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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

Selected Projects (20<strong>16</strong>-<strong>18</strong>)<br />

Volume 1, September 20<strong>18</strong><br />

AIMS AND SCOPE<br />

This inaugural issue of the biannual <strong>Book</strong> of<br />

<strong>Undergrad</strong>uate Research features summaries of<br />

a selected number of undergraduate research<br />

projects conducted at UMass Dartmouth. These<br />

research activities became possible through<br />

awards or summer stipends granted by the Office<br />

of <strong>Undergrad</strong>uate Research between 20<strong>16</strong> and<br />

20<strong>18</strong>. Earlier versions of these texts appear on<br />

the Office of <strong>Undergrad</strong>uate Research official<br />

blog, available at www.ourwork.blogs.umassd.<br />

edu/. More advanced versions of some of these<br />

research projects can be found in peer-reviewed<br />

journals and other published media. Where<br />

applicable, these publications are cited. Other<br />

reports capture the preliminary stages of the<br />

featured research projects and most authors hope<br />

to develop and publish these works in the future.<br />

All images used in the reports are properties of<br />

the authors and/or their collaborators who are<br />

properly ack<strong>no</strong>wledged. Images that come from<br />

other sources are fully credited.<br />

EDITORIAL CONTRIBUTION AND DESIGN<br />

Compiled and edited by Dr. Pamela Karimi,<br />

Associate Professor of Art History and Media<br />

Studies and Associate Director of the Office of<br />

<strong>Undergrad</strong>uate Research (2017-<strong>18</strong>).<br />

Supervised by Dr. Catherine Gardner, Professor of<br />

Philosophy and Women’s & Gender Studies and the<br />

Director of the Office of <strong>Undergrad</strong>uate Research.<br />

Design services and aesthetic features donated<br />

by Pedram Karimi, The John H. Daniels School<br />

of Architecture, Landscape, and Design at the<br />

University of Toronto.<br />

© The Office of <strong>Undergrad</strong>uate Research at UMass<br />

Dartmouth<br />

285 Old Westport Rd, North Dartmouth, MA 02747<br />

www.umassd.edu/our<br />

ACKNOWLEDGEMENTS<br />

These research projects would <strong>no</strong>t have been<br />

possible without the supervision of many<br />

professors and mentors at UMass Dartmouth<br />

whose names are ack<strong>no</strong>wledged in all reports.<br />

This publication was made possible through a<br />

generous support from the Office of Research<br />

& Eco<strong>no</strong>mic Development, the UMass Dartmouth<br />

Provost Office, and the Ho<strong>no</strong>rs Program.


11<br />

PHYSICS, Biology, History, Child Psy<br />

of Art and Architecture, Music, Bio<br />

MATHEMATICS, Fine Arts, Social Psy<br />

biology, History, CHILD PSYCHO<br />

of Art and Architecture, Music, B<br />

MECHANICAL ENGINEERING, En<br />

Mathematics, Fine Arts, SOCIAL<br />

Physics, Biology, History, Child P<br />

HISTORY OF ART AND ARCHI<br />

MARINE BIOLOGY, Physics, Biology<br />

Mechanical Engineering, ENGL<br />

Photojournalism, Mechanical En<br />

Bioengineering, Mathematics, F


chology, Political Science, History<br />

chemistry, PHOTOJOURNALISM,<br />

ISH, Rhetoric, Bioengineering,<br />

chology, Marine Biology, PHYSICS,<br />

LOGY, Political Science, History<br />

IOCHEMISTRY, Photojournalism,<br />

glish, Rhetoric, Bioengineering,<br />

PSYCHOLOGY, Marine Biology,<br />

sychology, POLITICAL SCIENCE,<br />

TECTURE, Music, Biochemistry,<br />

gineering, ENGLISH, Rhetoric,<br />

INE ARTS, Social Psychology,<br />

,History, Child Psychology, MUSIC<br />

12


Foreword<br />

13<br />

Research represents the systematic, original<br />

inquiry into a field that leads to new k<strong>no</strong>wledge.<br />

The drive for seeking k<strong>no</strong>wledge, embodied in all<br />

members of the UMass Dartmouth community, is<br />

a signature component of the UMass Dartmouth<br />

educational experience and research is the<br />

expression of this search.<br />

Since its inception in 2011, the Office of<br />

<strong>Undergrad</strong>uate Research has promoted<br />

undergraduate research in the arts, humanities,<br />

social sciences and all engineering and<br />

science fields. The office has financially and<br />

intellectually supported student-researchers<br />

on their journeys to global fieldwork or travel to<br />

national and international conferences. Travels<br />

to faraway destinations for conducting research<br />

have been transformative for many students.<br />

Extensive fieldwork in Okinawa, Japan,<br />

compelled the dual major in Photography and<br />

Political Science, Lizzy Santoro ’17 to pursue a<br />

career in photojournalism.<br />

Through individualized advising sessions<br />

students have received feedback on research,<br />

beyond what is <strong>no</strong>rmally available to them<br />

through mentors in their home departments.<br />

Over the years, students have learned to solve<br />

problems in their areas of interest, make<br />

new discoveries and create new artifacts,<br />

interact with research faculty outside of the<br />

classroom, and demonstrate their intellectual<br />

dedication and academic skills to future<br />

employers, graduate programs, and internship<br />

directors. Workshops, roundtables and lectures<br />

on undergraduate research in all fields have<br />

brought prominent scholars and researchers<br />

to our campus. Additionally, the office has<br />

assisted with the dissemination of the products<br />

of student research through peer-reviewed<br />

publications, blogs, videos, poster sessions,<br />

competitions and conferences.<br />

Above all, the Office of <strong>Undergrad</strong>uate Research<br />

has committed itself to supporting UMass<br />

Dartmouth undergraduates in all aspects of their<br />

research endeavors by offering research awards.<br />

These awards have helped offset the costs of<br />

performing research projects, with research<br />

being broadly conceived and taking place in<br />

any and all disciplines. Many of these awards<br />

are commonly granted during the academic<br />

year. However, our office has also offered a<br />

competitive stipend initiative to facilitate the<br />

fulltime research activity of UMass Dartmouth<br />

undergraduates during the summer break.<br />

Through engaging in research activities that<br />

are often beyond the expected coursework,<br />

undergraduate students at UMass Dartmouth<br />

have also learned to improve time management,<br />

enhance their analytical abilities, and embark<br />

on leadership roles. Biology major Deborah<br />

Dele-Oni ‘<strong>18</strong> (Ho<strong>no</strong>rs), whose work is featured<br />

in the present book, was granted an Endeavor<br />

Scholarship in leadership. Thus in addition<br />

to being a successful Biology student, she<br />

became the president and the founding<br />

member of a campus organization that<br />

supports Black female students. Sometimes


the topic of research itself instigates the desire<br />

to take on leadership roles. As Art History<br />

major, Mariah Tarenti<strong>no</strong> ’<strong>18</strong> describes in her<br />

contribution to this volume, her research on the<br />

link between the current socio-political events<br />

and visual culture has energized her to assume<br />

several leadership roles on campus, including<br />

spearheading roundtable discussions and<br />

juried exhibitions.<br />

The awards and stipends from the Office of<br />

<strong>Undergrad</strong>uate Research have empowered and<br />

encouraged our students to apply for competitive<br />

grants and fellowships that are offered at<br />

national and international levels. Specifically,<br />

through its partnership with the Ho<strong>no</strong>rs Program,<br />

the Office of <strong>Undergrad</strong>uate Research<br />

helps students thrive in their respective<br />

fields of research. For example, in 2013, Peter<br />

Jumper ’13 (Ho<strong>no</strong>rs), was one of the only seven<br />

finalists nationwide for the highly-prestigious<br />

American Physical Society Apker Prize for<br />

research conducted in the UMass Dartmouth<br />

Physics Department. After receiving numerous<br />

graduate school fellowship offers, including the<br />

Dean’s Fellowship at Columbia University and<br />

the National Science Foundation’s Graduate<br />

Research Fellowship, Peter Jumper accepted<br />

a highly-competitive Connaught International<br />

Fellowship from the University of Toronto.<br />

Upon graduation, Jacob Miller ’<strong>16</strong> (Ho<strong>no</strong>rs) was<br />

awarded the highly distinguished Marshall<br />

Scholarship to study in the United Kingdom. A<br />

dual Political Science and English major with a<br />

mi<strong>no</strong>r in Leadership/Civic Engagement and Urban<br />

Studies while at UMass Dartmouth, Miller<br />

used his scholarship to study management at<br />

Cambridge University for one year followed by a<br />

year of studying urban eco<strong>no</strong>mic development<br />

at University College London.<br />

These success stories are particularly intriguing<br />

when they are about the less-privileged student<br />

population. Jacob Miller represents one of the<br />

many learners at UMass Dartmouth who are first<br />

generation college students. Still many others<br />

experience difficulties that are hard to overcome,<br />

due to the absence of a strong community<br />

support system. We take pride in transforming<br />

the lives of all of our students, especially the<br />

lives of those who have been historically marginalized<br />

by the society.<br />

The Office of <strong>Undergrad</strong>uate Research continues to<br />

expand student experience at UMass Dartmouth<br />

and through this inaugural bi-annual publication,<br />

we hope to disseminate the outstanding work of<br />

our students and their faculty mentors beyond the<br />

confines of UMass Dartmouth.<br />

14<br />

Pamela Karimi<br />

Associate Director of the Office of <strong>Undergrad</strong>uate Research [2017-<strong>18</strong>]<br />

Catherine Gardner<br />

Director of the Office of <strong>Undergrad</strong>uate Research


Contents<br />

15<br />

22.<br />

30.<br />

38.<br />

46.<br />

52.<br />

60.<br />

66.<br />

To Counterfeit is Death: Exploring Benjamin<br />

Franklin’s Methods<br />

Daniel W. Everton ‘19 | History<br />

An Investigation Into The Effects of<br />

Inverted Growing on Development and<br />

Strength of Basil<br />

Megan Scribner ‘19 Ho<strong>no</strong>rs | Bioengineering<br />

Evolution of The Princess Culture:<br />

Discourse Analysis of Film and<br />

Merchandise Reviews<br />

Morgan Banville ‘19 Ho<strong>no</strong>rs | Rhetoric &<br />

Communication<br />

Developing Inexpensive Catalysts for<br />

Buchwald Carbon-Nitrogen Couplings<br />

Diego Javier-Jimenez ‘19 | Chemistry<br />

Influence of UV Light on Marine Biofilms<br />

Alexandria E. Profetto ‘19 | Marine Biology<br />

An Ethical Analysis of The De-Extinction of<br />

The Woolly Mammoth<br />

Carson M. Longendorfer ‘19 | Bioengineering<br />

Temporary Meddlers: Friars in Measure for<br />

Measure and Romeo and Juliet<br />

Sarah Friedman ‘<strong>18</strong> Ho<strong>no</strong>rs | English Literature<br />

