal)<br />
Researchers' Night 2011 - Noite dos Investigadores 2011<br />
For <strong>the</strong> fourth year running <strong>the</strong> IGC was a partner in European Researchers’<br />
Night. IGC scientists discussed <strong>the</strong>ir research with visitors and <strong>the</strong> science<br />
communication team carried out evaluation of impact on <strong>the</strong> public and participating<br />
researchers. Questionnaire-based surveys were <strong>de</strong>signed, carried<br />
out and analysed. Noite dos Investigadores 2011 took place in 15 cities across<br />
Portugal, reaching over 10,000 on-site visitors.<br />
Jardim Porcelânico - an artist in <strong>the</strong> laboratory<br />
During his resi<strong>de</strong>ncy at <strong>the</strong> IGC, British artist Rob Kesseler used a range of<br />
microscopy techniques to explore <strong>the</strong> micro-structures and cellular patterns<br />
of Portuguese wildflowers. The result was a series of powerful, high chroma<br />
images that were translated into large metre-wi<strong>de</strong> prints (Morphogenesis<br />
@ IGC, February 2011) and a porcelain collection produced in collaboration<br />
with Vista Alegre Atlantis (Jardim Porcelânico @ FCG February 2011, British<br />
Council March 2011, School of Pharmacy July 2011).<br />
Collaborators: FCG UK Branch.<br />
Funding by: FCG Joint Fund<br />
C2 - scientists and artists exchange<br />
The IGC and <strong>the</strong> FCG Mo<strong>de</strong>rn Art Centre (CAM) joined efforts in <strong>the</strong> C2 programme<br />
of visits and informal seminars, aimed at fostering an exchange of<br />
perspectives and views between scientists and artists. Three artists (Rui<br />
Sanchez, Didier Fiuza Faustino and Miguel Palma) <strong>de</strong>scribed and discussed<br />
<strong>the</strong>ir work at <strong>the</strong> IGC; three scientists (Thiago Carvalho, Élio Sucena, Nuno<br />
Moreno), led tours of <strong>the</strong> artists' shows at CAM, and CAM-gui<strong>de</strong>d tours were<br />
provi<strong>de</strong>d specifically for IGC staff and friends.<br />
A still of <strong>the</strong> 'Me and My Body' award-winning animation.<br />
British artist Rob Kesseler’s Jardim Porcelânico, at <strong>the</strong> <strong>Gulbenkian</strong> Foundation.<br />
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Scientists Attitu<strong>de</strong>s to <strong>the</strong> Use of Animals in Research<br />
Working from <strong>the</strong> premise that knowledge of <strong>the</strong> scientific community's<br />
attitu<strong>de</strong>s towards animal research, and towards communicating this type of<br />
research to <strong>the</strong> public and policy-makers should un<strong>de</strong>rlie any public engagement<br />
programme, we have carried out a questionnaire-based survey of <strong>the</strong><br />
biomedical research community in Portugal. Data from <strong>the</strong> sample of 598<br />
valid questionnaires, from 45 biomedical research institutes, is being analysed<br />
for correlations between scientists’ experience with animal research<br />
and <strong>the</strong>ir attitu<strong>de</strong>s to regulation, practice and public engagement around<br />
this issue.<br />
Collaborators: IBMC (Porto), Observa (Italy)<br />
Gripenet (Since 2009, part of <strong>the</strong> FP7-fun<strong>de</strong>d project, Epiwork)<br />
Gripenet is a syndromic surveillance system that monitors <strong>the</strong> activity of<br />
influenza-like-illness (ILI), in near-real time, with <strong>the</strong> help of volunteers, via<br />
internet-based questionnaires about flu symptoms. The system inclu<strong>de</strong>s a<br />
broad range of science communication and education activities. In 2011,<br />
