European Human Genetics Conference 2007 June 16 – 19, 2007 ...
European Human Genetics Conference 2007 June 16 – 19, 2007 ...
European Human Genetics Conference 2007 June 16 – 19, 2007 ...
You also want an ePaper? Increase the reach of your titles
YUMPU automatically turns print PDFs into web optimized ePapers that Google loves.
Concurrent Sessions<br />
to elucidate the chromosome abnormality. This is a major improvement<br />
on conventional distribution of slides or images where the inclusion of<br />
additional test material inevitably reveals the answer. Participants can<br />
submit reports in Czech, English, French, Finnish, German, Italian or<br />
Spanish. A prenatal and postnatal pilot EQA was completed by <strong>19</strong> laboratories<br />
from 18 countries. Seven laboratories had never participated<br />
in EQA before. The reports reflected the variation in interpreting and<br />
reporting cytogenetic results within Europe. Some poor performance<br />
was identified.<br />
The pilot will be expanded to allow more laboratories to participate<br />
next year. Participation in EQA will improve the provision of genetic<br />
services for the benefit of the patient.<br />
C79. Regulations and practices of genetic counselling in 38<br />
<strong>European</strong> countries<br />
E. Rantanen 1 , M. Hietala 1 , U. Kristoffersson 2 , I. Nippert 3 , J. Schmidtke 4 , J. Sequeiros<br />
5 , H. Kääriäinen 1 ;<br />
1 Department of Medical <strong>Genetics</strong>, University of Turku, Turku, Finland, 2 Department<br />
of Clinical <strong>Genetics</strong>, University Hospital of Lund, Lund, Sweden, 3 Institute<br />
of <strong>Human</strong> <strong>Genetics</strong>, University of Münster, Münster, Germany, 4 Institute of <strong>Human</strong><br />
<strong>Genetics</strong>, Hannover Medical School, Hannover, Germany, 5 Department of<br />
<strong>Human</strong> <strong>Genetics</strong>, University of Porto, Porto, Portugal.<br />
Background: As genetic tests are increasingly offered across the borders<br />
of the <strong>European</strong> countries, EuroGentest, a NoE aiming at improving<br />
the quality of testing, also aims at harmonizing the quality of<br />
genetic counselling.<br />
Objective: To review what kinds of regulations and practices related to<br />
genetic counselling there are in different <strong>European</strong> countries.<br />
Methods: An electronic survey was performed among the National Societies<br />
of <strong>Human</strong> <strong>Genetics</strong> in 29 countries and contact persons in the<br />
9 countries where a Society could not be traced. The president or the<br />
board of the society, or a selected expert provided the answers to the<br />
questions about existing legislation, guidelines and generally applied<br />
practices of genetic counselling. The respondents also estimated how<br />
well genetic counselling is organized in their country and what future<br />
changes can be predicted.<br />
Results: There is legislation related to counselling in 13 and guidelines<br />
in 21 countries. It was hoped that the amount of regulations<br />
would increase. The topics that were most often covered in legislation<br />
and guidelines, and also considered as generally applied practices,<br />
were counselling in the context of prenatal testing, informed consent,<br />
confidentiality, training of the person who performs counselling, and<br />
non-directiveness. The seldom-covered topics were counselling in the<br />
context of predisposition testing for multifactorial diseases, duty to recontact<br />
the patient afterwards, and counselling persons from ethnic<br />
minorities. Of the respondents, 70 % considered that national regulations<br />
are necessary, and 90 % thought that some improvements are<br />
needed in the organization of genetic counselling in their country.<br />
C80. Attitudes regarding genetic testing in minors. A survey of<br />
<strong>European</strong> clinical geneticists<br />
P. Borry, T. Goffin, H. Nys, K. Dierickx;<br />
Centre for Biomedical Ethics and Law, KULEUVEN, Leuven, Belgium.<br />
Background Various professional guidelines have discussed genetic<br />
testing in minors and provided recommendations on the topic. As we<br />
have described earlier (Borry et al. 2005, 2006) professional guidelines<br />
have shown to disagree on a various issues. Regarding carrier<br />
testing guidelines varied regarding (a) the role of genetic services in<br />
ensuring that children are informed about their carrier status and associated<br />
risks when they are older; (b) exceptions to the general rule<br />
of withholding or deferring carrier testing; (c) the communication of<br />
incidentally discovered carrier status. In the case of predictive and presymptomatic<br />
genetic testing ambiguity exists for childhood-onset disorders<br />
for which preventive or therapeutic measures are not available<br />
and for the timing of testing for childhood-onset disorders.<br />
Objective The aim of our study was to gather information from clinical<br />
geneticists about their practices and attitudes with regard to carrier<br />
testing in minors.<br />
Method 3<strong>16</strong> medically qualified specialists in genetics who have offered<br />
genetic counseling to patients in the last year were asked to<br />