72.<br />

82.<br />

90.<br />

100.<br />

106.<br />

114.<br />

The Effect of Race-Related Words on<br />

Categorical Perception of Race<br />

Anna Sullivan ‘<strong>18</strong> Ho<strong>no</strong>rs | Psychology<br />

Research and Exhibition on African-<br />

American Students at UMass Dartmouth<br />

Erick Maldonado ‘<strong>18</strong> | Fine Arts<br />

Identification of SIAT7 in Symbiotic<br />

Clownfish and A Closely Related<br />

Non-Symbiotic Fish<br />

Deborah Dele-Oni ‘<strong>18</strong> Ho<strong>no</strong>rs | Biology<br />

A Remote Sensing Study of The<br />

Relationship Between Density Fronts and<br />

Phytoplankton Blooms in The North Atlantic<br />

Samuel Filliettaz-Dxomingues ‘<strong>18</strong> | Mechanical<br />

Engineering<br />

Investigation of In Vitro Vitamin B6<br />

Treatment to Reverse Deterioration of<br />

Bone Mechanical Properties<br />

Jacob Aaronson ‘<strong>18</strong> | Bioengineering<br />

Artistic Responses to Presidential Elections<br />

and Other Political Challenges<br />

Mariah Tarenti<strong>no</strong> ‘<strong>18</strong> | Art History & Curatorial<br />

Studies


122.<br />

128.<br />

136.<br />

142.<br />

148.<br />

156.<br />

<strong>16</strong>4.<br />

170.<br />

Voter Decision-Making in Low<br />

Information Election<br />

David Borges ‘<strong>18</strong> | Political Science<br />

Spheres of Influence<br />

John Dalton ‘17 Ho<strong>no</strong>rs | Music<br />

Researching The Psychosocial Well-Being<br />

of Siblings of Children with Disabilities<br />

Catrina Combis ‘17 Ho<strong>no</strong>rs | Psychology<br />

Strong Stability Preserving Sixth Order<br />

Two-Derivative Runge–Kutta Methods<br />

Gustavo Franco Rey<strong>no</strong>so ‘17 | Mathematics<br />

Studying the Potential Applications of<br />

Dipeptide Na<strong>no</strong>materials<br />

Lisa Perreault ‘17 Ho<strong>no</strong>rs | Biochemistry<br />

A Photo-Journalistic Journey into Okinawa<br />

Lizzy Santoro ‘17 | Photojournalism<br />

Emotional Differences in Preschool-Aged<br />

Children<br />

Alicia Cronister-Morais ‘17 | Child Psychology<br />

Exploring the Post-Industrial Landscapes<br />

of The Northeast<br />

Hannah Gadbois ‘<strong>16</strong> | History of Art &<br />

Architecture<br />

<strong>18</strong>2.<br />

190.<br />

196.<br />

Going into the Cloud to Study Renewable<br />

Energy Extraction from Ocean Waves<br />

Cole Freniere ‘<strong>16</strong> | Mechanical Engineering<br />

Behavioral Response of Mud Crab<br />

Megalopae to Chemical Cues from Fish<br />

Species and Adult Conspecifics<br />

Jerelle Jesse ‘15 Ho<strong>no</strong>rs | Biology<br />

Does Ego-Resilience Impact Friendship<br />

Outcomes?<br />

Elizabeth B. Loza<strong>no</strong> ‘13 | Social Psychology<br />

<strong>16</strong>


17


<strong>18</strong>


19


20


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

21<br />

Research in History<br />

To Counterfeit is Death: Exploring<br />

Benjamin Franklin’s Methods<br />

Daniel W. Everton ‘19


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

My OUR project was focused on Benjamin Franklin<br />

and the methods he helped develop in the creation<br />

of anti-counterfeit measures. To do so Benjamin<br />

and his colleagues were commissioned to <strong>print</strong><br />

paper money.<br />

In 2012, the Delaware County Institute of Science<br />

discovered in its collections a set of metal blocks<br />

that appeared to be used for <strong>print</strong>ing currency.<br />

They approached Jessica Linker, who was working<br />

on her dissertation of a similar topic at the<br />

time and was a long-time fellow at the Library<br />

Company of Philadelphia.<br />

22<br />

Daniel W. Everton


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

23<br />

Upon seeing the blocks on the web, I immediately<br />

thought of 3D <strong>print</strong>ing a copy. I was initially going<br />

to venture off by myself to attempt to 3D <strong>print</strong> the<br />

blocks. However, upon learning about Dr. Linker’s<br />

project, I approached her and asked if I could<br />

contribute to her research. Subsequently, Dr. Linker<br />

pulled me into her team of undergrads who were<br />

working on their Digital Scholarship Summer<br />

Fellows project at Bryn Mawr College. The Fellows<br />

are Umma Tanjuma Haque, Shuang Li, Linda Zhu,<br />

and Eleftheria Anag<strong>no</strong>stou. My focus was to learn<br />

photogrammetry from the students, assist in the<br />

project, as well as document the process through<br />

photography and film.<br />

What is photogrammetry? Specifically, it is the<br />

ability to take measurements from series of<br />

photographs. These measurements allow one to<br />

measure a surface. A <strong>no</strong>n-profit named Cultural<br />

Heritage Imaging (CHI) trained individuals at Bryn<br />

Mawr College, through which they trained the<br />

Digital Scholarship undergraduate students how<br />

to do the process. The sage leaf block, pictured<br />

below, has a very shallow or “low” relief. The image<br />

on top of the leaves is hard to see. This proved to<br />

be the hardest thing to photogrammetry since the<br />

photographs could <strong>no</strong>t provide the software e<strong>no</strong>ugh<br />

surface points. It wasn’t until Matthew Jameson,<br />

PhD candidate in Classical Archaeology at Bryan<br />

Mawr, suggested putting the leaf block at a tilted<br />

angle with the assistance of an ingenious piece<br />

of Styrofoam. After that, our team was able to<br />

successfully capture the surface points. While there<br />

were two other blocks with the sage leaf block, the<br />

sage leaf block is fundamentally the one I am most<br />

interested in as it relates to my argument which I<br />

will explain in the following page of this report.<br />

The software we used to compile all our images<br />

and put them on the XYZ planes is Agisoft.<br />

Within Agisoft and thanks to the efforts of all the<br />

students, we were able to capture up over 120,000<br />

points within <strong>18</strong>4 pictures. The screen-shots in<br />

the following page shows how the pictures are<br />

Photo of the sage leaf block, Photo by Daniel W. Everton<br />

The sage leaf block positioned on a Styrofoam wedge, within a<br />

lightbox. Photo by Daniel W. Everton


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

24<br />

Screenshot of Agisoft with Leaf Block photos, totalling <strong>18</strong>4 photos and 126,586 points. Screenshot taken by Digital Scholarship<br />

Students and Jessica Linker<br />

“situated” in space and reflected onto the anchor<br />

which is the ball. The Fellows taught me how to<br />

use Agisoft, take the circuits of photos, and how to<br />

follow the workflow.<br />

The result of all these, leads into a stunning 3D<br />

rendering of the blocks with a successful mesh,<br />

demonstrating the details of the sage leaves on the<br />

block. As part of Bryn Mawr College Digital Scholarship<br />

Fellowship, Jessica Linker developed a project<br />

with the Library Company of Philadelphia where they<br />

would create a digital exhibit about the blocks. Using<br />

the Unity software, the rendering made in Agisoft<br />

Screenshot of Agisoft with Leaf Block photos, totalling <strong>18</strong>4<br />

photos and 126,586 points. Screenshot taken by Digital<br />

Scholarship Students and Jessica Linker


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

My Argument/Thesis<br />

can be put into a digital “landscape” where<br />

individuals can visit the website and explore the<br />

blocks. The mesh for the blocks will be eventually<br />

open sourced, and a 3D <strong>print</strong> of it will be attempted<br />

later. The result of all these, leads into a stunning 3D<br />

rendering of the blocks with a successful mesh that<br />

shows the details the sage leaves on the block.<br />

While I am a History major, I am also deeply<br />

interested in art and have taken several art classes<br />

in the College of Visual and Performing Arts. I<br />

became interested <strong>print</strong>making and <strong>print</strong>ing, which<br />

are understood currently as two separate disciplines<br />

but seem to have been very enmeshed during the<br />

time of colonial <strong>print</strong>ing. I argue that Benjamin<br />

Franklin and his team used <strong>print</strong>making methods<br />

and other very in<strong>no</strong>vative tech<strong>no</strong>logies that I feel<br />

should classify Benjamin Franklin as an artist. I<br />

think his <strong>print</strong>s should be taken into consideration<br />

amongst the work of fine artists, and his subsequent<br />

bills <strong>print</strong>ed by himself and those within his <strong>print</strong>ing<br />

25<br />

Final 3D render of the sage leaf block. Screenshot taken by Digital Scholarship Fellows and Jessica Linker


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

company to be examples of art. To make his bills<br />

anti-counterfeit, Franklin had to in<strong>no</strong>vate on current<br />

tech<strong>no</strong>logies and create new ones. The colonial<br />

bills I encountered at the Library Company have<br />

utilized mo<strong>no</strong>type <strong>print</strong>ing, intaglio plate processes,<br />

and of course, the nature-leaf <strong>print</strong> blocks that<br />

were custom made. I hope to explore the process<br />

further in the fall of 20<strong>18</strong>, when I try to recreate the<br />

theorized methods of how the leaf blocks were made<br />

to make my own <strong>print</strong> editions.<br />

UMass Dartmouth, I would like to thank Professor<br />

Amy Shapiro of the English Department and Lan<br />

Travers and Paula Rioux of the History Department<br />

for igniting my love of public history. I would also<br />

like to thank Professor Elena Peteva of the Fine<br />

Arts Department for answering all of my questions<br />

about <strong>print</strong>making and for teaching me <strong>print</strong>ing.<br />

Finally, I am grateful to UMass Dartmouth’s OUR<br />

grant program and the review committee for the<br />

opportunity to conduct this research.<br />

My documentation of the project will be within a<br />

“vlogumentary”, utilizing a YouTube and traditional<br />

documentary style methodology to discuss what I<br />

learned: some history about colonial <strong>print</strong>ing, and<br />

the process of photogrammetry. I hope to release it<br />

in the upcoming academic year.<br />

26<br />

I am grateful to Bryn Mawr College and their<br />

Digital Scholarship team on campus, Jessica<br />

Linker, Umma Tanjuma Haque, Shuang Li, Linda<br />

Zhu, Eleftheria Anag<strong>no</strong>stou, Matthew Jameson,<br />

Anne McShane and Jim Green and other staff<br />

at the Library Company of Philadelphia. Here at<br />

Two Dollar Bill for Massachusetts-Bay, March 1780, <strong>Print</strong>ed by Hall<br />

and Sellers for a “Peter Boyer”. The bill uses intaglio, mo<strong>no</strong>-type<br />