Gripenet <strong>de</strong>veloped an online application for children (aged 6 to 12), that<br />
allows data collection from this age group and from parents. Gripenet also<br />
organised a schools cartoon competition.<br />
Social Networks and New Media<br />
Between June and December 2011, <strong>the</strong> IGC website received 429,109 visits<br />
(average of 1,756 visits per day). In 2011 we continued to use new media<br />
and social networking to communicate effectively with broad audiences, by<br />
providing regular updates on research <strong>de</strong>velopments and outreach, in both<br />
English and Portuguese:<br />
• Facebook (9,277 fans as of December 2011)<br />
• Twitter (around 1200 followers as of December 2011)<br />
• YouTube (16 movies, around 23,000 views as of December 2011)<br />
Teachers from two primary schools in Oeiras receive training to apply enquirybased<br />
science learning with <strong>the</strong>ir stu<strong>de</strong>nts, in <strong>the</strong> Aqui há Ciência project.<br />
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FUNDRAISING<br />
Maria João Leão Head<br />
PhD in Cancer and Virology, University of London, UK, 2004<br />
Head of service since October 2010<br />
The IGC <strong>de</strong>velops an in-house programme aimed at raising private funds for<br />
science through fundraising initiatives with private companies, charities and<br />
<strong>the</strong> general public.<br />
MAJOR PROJECTS AND ACCOMPLISHMENTS<br />
THE IGC - EVERYTHING IS NEW (EIN) PARTNERSHIP<br />
This unique partnership was established in 2008 between IGC and Everything<br />
is New, promoter of <strong>the</strong> OptimusAlive! Oeiras music festival. Its main aim is to<br />
bring science closer to Portuguese society and to raise funds for scientific research.<br />
It is a strong example of how <strong>the</strong> private sector and society in general<br />
may contribute to <strong>the</strong> progress of research and <strong>the</strong>refore to <strong>the</strong> future wellbeing<br />
of all.<br />
Optimus Alive Oeiras - IGC research fellowships<br />
This partnership resulted in research fellowships that give young graduates<br />
<strong>the</strong> opportunity to start <strong>the</strong>ir scientific careers, fun<strong>de</strong>d by Everything is<br />
New. Over 300 young graduates around <strong>the</strong> country have applied to <strong>the</strong>se<br />
fellowships, since 2009. In 2011, Célia Rodrigues (25), and Diogo Santos (24),<br />
were selected to <strong>de</strong>velop one-year research projects in Biodiversity and Bioinformatics,<br />
with <strong>the</strong> Population and Conservation Genetics and <strong>the</strong> Computational<br />
Genomics IGC research groups, respectively. These projects are to<br />
be carried out mainly at <strong>the</strong> IGC, and partly in Madagascar and France.<br />
Public ceremony/ press conference at Calouste <strong>Gulbenkian</strong> Foundation (FCG)<br />
28 June 2011<br />
IGC and Everything is New organised a ceremony to mark <strong>the</strong> launch of <strong>the</strong><br />
OptimusAlive! Oeiras-IGC 2011 Fellowships and to reward previous fellows.<br />
Diogo Lucena (FCG Trustee), António Coutinho (IGC Director) and Álvaro Covões<br />
(EIN presi<strong>de</strong>nt) took part, as did previous OptimusAlive! fellows and IGC<br />
group lea<strong>de</strong>rs, who presented <strong>the</strong>ir research. According to Álvaro Covões<br />
“It’s a pity that more companies don’t follow our example, so that young<br />
stu<strong>de</strong>nts are given a chance to improve our world”.<br />
IGC presence at OptimusAlive! Oeiras11<br />
6 - 9 July 2011<br />
Science, Music and Art came toge<strong>the</strong>r for <strong>the</strong> fourth year running during<br />