complete a survey of items assessing their attitudes and practices<br />
regarding genetic testing in minors. The data collection took place between<br />
October 2006 and March <strong>2007</strong>. All respondents completed a<br />
28-item questionnaire. The measures were based on ethical issues<br />
related to genetic testing in minors identified in the literature and from<br />
previous research.<br />
Results At this moment we have a response rate of 60%. We just started<br />
a preliminary statistical analysis of the data using non-parametric<br />
statistics. (22 February <strong>2007</strong>) Results are planned in March and April.<br />
C81. An operational checklist for evaluation of molecular genetic<br />
tests destined to clinical use: development and description.<br />
F. Rousseau 1,2 , C. Lindsay 3 , M. Charland 4 , J. Bergeron 5 , I. Blanqueart 6 , R.<br />
Delage 7 , B. M. Gilfix 8 , M. Miron 9 , G. A. Mitchell 10 , L. Oligny 11 ;<br />
1 CanGeneTest consortium & Université Laval, Quebec, PQ, Canada, 2 Centre<br />
de recherche du Centre hospitalier universitaire de Québec, Québec, PQ, Canada,<br />
3 CanGeneTest consortium & CRCHUQ, Quebec, PQ, Canada, 4 CanGeneTest<br />
consortium, Quebec, PQ, Canada, 5 Réseau de médecine génétique appliquée<br />
et CRCHUQ, Québec, PQ, Canada, 6 CanGeneTest consortium & Agence<br />
d’Évaluation des technologies et modes d’intervention en santé du Québec,<br />
Montréal, PQ, Canada, 7 Centre de recherche du Centre hospitalier universitaire<br />
affilié de Québec & Université Laval, Québec, PQ, Canada, 8 McGill University<br />
Hospital Centre, Montréal, Montréal, PQ, Canada, 9 Centre Hospitalier de la<br />
Sagamie, Saguenay, PQ, Canada, 10 Réseau de médecine génétique appliquée<br />
& Centre de recherche de l’Hopital Ste-Justine, Montréal, PQ, Canada, 11 Centre<br />
de recherche de l’Hôpital Ste-Justine, Montréal, PQ, Canada.<br />
Background: The completion of the <strong>Human</strong> Genome Project has increased<br />
the pace of genetic markers of disease. Despite tremendous<br />
fundamental research efforts, clinical applications are still lagging behind<br />
expectations, partly due to the lack of effective tools to summarize<br />
published data relative to the clinical assessment of new diagnostic<br />
molecular tests.<br />
Methods: We used a collaborative process using published tools and<br />
an expert panel to develop a detailed checklist of the evidence that<br />
needs be collected or produced to evaluate the potential usefulness of<br />
a new molecular diagnostic test in medicine.<br />
Results: We present a checklist that allows 1)stakeholders to collect<br />
data related to a given molecular test and improve their decision making<br />
process and 2)researchers to summarize known evidence and direct<br />
research efforts towards studies to fill knowledge gaps. This checklist<br />
comprises 29 clearly defined items, grouped into 10 categories, including<br />
an overview of disease epidemiology and genetics, available diagnostic<br />
tools and their analytical and clinical performances, availability<br />
of quality control programs, methodological and clinical best practice<br />
guidelines, clinical utility, impacts on health care, psycho-social, ethical<br />
and legal aspects of the analysis. It also comprises a summary of the<br />
evidence available and the identification of research priorities to fill the<br />
knowledge gaps relative to the test.<br />
Interpretation: This systematic checklist is intended to streamline collection<br />
of the available evidence to appraise the potential for clinical<br />
application of new molecualr diagnostic tests and help prioritize research<br />
to complete the evidence base relative to the clinical implementation<br />
of molecular tests.<br />
C82. Public Perception of Genetic Medicine - A survey of<br />
attitudes in the United Kingdom<br />
P. Finegold1 , J. Ayres1 , M. Boon2 , M. J. Leech1 , K. Mathieson1 , H. R. Middleton-<br />
Price1 , S. Nicholls1 , D. Donnai1 ;<br />
1 2 North West <strong>Genetics</strong> Knowledge Park, Manchester, United Kingdom, ICM,<br />
London, United Kingdom.<br />
The UK’s North West <strong>Genetics</strong> Knowledge Park (Nowgen) sets out<br />
as one of its aims to act as a forum for education, engagement and<br />
dialogue around human genetics that will empower people to make decisions<br />
about health management. In August 2006, Nowgen commissioned<br />
a telephone interview based survey amongst a sample of 1006<br />
subjects from around the United Kingdom. The survey questions were<br />
designed to establish public perception of the role genetics plays in<br />
health, how genetic medicine is seen in relation to genetic modification<br />
of food, the level of acceptability amongst the population to undergo<br />
a genetic test for health reasons and to gauge public expectations in<br />
relation to future genetics and healthcare.<br />
The research carried out by polling organisation ICM is broken down<br />
into standard demographic categories of age, gender, social class and<br />
region, with the intention of providing an evidence base for Nowgen’s<br />
continuing public engagement work.<br />
The survey results indicated that just over 70 per cent of the popula-