<strong>print</strong>making, unique registration, and a nature/leaf <strong>print</strong> block


27


28


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

29<br />

Research in Bioengineering<br />

An Investigation into the Effects of<br />

Inverted Growing on Development<br />

& Strength of Basil<br />

Megan Scribner ’19 Ho<strong>no</strong>rs


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

My OUR research project was entitled “An Investigation<br />

into the Effects of Inverted Growing on Development<br />

and Strength of Basil.” The objective of the<br />

research was to determine if growing basil upside<br />

down influences the plant’s development and the<br />

mechanical strength of the stems. The initial plan to<br />

grow basil plants from seeds was modified for the<br />

sake of time; instead, adult plants were purchased<br />

and used for experimentation.<br />

30<br />

Megan Scribner


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

31<br />

Fifteen mature basil plants were purchased, numbered,<br />

and transplanted into larger pots. Plants<br />

1–7 were planted traditionally, upright (displayed in<br />

Figure 1a.), and plants 8–15 were planted in pots<br />

fashioned so that the plant would hang upside down<br />

(displayed in Figure 1b.). Stalks that had a second<br />

set of true leaves, and sufficient space between the<br />

pairs to make a cut, were pruned.<br />

After four weeks of growth, it was observed that<br />

stems of upright plants that had been pruned on<br />

Day 1 had established pairs of offshoot stems with<br />

two or three sets of leaves. Stems of upside-down<br />

plants that had been pruned on Day 1 had established<br />

pairs of offshoot stems with only one or two<br />

sets of leaves. This suggests that the upright plants<br />

experienced increased growth compared to the<br />

upside-down plants. Figures 2. and 3 display this<br />

growth difference.<br />

Several obstacles were encountered in trying to<br />

maintain healthy plants. Challenges included:<br />

growing basil during the late winter/early spring<br />

months (which is <strong>no</strong>t basil’s typical growing season<br />

for this region), securing an indoor location that met<br />

the environmental needs of basil, and the presence<br />

of insects.<br />

Due to the complications with maintaining consistently<br />

healthy plants, <strong>no</strong> formal measurements<br />

with the experimental plants have been taken at<br />

this time, but there have been several practice<br />

measurements including extracting chlorophyll and<br />

measuring the wavelengths with a spectrophotometer,<br />

staining stem cross sections with toluidine blue<br />

and observing the plant vasculature under a microscope,<br />

and experimenting with different grip set-ups<br />

for tensile testing. Images of the practice stained<br />

samples are shown in Figure 4.<br />

Figure 1a. The upright basil plants<br />

Figure 1b. Some of the upside down basil plants on a garment rack


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Figure 2. Pruned stem of plant 6 (upright) with 3 sets of new leaves. The black circle on the left highlights the location of the pruning cut.<br />

The red circle highlights where the new offshoot stems and leaves grew from the main stem. The sets of leaves are numbered on the right<br />

Chlorophyll wavelength measurements were taken<br />

using a spectrophotometer. I am currently reviewing<br />

published literature for additional information<br />

about the effect of a plant’s health on its chlorophyll<br />

production.<br />

32<br />

Apart from the plants being used for experimentation,<br />

an additional basil plant was purchased in<br />

order to conduct practice tensile tests and find the<br />

most effective grip set-up for successful testing.<br />

Since the available pieces of testing apparatus did<br />

<strong>no</strong>t have fixtures suitable for botanical samples,<br />

there were <strong>no</strong> successful practice tensile tests. In<br />

the majority of the practice tests, the stem sample<br />

slipped through the grips. Examples of this are<br />

shown in Figures 5 and 6. In Figure 5, the stem slips<br />

from the start of testing. In Figure 6, the stem starts<br />

Figure 3. Two pruned stems from plant<br />

11 (upside-down), each with 2 pairs of<br />

new leaves


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

to deform as desired, but the sample begins to slip<br />

in the middle of testing. A successful tensile testing<br />

graph would look more like Figure 7. This graph was<br />

the result of one of the practice tests; however, the<br />

sample broke right at the bottom grip (displayed in<br />

Figure 8), which is <strong>no</strong>t desirable. The sample should<br />

break more toward the center of the gage length.<br />

Breaking at the grips occurs due to improper stress<br />

concentrations through the sample; the grips are<br />

exerting too much force on the sample and weakening<br />

it at the grip points. Various materials such<br />

as sandpaper and rubber were used to try to create<br />

more friction between the sample and the grips<br />

without applying too much force, but these attempts<br />

were <strong>no</strong>t successful.<br />

The research grant provided to me by the Office of<br />

<strong>Undergrad</strong>uate Research allowed me to obtain many<br />

necessary materials including the plants and the<br />

various materials needed to care for them. While<br />

<strong>no</strong> conclusive measurements have been collected,<br />

these funds and materials provided me the opportunity<br />

to conduct valuable troubleshooting for<br />

this project. I would <strong>no</strong>t have been able to pursue<br />

researching this unique application of mechanical<br />

engineering without the support of the grant. I would<br />

like to ack<strong>no</strong>wledge my advisor Dr. Tracie Ferreira for<br />

her support and guidance with this project.<br />

33<br />

An alternative idea for tensile testing has been<br />

investigated but <strong>no</strong>t yet tested. It involves wrapping<br />

the ends of the stem sample around hooks instead<br />

of compressing the ends in grips. This is a method<br />

commonly used for testing the tensile strength of<br />

string samples. This set-up does <strong>no</strong>t have all the<br />

necessary components, but the available components<br />

have been gathered as seen in Figure 9. There<br />

may be some need for manufacturing in order to<br />

complete the testing set up. This will be explored<br />

further during the fall 20<strong>18</strong> semester.<br />

The current plans for the continuation of this project<br />

consist of obtaining and maintaining a new set of<br />

plants over the summer months in order to establish<br />

a healthier set of samples. Measurements from this<br />

healthier set of plants will be collected in the fall<br />

20<strong>18</strong> semester.<br />

Figure 4. Two basil stem cross sections stained with toluidine blue<br />

and examined under a microscope


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Figure 5. Load vs extension graph of a stem tensile testing sample<br />

that slips throughout testing<br />

Figure 6. Load vs extension graph of a stem tensile testing sample<br />

that starts to deform and then begins to slip around 2mm<br />

34<br />

Figure 7. Load vs extension graph of a stem tensile testing<br />

sample. The sample deforms until it breaks at about 1.9 mm<br />

Figure 8. A stem tensile test sample that broke at the bottom grip<br />

Figure 9. Top hook for future tensile tests. A bottom hook needs to<br />

be properly fashioned for this testing set-up


35


36


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

37<br />

Research in Rhetoric &<br />

Communication<br />

Evolution of the Princess Culture:<br />

Discourse Analysis of Film &<br />

Merchandise Reviews<br />

Morgan Banville ’19 Ho<strong>no</strong>rs


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

I am a senior English Literature and Criticism, and<br />

Writing, Rhetoric, and Communication major. This<br />

project was created for my Ho<strong>no</strong>rs Thesis at UMass<br />

Dartmouth. My project was advised by Professor<br />

Katherine DeLuca and Caroline Gelmi. Their hard<br />

work and dedication are greatly appreciated.<br />

38<br />

Morgan Banville


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

The purpose of this study was to describe the<br />

ways in which film and merchandise reviews for<br />

Disney princess films such as Pocahontas, The<br />

Princess and the Frog, Brave, and Moana depict<br />

Disney’s attempts at becoming progressive in their<br />

representations of female role models for young<br />

children. The study was conducted in response to<br />

the ongoing discussion surrounding the Disney films<br />

and their inability to represent realistic and attainable<br />

role models for viewers. The basic design of the<br />

study was conducted through coding and discourse<br />

analysis. The study focused on how stereotypically<br />

racial and gendered rhetoric is used to describe<br />

the princesses, as well as the reliance on a male<br />

figure and various sexual innuendos. Despite some<br />

progress, there are a few issues that remain with<br />

how Disney princesses are portrayed. Both film and<br />

merchandise reviews continue to use coded rhetoric,<br />

which creates unrealistic expectations for young<br />

children as well as inadequate role models.<br />

When one hears the word “princess,” more often<br />

than <strong>no</strong>t the image of a Disney princess comes to<br />

mind. The image of a Disney princess is usually<br />

standard throughout the line: the women are<br />

hetero<strong>no</strong>rmative, accompanied most often by a<br />

39<br />

Merida from Brave representations. Courtesy of Wikimedia Commons


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

prince, and oftentimes descendants of royal blood<br />

or married into royal blood. The stereotype associated<br />

with the princess line are women who display<br />

incredible beauty, have skinny waists, sleek hair,<br />

and perfect clothing. Although the flawless features<br />

of the princesses are a distinguishing feature, this<br />

poses some issues for those seeking women who<br />

are <strong>no</strong>t “perfect.” In my research, I analyzed film and<br />

merchandise reviews because these mediums are<br />

primarily where the audiences are being influenced.<br />

Both children and adults alike are highly influenced<br />

by visual rhetoric; an adult is more inclined to watch<br />

a film with their child and comment on it rather than<br />

a child going online and writing a review. In this<br />

way, the data I gathered allows for an analysis of<br />

the perceptions parents have of the culture that is<br />

impacting their children.<br />

In my research I found that Disney merchandising<br />

and films have racially charged rhetoric that impacts<br />

audiences’ perceptions of the princesses. The film<br />

and merchandise reviews displayed terms relating<br />

to stereotypical racism in regard to expectations of<br />

that particular race, as well as terms demeaning the<br />

race. Disney merchandising and films also perpetuate<br />

specific beauty standards. The inclusion of<br />

40<br />

Pocahontas Film versus Merchandise. Courtesy of Wikimedia Commons


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

41<br />

demeaning physical descriptions of the princesses<br />

also serves to weaken their characters and perpetuate<br />

sexist ideals for women. These perceptions, it<br />

seems, can lead to internal biases when examining<br />

the films and even could be a contributing factor to<br />

the disagreements regarding whether or <strong>no</strong>t princesses<br />

are negative influences for young girls.<br />

I applied the methodology of discourse analysis<br />

and coding method to the film and merchandise<br />

reviews. Discourse analysis examines how language<br />

is used to construct “ways of being in the<br />

world.” Coding categorizes language to make sense<br />

of dominant trends. Using the coding method, I<br />

categorized the rhetoric of film and merchandise<br />

reviews into categories associated with racism/<br />

racial terms, gender ambiguity, sexual innuendos,<br />

and stereotypically feminine/masculine terms. To<br />

categorize and code the films and merchandise, for<br />

example, I documented the typical masculine traits<br />

such as athleticism, bravery, or independence, as<br />

well as the feminine rhetoric such as any action or<br />

trait relating to showing emotion, physical features<br />

(pretty, beautiful, gorgeous), or being submissive.<br />

After studying the merchandise and film reviews<br />

of the Disney princesses, the reviews, and thus the<br />

films, I found the merchandise and reviews reinforce<br />

traditional gender roles for the princesses, and the<br />

negative portrayals of Disney princesses in reviews<br />

have the potential to impact the creation of positive<br />

role models for young girls by misrepresenting the<br />

characters that children often admire and emulate.<br />

This research on the princesses could be extended<br />

to analyze the portrayal of other female characters<br />

in Disney movies, therefore contributing to the ongoing<br />

research on gender in media and the discourse<br />

between merchandise and films.