OptimusAlive! Oeiras11. During <strong>the</strong> four days of this major music and arts<br />
event <strong>the</strong> main activities at <strong>the</strong> IGC corner were speed-dating with scientists,<br />
a Biodiversity game (adapted from an original i<strong>de</strong>a of <strong>the</strong> IGC Population and<br />
Conservation Genetics group) and a photo exhibition. Around 60 IGC volunteers<br />
ma<strong>de</strong> <strong>the</strong>se activities possible for <strong>the</strong> approximately 700 young people<br />
that visited <strong>the</strong> IGC space during <strong>the</strong> four days of this event.<br />
Collection of Delta sugar packs, for <strong>the</strong> IGC 50th anniversary.<br />
Media and public impact<br />
In addition to <strong>the</strong> high impact this partnership has shown in <strong>the</strong> media over<br />
<strong>the</strong> years (2008-2011: 55 online articles; 28 print; 10 broadcast items), this<br />
project has also been very successful in <strong>the</strong> social networks. A Facebook<br />
page was created (380 likes) to advertise, <strong>de</strong>scribe and show vi<strong>de</strong>os and<br />
pictures of <strong>the</strong> IGC initiatives carried out at <strong>the</strong> festival and <strong>the</strong> daily life of<br />
<strong>the</strong> winners of <strong>the</strong> fellowships during <strong>the</strong>ir research projects, both at <strong>the</strong><br />
IGC and in Madagascar, Malaysia and Principe. Vi<strong>de</strong>os coordinated by IGC are<br />
available through <strong>the</strong> IGC YouTube channel and give an insight into <strong>the</strong> IGC<br />
activities at three different editions of OptimusAlive! Oeiras.<br />
The IGC area at <strong>the</strong> OptimusAlive! Oeiras11 music and arts festival.<br />
IGC ANNUAL REPORT ‘11<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
169
COLEÇÃO CIÊNCIA - A PARTNERSHIP BETWEEN IGC AND VISTA ALEGRE<br />
A collection of porcelain products, Coleção Ciência, is <strong>the</strong> result of a partnership<br />
between <strong>the</strong> IGC and Vista Alegre, a prestigious and market leading<br />
Portuguese porcelain manufacturer. The original images of this collection were<br />
obtained by young scientists as part of <strong>the</strong>ir research at <strong>the</strong> IGC.<br />
In 2011, <strong>the</strong> porcelain “Science Collection” became available at Vista Alegre<br />
shops across <strong>the</strong> country, thus extending <strong>the</strong>ir availability beyond <strong>the</strong> <strong>Gulbenkian</strong><br />
Foundation shop, where <strong>the</strong>y have been available since 2010.<br />
Use of <strong>the</strong> funds from Coleção Ciência sales<br />
Money raised through sales of <strong>the</strong> collection has gone towards scientific annual<br />
meetings organised by <strong>the</strong> IGC PhD stu<strong>de</strong>nts and post-docs, toge<strong>the</strong>r<br />
with o<strong>the</strong>r funds raised in several fundraising activities (beer hours, S. Martinho<br />
party, etc.) organised by <strong>the</strong> PhD stu<strong>de</strong>nts and post-docs <strong>the</strong>mselves.<br />
COLLECTION OF DELTA SUGAR PACKS<br />
The IGC and DELTA Coffees celebrated <strong>the</strong>ir 50th birthday in 2011 and established<br />
a partnership that led to a unique collection of DELTA’s sugar packs with<br />
IGC images. DELTA produced three million sugar packs with seven different images<br />
of <strong>the</strong> IGC, distributed across <strong>the</strong> country thus providing a vehicle to communicate<br />
IGC research to a wi<strong>de</strong> audience. DELTA also sponsored coffee breaks<br />
at IGC events during 2011/12.<br />
The winners of <strong>the</strong> OptimusAlive! Oeiras - IGC research fellowships.<br />