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

42


43


44


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

45<br />

Research in Chemistry<br />

Developing Inexpensive Catalysts for<br />

Buchwald Carbon-Nitrogen Couplings<br />

Diego Javier-Jimenez ‘19


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Catalyzed cross-coupling reactions using aryl halide<br />

reagents have found a prominent role in synthetic<br />

chemistry. The most <strong>no</strong>table are carbon-carbon<br />

coupling reactions, for which Heck, Negishi and<br />

Suzuki received the Nobel Prize in 2010. Similar<br />

carbon-nitrogen couplings, k<strong>no</strong>wn as Buchwald-<br />

Hartwig aryl-amination reactions, have also found<br />

great utility, with applications in natural product<br />

synthesis, medicinal chemistry, organic materials<br />

chemistry, and catalysis. The catalysts in almost<br />

all cross-coupling reactions are based upon the<br />

precious metal palladium (price: $58,000/kg).<br />

Our lab is currently exploring different routes<br />

for the formation of carbon-nitrogen bonds with<br />

less expensive metals. In the summer of 2017, I<br />

studied one such reaction in detail, analyzing the<br />

mechanism that the reaction follows.<br />

46<br />

Diego Javier-Jiminez


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

My summer research involvement at UMass<br />

Dartmouth has been one of the most rewarding<br />

experiences of my undergraduate career. I had the<br />

pleasure of working with k<strong>no</strong>wledgeable lab mates<br />

who were always willing to help, explain, and teach<br />

any skills necessary for me to be successful in my<br />

research. I would like greatly thank Dr. David Manke,<br />

working with him has inspired me to become the<br />

best chemist that I can and more. The experience<br />

has also significantly reaffirmed my goals of going<br />

to graduate school to obtain a Ph.D. in Chemistry.<br />

I would like to thank the Office of <strong>Undergrad</strong>uate<br />

Research for funding this research, without their aid,<br />

this research experience would have <strong>no</strong>t been possible.<br />

We are currently preparing two manuscripts<br />

that we hope to submit to peer-reviewed journals for<br />

publication this fall. I plan on continuing this work<br />

for the remaining two years at UMass Dartmouth,<br />

and hope that my research accomplishments will<br />

make me competitive for an NSF graduate research<br />

fellowship. The OUR has given me the opportunity to<br />

follow one of my life-long goals.<br />

47


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

48


49


50


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

Research in Marine Biology<br />

Influence of UV Light on Marine Biofilms<br />

Alexandria E. Profetto ‘19<br />

51


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Currently I am a rising junior marine biology major at<br />

UMass Dartmouth. My career here at the university<br />

started late due to being a member of the Massachusetts<br />

Army National Guard. After delays from<br />

training and a deployment in 2014–2015, I began<br />

my long sought after pursuit of a degree in marine<br />

biology. Thanks to the funding from the OUR and<br />

additional assistance by the Dean’s <strong>Undergrad</strong>uate<br />

Fellowship, I have been able to work on an antifouling<br />

project, originally started in 20<strong>16</strong> by Boston<br />

Engineering Corporation (BEC) and Dr. Pia Moisander<br />

at the Biology Department. The project was<br />

focused around the reduction of growth on marine<br />

biofilms, specifically on capabilities of a prototype<br />

device, developed by BEC, based on LED-generated<br />

ultraviolet (UV) light for use as an antifouling method<br />

for ship hulls (UV-C band light).<br />

52<br />

Alexandria E. Profetto (left) as a member of the National Guard


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

53<br />

Biofilms can be found and formed on a variety of<br />

surfaces, varying from indwelling medical devices<br />

to natural aquatic systems. Formation of a biofilm<br />

(“fouling”) begins with an accumulation of microbial<br />

cells on a surface surrounded in a polysaccharide<br />

based matrix. Depending on the environment in<br />

which the biofilm has formed, <strong>no</strong>n-cellular materials<br />

such as clay or silt particles can be found<br />

in the matrix (Donlan, 2002). In aquatic-based<br />

biofilms, the solid-liquid boundary between water<br />

and the surface, such as a ship hull, offers an<br />

ideal environment for the attachment and growth<br />

of microorganisms. Bacteria and diatoms are the<br />

most dominant forms reported in biofilms and are<br />

coined as “microfoulers.” These microfoulers play<br />

a very important role by providing signals for the<br />

attachment of various macrofouling organisms<br />

ranging from algae and barnacles to oysters and<br />

polychaetes (Donlan, 2002). This can be a nuisance<br />

for aquaculturists as well as commercial and<br />

recreational fishermen. Traditionally, antifouling<br />

heavily relied on fouling-reducing marine paints<br />

that although reduced in toxicity, still contain<br />

some toxic chemicals which can potentially cause<br />

harmful environmental impacts. Limited options for<br />

environmentally friendly and effective eradication<br />

of biofilms have created a need for alternative<br />

antifouling methods (Kim et al., 20<strong>16</strong>).<br />

During my project over the summer of 20<strong>16</strong>, we had<br />

a few goals regarding methodology, toward development<br />

of a repeatable and controlled experimental<br />

system for growing marine biofilms in the lab. We also<br />

wanted to test the capabilities of the UV device on<br />

biofilms grown under a range of temperatures, using<br />

microalgal cultures isolated from Buzzards Bay by<br />

Dr. Moisander in 20<strong>16</strong>. The biofilms were grown for<br />

1–2 weeks in 32L of i<strong>no</strong>culated microalgal cultures<br />

at two temperatures. Forty aluminum plates, painted<br />

to simulate a boat hull, with <strong>no</strong>n-antifouling paint,<br />

30C Plates post sampling one week into the experiment<br />

30C Experiment Bin


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Left: Front <strong>View</strong> of Setup with 22C Bin<br />

Plate Arrangement of 22C Bin<br />

were used to grow the biofilms. At specified times, the<br />

plates were treated with the UV light with one of the<br />

three duration times (1, 10, or 20 minutes) and then<br />

placed back in the bin to continue growth. Triplicate<br />

plates were included for each treatment. Samples<br />

were then collected from the treated and <strong>no</strong>n-treated<br />

areas (one and two weeks after the UV treatment) to<br />

be analyzed at a later date. Samples were collected<br />

to investigate presence of chlorophyll a (representing<br />

microalgal abundance) and abundances of bacteria<br />

on the surfaces. A second experiment was conducted<br />

with bacterial mixed cultures in one temperature only<br />

and a 1-week post-treatment incubation.<br />

am continuing to complete the bacterial abundance<br />

counts over the next few months.<br />

Overall, the UV device appeared to be successful<br />

in killing existing biofilm and slowing down<br />

regrowth in the already formed biofilms. The<br />

observations show that we were successful in<br />

creating artificial marine biofilms in the lab and<br />

demonstrate the effectiveness of the UV device on<br />

these biofilms, mirroring overall results from pilot<br />

experiments conducted by Moisander lab and<br />

the BEC collaborators with natural biofilms from<br />

Buzzards Bay in 20<strong>16</strong>.<br />

54<br />

By the end of the summer, all samples were collected<br />

for each analysis and experiments completed. I also<br />

finished the analysis of all chlorophyll samples using<br />

fluorometry, and started the bacterial counts using<br />

epifluorescence microscope. The data compilation<br />

for chlorophyll data is currently in progress, and I<br />

My research experience was very eye-opening<br />

regarding where and how I want to work in my<br />

future research career. I thoroughly enjoyed coming<br />

up with an experimental design and tackling<br />

the research challenges with Dr. Pia Moisander,<br />

as well as seeing the project come to a success-


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

UV device setup on top of plate prior to treatment<br />

3D <strong>print</strong>ed plate holder (by Boston Engineering) used for<br />

precisely sampling the plates<br />

55<br />

ful completion. Without her mentoring filled<br />

with her wealth of k<strong>no</strong>wledge and expertise, my<br />

problem solving and critical thinking in terms of<br />

science would <strong>no</strong>t have progressed as well as<br />

they have. Collaborating with other members of<br />

the lab team in lab meetings were truly priceless<br />

experiences that I am so grateful for being<br />

afforded. Getting other opinions, ranging from<br />

an REU undergraduate to a post doc, was a great<br />

way to expand my thinking on my project beyond<br />

just “what is this data?” My hope for this upcoming<br />

academic year is to continue assisting with<br />

this biofilm project or a<strong>no</strong>ther project, finishing<br />

up data analysis, and learning as much as I can<br />

from Dr. Moisander and her three Ph.D. students.<br />

I’d also like to thank visiting post-doc Mar Benavides<br />

and REU undergraduate Clay Evans for<br />

allowing me to bounce ideas off them and learn<br />

from their research projects.


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Refrences<br />

1.<br />

Donlan, Rodney M. “Biofilms: Microbial Life on Surfaces.” Emerging Infectious Diseases 8.9 (2002): 881-<br />

90. Web.<br />

2.<br />

Kim, Minhui, Shin Young Park, and Sang-Do Ha. “Synergistic Effect of a Combination of Ultraviolet–C<br />

Irradiation and Sodium Hypochlorite to Reduce Listeria Mo<strong>no</strong>cytogenes Biofilms on Stainless Steel and<br />

Eggshell Surfaces.” Food Control. Elsevier, 03 May 20<strong>16</strong>. Web.<br />

56


57


58


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

59<br />

Research in Bioengineering<br />

An Ethical Analysis of the De-extinction<br />

of the Woolly Mammoth<br />

Carson M. Longendorfer ‘19


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

During my time studying Bioengineering at UMass<br />

Dartmouth I have learned a lot about the vast<br />

potentials of biotech<strong>no</strong>logy. I recall one topic that<br />

really struck a chord with me from my BIO 121 class,<br />

de-extinction. The professor described to us how a<br />

researcher in Australia had brought the southern<br />

gastric brooding frog back from extinction in his lab<br />

by using the same tech<strong>no</strong>logy that made Dolly the<br />

sheep a reality. He also briefly mentioned to us that<br />

a<strong>no</strong>ther research group wanted to use de-extinction<br />

to bring an ancient Ice Age species, the woolly<br />

mammoth, back into the wild. I read up on this a<br />

little more and learned that the project is led by Dr.<br />

George Church at Harvard University who is helping<br />

to develop the genetic editing tech<strong>no</strong>logy k<strong>no</strong>wn as<br />

CRISPR/Cas 9. Using this tech<strong>no</strong>logy he is attempting<br />

to swap out pieces of the ge<strong>no</strong>me of a somatic<br />

elephant cell until it resembles that of a woolly<br />

60<br />

Carson M. Longendorfer


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

mammoth (Shapiro, Beth). This cell would then be<br />

implanted into an elephant embryo and carried to<br />

term by an elephant until the mammoth is born<br />

(Shapiro, 20<strong>16</strong>). I found this to be a really interesting<br />

use of biotech<strong>no</strong>logy as well an intriguing ethical<br />

question. I became interested in further delving into<br />

the ethical implications of de-extinction, and so I<br />

was very excited to learn about the summer grant<br />

opportunity from the OUR.<br />

for the environment (Shapiro, 20<strong>16</strong>). Zimov wants<br />

to expand the experiment that he calls Pleistocene<br />

Park to cover a large area of Siberia and to include<br />

the woolly mammoth (Zimov, 2005). The mammoth is<br />

especially good for this purpose because of its large<br />

size, it tramples the s<strong>no</strong>w that acts as an insulator<br />

keeping the ground warmer. By disturbing the s<strong>no</strong>w,<br />

it allows for more cold air to reach the permafrost,<br />

keeping it more frozen (Shapiro, 20<strong>16</strong>).<br />

61<br />

I decided to take a two-pronged approach in my<br />

research, first analyzing the scientific justifications<br />

and oppositions and secondly the philosophical<br />

implications that the de-extinction of the woolly<br />

mammoth poses. One of the major justifications<br />

for Church’s project is its potential benefits to the<br />

environment. Sergey Zimov hypothesized that the<br />

changes to the environment during the transition<br />

from the pleistocene to the holocene era did <strong>no</strong>t<br />

cause the mass extinctions that included the woolly<br />

mammoth, but instead, it was the extinctions that<br />

caused the environmental changes. He was able<br />

to support this hypothesis by fencing off an area in<br />

Siberia and relocating a few species of large herbivores.<br />

The herbivores ate the grass and stimulated<br />

the conversion of the swamp to grasslands within<br />

one year (Zimov, 2005). Grasslands are preferable<br />

to wetlands because wetlands release greenhouse<br />

gases into the atmosphere causing global warming,<br />

and when the wetlands are fed by the melting of<br />

the permafrost underneath, this could be very bad<br />

In this way, a compelling utilitarian argument can<br />

be made because the suffering of a few elephants<br />

and the objectification of the hybrid mammoth can<br />

be justified for the benefit of the entire planet and<br />

every species on it. Environmental ethicist Robert<br />

Elliot, however, claims that nature can<strong>no</strong>t be restored<br />

after having been damaged because original<br />

nature has an intrinsic value that can’t be regained<br />

since it can never be the same as it was. Therefore,<br />

the only real way to preserve nature is to stop<br />

causing further damage, and using de-extinction<br />

as a restoration method is unhelpful and even more<br />

damaging (Elliot, 2007).<br />

I plan to submit my research to the Penn Bioethics<br />

Journal, a peer-reviewed journal for undergraduates.<br />

I am grateful for the opportunity that the OUR<br />

has provided for me and I hope that this experience<br />

with bioethics research is only the beginning of a<br />

successful future career as a bioethicist.


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Refrences<br />

1.<br />

Elliot, Robert. Faking Nature: The Ethics of Environmental Restoration. London: Routledge, 2007.<br />

2.<br />

Shapiro, Beth. How to Clone a Mammoth: The Science of De-extinction. Princeton: Princeton University<br />

Press, 20<strong>16</strong>.<br />

3.<br />

The Telegraph Editorial. “Is Jurassic World closer than we think?” The Telegraph, Telegraph Media Group,<br />

3 Sept. 2015, www.telegraph.co.uk/film/jurassic-world/pleistocene-park-dna-di<strong>no</strong>saurs/. Accessed 29<br />

Aug. 2017.<br />

4.<br />

Zimov, S. A. “Essays on Science and Society: Pleistocene Park: Return of the Mammoths Ecosystem.”<br />

Science 308, <strong>no</strong>. 5723 (2005): 796-98. doi:10.1126/science.1113442.<br />

62<br />

Pleistocene Park, Russia. Photograph courtesy of The Telegraph. and Wikimedia Commons


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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

65<br />

Research in English Literature<br />

Temporary Meddlers: Friars in Measure<br />

for Measure and Romeo & Juliet<br />

Sarah Friedman ‘<strong>18</strong> Ho<strong>no</strong>rs


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

I am an English major and a member of the Ho<strong>no</strong>rs<br />

Program at UMass Dartmouth. My paper “Temporary<br />

Meddlers: Friars in Measure for Measure and Romeo<br />

and Juliet” was originally developed as my final research<br />

paper for the Shakespeare course that I took<br />

in spring 2017 with Professor Jay Zysk of the English<br />

Department at UMass Dartmouth. During the course<br />

of the spring semester, my class visited the Boston<br />

Public Library’s “Shakespeare Unauthorized” exhibit<br />

to begin developing ideas for paper topics.<br />

66<br />

Sarah Friedman


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

67<br />

While I was at the Boston Public Library’s “Shakespeare<br />

Unauthorized” exhibit, I began to think about<br />

how Shakespeare portrays religion in his plays and<br />

I developed this concept into a research paper on<br />

Shakespeare’s friar characters.<br />

Last summer, Professor Catherine Gardner who is<br />

the director of OUR, informed me about the peer-reviewed<br />

Journal of the National Collegiate Ho<strong>no</strong>rs<br />

Council (UReCA) and I decided to revise and submit<br />

my paper. The paper was recently approved for<br />

publication and in what follows I provide a summary<br />

of my argument. To read the entire paper, please feel<br />

free to click on the following image.<br />

During Shakespeare’s lifetime, religion was a controversial<br />

topic and the practice of Catholicism in<br />

England was illegal. I thought it was particularly<br />

interesting that Shakespeare uses Catholic friars<br />

as characters in his plays and I wanted to explore<br />

what those characters might suggest about Shakespeare’s<br />

religious beliefs. Shakespeare grew up in<br />

Stratford-upon-Avon and that community was at<br />

the center of Catholic resistance in England. His<br />

parents were connected with Catholicism and three<br />

of his grammar school teachers were Catholic, so<br />

that definitely had a strong presence in his early life.<br />

I focused my paper on Friar Laurence in the tragedy<br />

Romeo and Juliet, and Duke Vincentio, who disguises<br />

himself as a friar in the comedy Measure for Measure.<br />

In both of these plays, Shakespeare seems to be<br />

more sympathetic to friars than his contemporaries<br />

were. He does <strong>no</strong>t portray them as vicious characters<br />

who break their vows; instead he portrays<br />

them as fallible human beings who try to help their<br />

communities. In both plays, friars keep secrets and<br />

manipulate politics. Friar Laurence performs Romeo<br />

and Juliet’s secret marriage, but he does so believing<br />

that it might end the feud between the Capulets and<br />

the Montagues. Duke Vincentio takes on the identity<br />

of a friar, but he uses it to try to stop the corruption<br />

that is happening in the city of Vienna. In conclusion,<br />

Shakespeare makes it clear that religion and politics<br />

are intertwined and earthly matters can<strong>no</strong>t be easily<br />

separated from spiritual matters.


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Front page of Sarah Freedman’s publication in UReCA<br />

68<br />

Featured item Sarah Friedman visted at the Boston Public Library Exhibition.<br />

Mr. William Shakespeares Comedies, Histories, & Tragedies (The First Folio) » Mr.<br />

William Shakespeares Comedies, Histories, & Tragedies (The First Folio). Available at<br />

www.bpl.org/exhibitions/shakespeare-unauthorized


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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

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Research in Psychology<br />

The Effect of Race-Related Words on<br />

Categorical Perception of Race<br />

Anna Sullivan ‘<strong>18</strong> Ho<strong>no</strong>rs


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Categorical perception (CP) refers to the psychological<br />

phe<strong>no</strong>me<strong>no</strong>n that occurs when we perceive<br />

a stimulus existing along a continuum as a set of<br />

discrete categories (for a review, see Fugate, 2013).<br />

One way to conceptualize CP is to think of a rainbow<br />

and the colors it produces. While we see a range<br />

of different colors, the physical composition of<br />

the rainbow is in fact a continuous range of visible<br />

wavelengths of light (Goldstone & Hendrickson,<br />

2010). Due to the fact that we are unable to perceive<br />

these wavelengths as they are, we counteract this<br />

by forming discrete categories in order to divide<br />

such objects, or in this case colors, occurring on a<br />

spectrum. From there, we can then differentiate<br />

the colors we see based on how we perceive their<br />

differences (Bornstein, Kessen, & Weiskopf, 1976).<br />

When this happens, the differences of colors in<br />

separate categories become more prominent while<br />

the differences of colors in the same category are<br />

less pro<strong>no</strong>unced (Goldstone & Hendrickson, 2010).<br />

72<br />

Anna Sullivan


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

Early psychological empirical research studied<br />

how speech sounds were perceived categorically<br />

(Liberman, Harris, Hoffman, & Griffith, 1957). Due<br />

to advancing tech<strong>no</strong>logy and computer software,<br />

work on CP has also been extended to the human<br />

face. CP has been found to be present in the<br />

perception of facial expressions (Etcoff & Magee,<br />

1992), familiar facial identities (Beale & Keil,<br />

1995), gender information (Campanella, Chrysochoos,<br />

& Bruyer, 2001), and emotion (Fugate,<br />

Gouzoules, & Barrett, 2010). CP has also been<br />

studied in terms of race. For example, Levin and<br />

Angelone (2002) found that, similar to gender, CP<br />

was stronger for different race facial morphs than<br />

for facial morphs of the same racial group.<br />

In addition, categorical perception of social constructs,<br />

including emotion and race, are affected by<br />

a perceiver’s conceptual k<strong>no</strong>wledge, including his/<br />

her language (Barrett, 2006 a/b; Fugate, 2013). Specifically,<br />

when the meaning of a word is activated,<br />

people show more willingness to accept <strong>no</strong>n-target<br />

emotional stimuli as a category member (Fugate,<br />

Gendron, Nakashima, & Barrett, 2017). Said a<strong>no</strong>ther<br />

way, they are less “accurate” at matching images because<br />

their categories for that item have increased<br />

to include more instances. In this manner, people<br />

are becoming more “open-minded” and flexible<br />

with what constitutes a category member. Directly<br />

related to the current project, Tskhay and Rule<br />

(2015) showed that participants perceived racially<br />

73<br />

Poster of Anna Sullivan’s research project


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

74<br />

Detail from Anna Sullivan’s study<br />

ambiguous faces as belonging to different categories<br />

when they are preceded by the word “Black”<br />

or by “White.” Therefore, semantic information (i.e.,<br />

top-down information) can interact with the stimulus<br />

characteristics (i.e., bottom-up information) to<br />

create differentiated judgments.<br />

The research question for this project was: how do<br />

different race-related words affect the categorical<br />

perception of race? This study sought to expand what<br />

is k<strong>no</strong>wn about CP of race as it is affected by race-related<br />