Colecção Ciência, of espresso cups and mugs, in partnership with Vista Alegre.<br />
IGC ANNUAL REPORT ‘11<br />
PUBLIC ENGAGEMENT IN SCIENCE<br />
170
PARTNERS AND SPONSORS<br />
Several partnerships and sponsorships have supported scientific research, education<br />
and science communication and outreach activities at <strong>the</strong> IGC.<br />
(The list below does not inclu<strong>de</strong> fun<strong>de</strong>rs of competitive calls for funding, outreach or networking).<br />
ACTIMEL<br />
ALFAGENE<br />
AQUATIC SOLUTIONS<br />
APPLICABLE ELECTRONICS, LLC<br />
BIO-RAD<br />
BIOGNÓSTICA<br />
BIOPORTUGAL<br />
CALOUSTE GULBENKIAN FOUNDATION<br />
CÂMARA MUNICIPAL DE ANADIA<br />
CÂMARA MUNICIPAL DE OEIRAS<br />
CBD<br />
CICLONE<br />
DAGMA, LDA<br />
DELTA Q<br />
DIAS DE SOUSA<br />
EMBNET<br />
EMBO - EUROPEAN MOLECULAR BIOLOGY ORGANISATION<br />
ENFIN<br />
ENZIFARMA<br />
EVERYTHING IS NEW<br />
FRENCH EMBASSY IN PORTUGAL<br />
FISHER SCIENTIFIC<br />
GRUPO TAPER<br />
ILC<br />
CHAMPALIMAUD FOUNDATION<br />
IZASA<br />
LEICA<br />
NORMAX<br />
NYZTECH<br />
PEPROTECH<br />
PORTUGAL TELECOM (PT)<br />
QUILABAN<br />
ROCHE<br />
SOCIEDADE PORTUGUESA DE BIOLOGIA DO DESENVOLVIMENTO<br />
SOCIEDADE PORTUGUESA DE IMUNOLOGIA<br />
STAB VIDA<br />
STARSTEDT<br />
TEBU-BIO<br />
TECNIPLAST<br />
THE EMBO JOURNAL<br />
ULTRAGENE<br />
UNICAM<br />
VISTA ALEGRE<br />
VWR<br />
WERFEN GROUP<br />
ZEISS<br />
The IGC is un<strong>de</strong>r Scientific Sponsorship Law. This law provi<strong>de</strong>s tax benefits for<br />
science-related donations by ei<strong>the</strong>r individuals or companies.
We are grateful to everyone at <strong>the</strong> IGC - researchers, stu<strong>de</strong>nts and staff - who<br />
supplied information, text and images used in this report.<br />
EDITOR<br />
ANA GODINHO<br />
EDITORIAL ASSISTANT<br />
ELIANA CARVALHO<br />
PROOFREADING<br />
CATARINA JÚLIO<br />
ANA MENA<br />
INÊS DOMINGUES<br />
GRETA MARTINS<br />
SHEILA VIDAL<br />
MANUEL REBELO<br />
LAYOUT AND DESIGN<br />
DESIGNWAYS - WWW.DESIGNWAYS.PT<br />
The <strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência Annual (IGC) Report is also available to<br />
download from <strong>the</strong> IGC website at www.igc.gulbenkian.pt.<br />
If you would like to receive a copy of this report, on a USB memory stick, please<br />
contact:<br />
Science Communication and Outreach<br />
<strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência<br />
Tel: +351 440 7959<br />
Fax: +351 440 7970<br />
E-mail: info@igc.gulbenkian.pt<br />
This is an open access publication, and with <strong>the</strong> exception of images and<br />
illustrations, <strong>the</strong> content may, unless o<strong>the</strong>rwise stated, be reproduced free of<br />
charge in any format or medium, subject to <strong>the</strong> following conditions: content<br />
must not be used in a misleading context, <strong>the</strong> IGC must be credited as <strong>the</strong> original<br />
author and <strong>the</strong> title of <strong>the</strong> document specified in <strong>the</strong> attribution.<br />
The IGC was set up by <strong>the</strong> Calouste <strong>Gulbenkian</strong> Foundation, a Portuguese private<br />
institution of public utility whose statutory aims are in <strong>the</strong> fields of arts, charity,<br />
education and science. Created by a clause in Calouste Sarkis <strong>Gulbenkian</strong>'s will,<br />
<strong>the</strong> Foundation's statutes were approved in 1956. The head-office is located in<br />
Lisbon.<br />
First published by <strong>the</strong> <strong>Instituto</strong> <strong>Gulbenkian</strong> <strong>de</strong> Ciência, 2012<br />
© Copyright Fundação Calouste <strong>Gulbenkian</strong> 2012