words. To date, <strong>no</strong> research has directly studied<br />

the categorical perception of race and language (for a<br />

review, see Timeo, Farroni, & Maass, 2017). This type<br />

of research is important because it can provide more<br />

k<strong>no</strong>wledge of how race-related words (and language<br />

more broadly) can affect our perceptions of important<br />

social categories, such as race.<br />

The objectives of this project were to examine the<br />

ways in which certain race-related words affect<br />

an individual’s processing in categorizing racially<br />

ambiguous faces. My study examined how these<br />

cognitive processes are influenced by top-down<br />

information, such as language, and work to establish<br />

an individual’s perception of race within individuals.<br />

This work can lead to a better understanding of how<br />

people “see” race in the world and how the words<br />

used to describe race can shift perception and<br />

ultimately change biases. We are all affected by ex-


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

75<br />

ternal sources of information, and therefore need to<br />

continue to explore the ways in which they affect our<br />

categorization of others into social and racial groups.<br />

Categorical perception was tested through a typical<br />

two-stage paradigm (reviewed by Fugate, 2013).<br />

The first paradigm, classification (or identification),<br />

defined a participant’s categorical boundary (i.e.,<br />

the point at which an individual distinguishes an<br />

image as either one race or a<strong>no</strong>ther). The second<br />

paradigm, discrimination, was used to test for the<br />

hallmark of CP which is an increase in the ability to<br />

discriminate between pictures previously assigned<br />

to different categories compared with pictures previously<br />

assigned to the same category, even though<br />

the physical difference between the pictures is<br />

always held constant.<br />

During the classification stage of this research,<br />

participants were presented with an array of racially<br />

ambiguous face stimuli that have been created<br />

using computer software (FantaMorph). These<br />

faces were created by combining two photos of<br />

different-race individuals and making systematic<br />

blends (k<strong>no</strong>wn as morphs) that depict iterations<br />

between the two pictures. Participants were then<br />

asked to identify each stimulus as belonging to one<br />

of two categories, anchored by the picture endpoints<br />

or race-related words in different trials. We used<br />

several different race-related words to see whether<br />

a person’s threshold changes when evoking different<br />

race-related words and from when <strong>no</strong> words are<br />

evoked (match to picture condition).<br />

During the discrimination stage of this research,<br />

participants were presented with two sequential<br />

morphs, which either span the threshold (established<br />

in part 1) or do <strong>no</strong>t span the threshold (but<br />

constitute the same structural difference between<br />

the faces). The former trials were the “between-category”<br />

trials. Participants’ increased accuracy to<br />

discriminate better the “between-category” trials


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

from the within-category trials is the hallmark of<br />

CP. We predicted that when participants match<br />

to race-related words (compared to pictured endpoints),<br />

they will show increased thresholds (steeper<br />

category transitions). Moreover, the steeper transitions<br />

translated into enhanced CP, as demonstrated<br />

by participants having increased accuracy to the<br />

“between-category” pairs compared to the “within-category”<br />

pairs.<br />

Although similar types of studies and experiments<br />

have been performed, this project is unique in<br />

several key ways. First, <strong>no</strong> one has performed the<br />

full CP task (both identification and discrimination)<br />

on racial morphs. Second, the facial morphs are<br />

unique and were created specifically for this study<br />

from professional face sets. Third, <strong>no</strong> one has varied<br />

how (that is to what endpoint) participants match<br />

their choices. Words are almost always used as<br />

anchors. However, in a related CP study of emotion<br />

in the lab, Dr. Fugate and her students showed that<br />

matching to pictured endpoints (rather than words)<br />

increased the transition between categories but<br />

did <strong>no</strong>t change CP. In addition, we will vary the type<br />

of race-related words (e.g. “African American” and<br />

“Black” and “<strong>no</strong>t White” vs. “European American” and<br />

“White” vs. “Not Black”) to see if specific identifiers<br />

affect race perception differently.<br />

Results from the identification portion of this<br />

research showed that language produces significant<br />

effects on race perception. Data analysis is still<br />

underway for the discrimination task, as well as the<br />

survey that participants completed. This project was<br />

presented at both the UMass Amherst <strong>Undergrad</strong>uate<br />

Research Conference and the PSI CHI Research<br />

Conference. It was also awarded second place at the<br />

20<strong>18</strong> OUR <strong>Undergrad</strong>uate 3 Minute Thesis competition.<br />

I am grateful to my advisor Dr. Jennifer Fugate<br />

for her guidance and to the OUR for the financial<br />

support needed for this research.<br />

76


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

Refrences<br />

77<br />

1.<br />

2.<br />

3.<br />

4.<br />

5.<br />

6.<br />

7.<br />

8.<br />

9.<br />

Barrett, L. F. (2006a). “Are Emotions Natural Kinds?” Perspectives on Psychological Science, 1, 28-58.<br />

Barrett, L.F. (2006b). “Solving the Emotion Paradox: Categorization and the Experience of Emotion.”<br />

Personality and Social Psychology, 10, 20-46.<br />

Beale, J.M., & Keil, C.F. (1995). “Categorical Effects in the Perception of Faces.” Cognition, 57, 217-239.<br />

Bornstein, M.H., Kessen, W., & Weiskopf, S. (1976). “Color Vision and Hue Categorization in Young Human<br />

Infants.” Journal of Experimental Psychology: Human Perception and Performance, 2, 115-129.<br />

Campanella, S., Chrysochoos, A., & Bruyer, R. (2001). “Categorical Perception of Facial Gender<br />

Information: Behavioural Evidence and the Face-Space Metaphor.” Visual Cognition, 8, 237-262. doi:<br />

10.1080/13506280042000072<br />

Etcoff, N.L., & Magee, J.J. (1992). “Categorical Perception of Facial Expressions.” Cognition, 44, 227-240.<br />

FantaMorph. (2017). http://www.fantamorph.com/index.html<br />

Fugate, J.M.B. (2013). “Categorical Perception for Emotional Faces.” Emotion Review, 5, 84-89. doi:<br />

10.117/1754073912451350<br />

Fugate, J.M.B., Gendron, M., Nakashima, S.F., & Barrett, L.F. (2017). “Emotion Words: Adding Face Value.”<br />

Emotion. doi: 10.1037/emo0000330<br />

10.<br />

Fugate, J.M.B., Gouzoules, H., & Barrett, L.F. (2010). “Reading Chimpanzee Faces: Evidence for the Role<br />

of Verbal Labels in Categorical Perception of Emotion.” Emotion, 10, 544-554. doi: 10.1037/a0019017<br />

11.<br />

12.<br />

13.<br />

14.<br />

Goldstone, R. L., & Hendrickson, A. T. (2010), “Categorical Perception.” WIREs Cogni Sci, 1: 69–78.<br />

doi:10.1002/wcs.26<br />

Levin, D. & Angelone, B. (2002). “Categorical Perception of Race.” Perception, 31, 567-578. doi: 10.1068/<br />

p3315<br />

Liberman, A.M., Harris, K.S., Hoffman, H.S., & Griffin, B.C. (1957). “The Discrimination of Speech Sounds<br />

Within and Across Phoneme Boundaries.” Journal of Experimental Psychology, 54, 358-368.<br />

Timeo, S., Farroni, T., & Maass, A. (2017). “Race and Color: Two Sides of the Same Story? Development of<br />

Biases in Categorical Perception.” Child Development, 88, 83-102. doi: 10.1111/cdev.12564<br />

15.<br />

Tskhay, C. & Rule, N. (2015). “Semantic Information Influences Race Categorization from Faces.”<br />

Personality and Social Psychology Bulletin, 41, 769-778. doi: 10.1177/0146<strong>16</strong>7215579053


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Research in Fine Arts<br />

Research & Exhibition on<br />

African-American Students at<br />

UMass Dartmouth<br />

Erick Maldonado ‘<strong>18</strong>


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

I am a senior Fine Arts major in the Department<br />

of Art and Design. I also mi<strong>no</strong>r in Art History in<br />

the Department of Art Education, Art History, and<br />

Media Studies. The goal my OUR-funded project<br />

was to highlight African-American student life on<br />

campus. I used the fund to do research, purchase<br />

painting materials, and organize a solo exhibition<br />

featuring portraits of African-American students on<br />

campus. Every portrait is accompanied by a short<br />

narrative, describing the thoughts of the student<br />

models I chose to paint. My project was supported<br />

by Professors Pamela Karimi (Art History) and Bryan<br />

McFarlane (Painting) and I am extremely grateful to<br />

both of them for their guidance.<br />

Erick Maldonado presents his thoughts on art and issues of<br />

displacement to a large audience at the New Bedford AHA! Festival<br />

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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

83<br />

As a Dominican-American on campus, I see women<br />

and men with different complexions living in complex<br />

environments. As students of color, we sometimes<br />

feel the barrier of living and communicating<br />

within our institutions of education. At the same<br />

time, African-American culture has grown a sense<br />

of resiliency against the old racial assumptions.<br />

And this is largely thanks to the efforts of those<br />

protagonists who made America a better place for<br />

all of us. During the Harlem Renaissance, many<br />

African-American artists created works that resisted<br />

the racial oppression of their time. These artists<br />

wanted Black voices and Black stories to be heard,<br />

and by doing so they vocalized their own stories to<br />

stand up for their rights. By empowering a community<br />

and continuing to provide a dialogue, many<br />

musicians, artists, writers, and scholars gathered<br />

together to make a difference.<br />

It is important to <strong>no</strong>te that during this time there<br />

was also a demand for African-Americans to be<br />

proud of their racial heritage. In later decades<br />

many African-American artists continued to voice<br />

their perspective regarding racial oppression. For<br />

example, Betye Saar made The Liberation of Black<br />

Jemima. By creating an image of Aunt Jemima<br />

inside of a frame with a Caucasian child on her<br />

hip, Saar used ico<strong>no</strong>graphic imagery to state and<br />

comment on African-American women and their<br />

labor in American history. Romare Bearden, an African-American<br />

painter, developed a vocabulary with<br />

sudden bursts of bright hues that helped depict<br />

African-American men and women. His portraits<br />

represented black commonalities and helped<br />

address African-American living conditions. Lastly,<br />

our contemporary, Kara Walker, uses silhouettes<br />

and folklore to frame the living conditions and com-<br />

Erick Maldonato’s solo show, I.D., at the 224 Gallery, UMass Darthmouth


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

84<br />

Details of Erick Maldonato’s paintings at the 224 Gallery, UMass Darthmouth<br />

plex social relations of slaves and slave masters.<br />

These artists continue to inspire me to turn history<br />

into art and to use the beautiful language of art to<br />

address important issues in Black communities.<br />

The ongoing political and racial issues that continue<br />

to develop mayhem in this country are what<br />

I planned to comment on through this research<br />

project that led to a solo exhibition, titled ID. In<br />

particular, I wanted to be able to give a strong<br />

voice to those UMD students who feel incapable of<br />

expressing themselves.<br />

Facing the everyday challenge of trying to communicate<br />

stories, purposes, and lives, my exhibit is a<br />

reflection of my identity. My subjects include students<br />

from campus who have succeeded in bringing<br />

awareness to blackness, continue to inspire and<br />

change the frame of blackness on campus, and who<br />

sustain a tradition of black representation that also


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

85<br />

emits the beauty of the community on campus. My<br />

overall vision of my project was to unite a group of<br />

people in the common goal of embracing culture. As<br />

evident in our country’s divide, Black students are<br />

easily more targeted. This OUR-funded exhibit allowed<br />

me to create a dialogue where students were<br />

able to use their voice to express their identity and<br />

culture. Through my paintings and the interviews<br />

that ensued, students were able to communicate<br />

who they are. Black students <strong>no</strong>w more than ever<br />

are afraid to submerse themselves in a controversial<br />

dialogue. Therefore, I wanted to create paintings that<br />

would help project their narratives.<br />

It was truly an ho<strong>no</strong>r to be offered an OUR grant in<br />

Spring 2017. This successful experience gave me the<br />

courage and confidence to apply for external grants.<br />

And I am particularly grateful to my professors<br />

Pamela Karimi (Art History) and Suzanne Schireson<br />

(Painting), who encouraged me to apply and<br />

supported my application. The following summer, I<br />

applied and received a Mellon Summer Internship at<br />

RISD Museum. My position at the museum was with<br />

the Contemporary Art department, where I worked<br />

closely with Richard Brown Baker, Curator of Contemporary<br />

Art, Dominic Molon, and Nancy Prophet<br />

fellow Amber Lopez.<br />

Some of my tasks included overseeing works and<br />

maintaining files of nearly hundreds of objects in<br />

the collection and preparing research on works<br />

for future exhibitions in the galleries. I learned so<br />

much from this program. RISD Museum’s Andrew W.<br />

Mellon summer internship program introduced me<br />

to museum work, the professional skills necessary<br />

to work in the arts, and the functionalities inside a<br />

museum. This experience shifted my perspective of<br />

how I view myself as an artist. The busy, continuous<br />

and challenging cycle of distributing art and curating<br />

work is diligent, practice is valued, and production is<br />

a priority. One of the most exciting experiences in the<br />

museum was creating my own program for RISD’s<br />

Third Thursday, which is an open night when the<br />

museum audiences engage more with the collection.<br />

My program consisted of learning about color<br />

relationships and how they impact shape, form, line,<br />

symmetry, and space. It was rewarding working with<br />

such a community. I value my time in Providence and<br />

the exposure to such programs.<br />

In conclusion, the Office of <strong>Undergrad</strong>uate Research<br />

provided the special skills and tools that I needed<br />

to enhance my k<strong>no</strong>wledge of painting, curation, and<br />

above all African-American life experience. Learning,<br />

exploring, and sharing stories of African-Americans<br />

in my community has helped me provide other students<br />

with an opportunity to find a space to express<br />

themselves. This project enabled me to become a<br />

better curator, painter, and even artist. Above all, it<br />

helped me become a critical thinker; it allowed me<br />

to appreciate the importance of art historical and<br />

anthropological research and to want to encourage<br />

others to question the world we live in and instill a<br />

sense of pride in Black communities.


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

86<br />

Details of Erick Maldonato’s paintings at the 224 Gallery,<br />

UMass Darthmouth


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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

89<br />

Research in Biology<br />

Identification of SIAT7 in Symbiotic<br />

Clownfish & A Closely Related<br />

Non-Symbiotic Fish<br />

Deborah Dele-Oni ‘<strong>18</strong> Ho<strong>no</strong>rs


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Clownfish live in a close symbiotic relationship with<br />

sea anemones. This relationship is often used as a<br />

teaching tool for students to learn about ecology,<br />

evolutionary mutualism, and species interactions.<br />

This mutualistic relationship may be due to a sugar<br />

the anemones detect in the mucus of the prey<br />

species. An enzyme class k<strong>no</strong>wn as sialyltransferases<br />

has been studied because of its importance<br />

to sea anemone recognition of prey. This class of<br />

sialyltransferases adds chains of sugars to proteins<br />

found in mucus. Clownfish may lack a specific type<br />

of sialytransferases k<strong>no</strong>wn as SIAT7, which could<br />

be a factor in why the clownfish do <strong>no</strong>t get stung.<br />

However, although SIAT7 was <strong>no</strong>t initially seen,<br />

that does <strong>no</strong>t mean it is <strong>no</strong>t there; rather it could<br />

indicate inactivation. Alternatively, clownfish may<br />

have SIAT7 in their ge<strong>no</strong>mes but may <strong>no</strong>t express<br />

it in the cells that make the external mucus. To<br />

test this, I am studying both symbiotic and closely<br />

related <strong>no</strong>n-symbiotic species to determine if SIAT7<br />

is present in these species. I hypothesize that SIAT7<br />

Deborah Dele-Oni<br />

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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

91<br />

will be present in both the symbiotic clownfish<br />

and <strong>no</strong>n-symbiotic closely related species but is<br />

inactive in the skin of symbiotic species. My goal<br />

was to test primers on tissues of anemonefish and<br />

closely related <strong>no</strong>n-symbiotic species to see where<br />

expression occurred.<br />

To accomplish these goals, I would:<br />

• Use degenerate PCR to obtain partial sequences<br />

of SIAT7 from symbiotic and <strong>no</strong>n-symbiotic<br />

fish species.<br />

• Use inverse PCR to determine the sequences of<br />

the regions surrounding the SIAT7 gene.<br />

• Use quantitative PCR to determine which tissues<br />

express SIAT7 in symbiotic and <strong>no</strong>n-symbiotic<br />

fish species.<br />

To approach this, I knew that SIAT7 had been identified<br />

in close relatives of clownfish. If primers were<br />

designed based from those sequences and added<br />

to DNA of symbiotic clownfish, there would be a<br />

product formed if the primers found complementary<br />

parts of the DNA. In the spring, I completed<br />

degenerate PCR to try to acquire partial sequences<br />

of SIAT7 from <strong>no</strong>n-symbiotic fish species. The<br />

degenerative primers were created from the bicolor<br />

damselfish (Stegastes partitus; Genbank accession<br />

XP_008298796.1), and PCR was done on cDNA samples<br />

from the ocellaris clownfish (Amphiprion ocellaris)<br />

and the <strong>no</strong>n-symbiotic Springer’s damselfish<br />

(Chrysiptera springeri) which is a close relative. The<br />

PCR yielded some products that are bright bands<br />

in the gel below (Figure 1.). The brighter the bands<br />

the more concentration of DNA, showing successful<br />

replication. These samples were then cleaned<br />

up and sent off for sequencing. The sequencing<br />

results were crosschecked with the NCBI database<br />

and the matches that appeared were <strong>no</strong>t of SIAT7.<br />

Instead they matched to other genes like protein<br />

FAM20A isoform X3 inform the Southern pig-tailed<br />

macaque or monkey (Macaca nemestrina) (Figure<br />

2.) or to bacterial genes like protein A2680_02525<br />

from the bacteria Candidatus kaiserbacteria. These<br />

sequencing results are the DNA of one of the bands<br />

from the failed attempt using degenerate PCR.<br />

These results indicate that our DNA in the degenerate<br />

PCR was <strong>no</strong>t successful at producing a partial<br />

part of the SIAT7 gene.<br />

Since the degenerate PCR primer was <strong>no</strong>t successful<br />

at yielding a partial sequence for SIAT7, a<strong>no</strong>ther<br />

approach to obtaining this sequence was taken.<br />

Marian Wahl, a graduate student in Dr. Robert Drew’s<br />

lab, had recently sequenced transcriptomes from<br />

several species of anemonefish and <strong>no</strong>n-symbiotic<br />

fish. Transcriptomes are all of the RNA that is<br />

made by genes of an organism. This is of interest<br />

because it shows exactly what is made and what will<br />

potentially be translated to proteins. This was <strong>no</strong>t<br />

available in the spring but became available early<br />

this summer. I redesigned primers for four species<br />

of anemonefish (list species) and <strong>no</strong>n-symbiotic fish<br />

(list species) to be used in the PCR. This provided me<br />

with a better chance of getting PCR product because<br />

the primers used in the PCR were designed from the<br />

exact species they would be testing in. Also, I would<br />

be able to see right away if SIAT7 was really present<br />

in the fish species because I would be checking


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Figure 1. Gel showing the results of degenerate PCR searching for SIAT7 in springers damselfish (chrisyptera springeri, CSP) and clarks<br />

clownfish (amphiprion clarkia, ACL) ge<strong>no</strong>mic (gDNA) and skin cDNA samples<br />

92<br />

their transcriptomes to see if it was present or <strong>no</strong>t.<br />

If SIAT7 was present, I would get a gene sequence<br />

from the transcriptomes.<br />

To do this a reference gene was identified from<br />

the bicolor damselfish (Stegastes partitus;<br />

XP_008298796.1). This reference gene was used to<br />

find matching sequences from the transcriptomes<br />

of the study species using Local BLAST. I found that<br />

SIAT7 appeared in all species transcriptomes that<br />

were checked. From this, I could say that SIAT7 is<br />

found in both symbiotic and <strong>no</strong>n-symbiotic species<br />

of fish. However, the specific tissue or tissues it is<br />

expressed in and to what extent was <strong>no</strong>t k<strong>no</strong>wn from<br />

this information.<br />

After going back to look at the specific gene sequences<br />

that were used to make the primers, there<br />

was evidence that SIAT7 across these species may<br />

be paralogs. Paralogs are genes that have evolved<br />

by duplication events, resulting in two copies of the<br />

gene in different locations of the ge<strong>no</strong>me. After<br />

duplication, these copies evolve independently, accumulating<br />

different mutations. After a long period,<br />

these paralogs may still encode for the same protein<br />

but can have very different DNA sequences. This is<br />

interesting to <strong>no</strong>te because it could be evidence that<br />

clownfish symbiosis caused this duplication event to<br />

occur. We found paralogs in the Clarks clownfish but<br />

<strong>no</strong>t in the other three species we tested, which were


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

93<br />

Figure 2. Sequencing results and BLASTx alignment for a sample. The BLAST results show a match with the protein FAM20A isoform X3<br />

with the Southern pig-tailed macque (Macaca nemestrina) which is a medium-sized monkey<br />

the staghorn damselfish (Amblyglyphidodon Curacao),<br />

the three spot damselfish (Dascyllus Trimaculatus),<br />

and the three stripe damselfish (Dascyllus<br />

Aruanus). We found this out by aligning the different<br />

transcripts that were gotten from the Local BLAST.<br />

When aligned I found that the Clarks clownfish<br />

transcripts with similar trinity numbers (numbers<br />

that appear after the letters “DN” in Figure 4.) were<br />

more closely related than the ones with dissimilar<br />

numbers. If the sequence used to make the primers<br />

were made using one paralog, other paralogs will <strong>no</strong>t<br />

be accounted for in the study and the PCR will <strong>no</strong>t<br />

yield consistent results.<br />

To account for paralogs, some bioinformatics was<br />

done to identify exactly where duplication events<br />

might have occurred and in what species. To do<br />

this, transcriptomes for the species of interest<br />

were identified and aligned to each other using<br />

computer programs such as MUSCLE, TranslatorX,<br />

and the NCBI Blast Website (Figure 4). When<br />

transcriptomes are aligned, the programs will put<br />

similar sequences together and dissimilar sequences<br />

further apart from each other. This figure<br />

highlights that species with the same sequences<br />

(samples with the same Trinity numbers) may be<br />

from the same gene. For example, the sequences<br />

DN83440 and DN<strong>18</strong>2523 from A. clarkii are probably<br />

paralogs but there are two copies of DN<strong>18</strong>2523


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

which are probably splice variants or have alternative<br />

transcription start sites.<br />

There is still much to do so I am continuing work<br />

on this project this fall. This figure will be updated<br />

to include some well-studied fish and re-rooted to<br />

provide more accurate results. Some cichlid fish<br />

are better understood in the evolution of fish, and<br />

using these as references for our SIAT7 sequences<br />

can provide me with some information on paralogs.<br />

Once paralogs are completely identified, more<br />

specific primers can be designed that will hopefully<br />

yield consistent PCR results. A<strong>no</strong>ther approach<br />

that will be taken is to align protein sequences.<br />

Right <strong>no</strong>w, the aligning that has been done has<br />

used cDNA sequences.<br />

From the work done this summer, I can say that<br />

SIAT7 is found in symbiotic and <strong>no</strong>n-symbiotic fish<br />

that I studied, indicating that clownfish did <strong>no</strong>t lose<br />

SIAT7 as part of the evolution of symbiosis with sea<br />

anemones. However, I detected evidence of gene duplication<br />

which introduced paralogs. Going forward,<br />

I seek to understand when these duplication events<br />

occurred and if they are related to the clownfish-sea<br />

anemone symbiosis. I am aiming to determine if the<br />

evolution of paralogs in SIAT7 allowed anemonefish<br />

to live symbiotically with anemones or if it is completely<br />

unrelated.<br />

The OUR summer research program has provided<br />

me with an opportunity to continue with a long-term<br />

research experience. I stepped out of my comfort<br />

94<br />

Figure 3. PCR Results using primers designed for Amphirion clarkii (ACL) species and Amblyglyphidodon curacao (AmCu) species


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

Figure 4. Phylogenetic tree of SIAT7 cDNA samples from Clark’s Clownfish (ACL), Three stripe domi<strong>no</strong> damselfish (DAR), Three spot<br />

domi<strong>no</strong> damselfish (DTR), and staghorn damselfish (AmCu)<br />

95<br />

zone and experienced new things in the lab and<br />

learned immensely from bioinformatics alone. Being<br />

able to get results from looking at gene sequences<br />

and databases on local computers, and searching<br />

national gene databases, I could answer one of<br />

my research questions without even picking up a<br />

pipette. As a biology student, I underestimated the<br />

wealth of information bioinformatics shows and<br />

how important it is to do these steps in research.<br />

Conducting experiments in the lab is rewarding, but<br />

interpreting the data, and understanding it is the<br />

main goal. Through this summer research experience,<br />

I learned to think about long term goals and<br />

the bigger picture. Having participated only in shortterm<br />

research experiences before, I was usually just<br />

thrown into a situation where I had to think quickly<br />

on my feet and do a series of experiments and interpret<br />

my immediate results. However, being at UMass<br />

during the summer, I could continue work I had<br />

started before. This allowed me to see what a longterm<br />

project entails. Data interpretation and relating<br />

results to a goal is something that I have strongly<br />

developed this summer. I feel much better prepared<br />

to pursue more long-term projects. I have developed<br />

myself as a critical thinker and a troubleshooter in<br />

my research and found a new appreciation for the<br />

study of bioinformatics.


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

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97


98


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

99<br />

Research in Mechanical<br />

Engineering<br />

A Remote Sensing Study of the<br />

Relationship between Density Fronts &<br />

Phytoplankton Blooms in the North Atlantic<br />

Samuel Filliettaz-Domingues ’<strong>18</strong>


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

My OUR Research for the summer of 2017 grant<br />

cycle concerned the Sea Surface Density gradients<br />

to Phytoplankton blooms in the North Atlantic. Phytoplankton<br />

have an effect on the marine ecosystem<br />

and climate change. To show a link in the North<br />

Atlantic between surface density of the ocean, its<br />

gradients, and phytoplankton blooms (rapid multiplication<br />

of phytoplankton), I analyzed sea surface<br />

temperature (SST) and chlorophyll (CHL) gradients<br />

taken from the Aqua/MODIS satellite for the years<br />

2011, 2012, and 2013. I sorted each day using an<br />

algorithm. Small gaps in the data were filled using<br />

interpolation. Contour and gradient plots were used<br />

to graphically show the relationship between SST<br />

and CHL. A database was created of <strong>no</strong>table days<br />

where the SST and CHL plots showed a strong link<br />

between the two. A<strong>no</strong>ther algorithm was used to<br />

try to show a trend between SST and CHL values<br />

throughout the year 2013, but the results were<br />

inconclusive. Although there are many other factors<br />

involved within the ocean that can alter ocean<br />

properties in a way that triggers a bloom, such as<br />

wind stress, data suggests that there are cases in<br />

the North Atlantic in which the CHL growths are<br />

predominantly formed by the SST gradients. This<br />

topic needs to be further analyzed to determine<br />

how frequently this relationship occurs.<br />

100


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

In sum, the objective of the research was to find out<br />

how related are the Sea Surface Density gradients<br />

and Phytoplankton blooms and whether this relationship<br />

is the reason why blooms are sometimes<br />

seen earlier than predicted between winter and<br />

spring time compared to other parts of the world.<br />

K<strong>no</strong>wing this can help ocea<strong>no</strong>graphers to better understand<br />

the North Atlantic. Computer simulations<br />

were conducted predicting that there is a relationship.<br />

And satellite data verified that it is indeed the<br />

case. The next step for this research would be to<br />

expand on what we found in terms of how frequent<br />

these density gradient induced blooms occur.<br />

My research experience during the summer was<br />

very informative. It gave me a glimpse into what lab<br />

work for Mechanical Engineers who go into physical<br />

ocea<strong>no</strong>graphy would consist of, as well as a new<br />

perspective on the complexity of ocean mechanics. I<br />

am grateful to the OUR for providing support for this<br />

project and to my advisor, Professor Amit Tandon, for<br />

supervising my research.<br />

101


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

102<br />

Poster of Filliettaz-Domingues’s research on a Remote Sensing Study of the Relationship between Density Fronts and Phytoplankton<br />

Blooms in the North Atlantic


103


104


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

105<br />

Research in Bioengineering<br />

Investigation of In Vitro Vitamin B6<br />

Treatment to Reverse Deterioration of<br />

Bone Mechanical Properties<br />

Jacob Aaronson ‘<strong>18</strong>


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

In the summer of 2017 I was granted a grant from<br />

the OUR to join Bioengineering Professor Dr. Lamya<br />

Karim’s lab and worked alongside undergraduate<br />

Bioengineering student John Riordan to conduct<br />

a research project concerning the testing of the<br />

properties of bone that were placed in a simulated<br />

diabetic environment. This was an interdisciplinary<br />

project that allowed us to work with techniques from<br />

bioengineering, mechanical engineering, biochemistry,<br />

and biology. Ever since I took a class in Biomechanics<br />

in the third year of undergraduate studies,<br />

I have been interested in exploring the mechanical<br />

properties of human body tissues such as bone.<br />

Through this OUR-funded project, I exercised this<br />

interest through hands on research and design.<br />

106<br />

Jacob Aaronson


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

107<br />

From previous research it has been found that<br />

patients with type 2 diabetes mellitus have an<br />

increased risk of bone fracture compared to <strong>no</strong>n-diabetics<br />

[1]. These patients have <strong>no</strong>rmal or high bone<br />

mass, which is typically beneficial for bone. This<br />

suggests factors other than bone mass, such as<br />

changes in bone quality, may play an important part<br />

in diabetic fractures. In this study, I looked at a possible<br />

method to inhibit harmful protein crosslinks<br />

that can accumulate in diabetic patients. I chose<br />

Vitamin B6 as the inhibitor because it showed<br />

promising results in rat bone [2]. However, it has<br />

never been tested in human bone. With this fact in<br />

mind, the goal of this project was to look at changes<br />

in protein crosslinks and mechanical properties of<br />

bone specimens after being placed in a simulated<br />

type 2 diabetic environment and to test how Vitamin<br />

B6 might prevent these changes.<br />

In the first part of this project, my main task was to<br />

work with human do<strong>no</strong>r bone (tibias or “shin bones”)<br />

that I cut and polished down to small testable sizes. I<br />

used a low-speed diamond blade saw and polishing<br />

machine to accomplish this task. Once all the specimens<br />

were ready, we then incubated them in control<br />

and type 2 diabetic environments (a chemical solution<br />

with ribose sugar) with and without Vitamin B6.<br />

The bone samples were incubated in these solutions<br />

for 10 days at 37ºC with pH maintained between 7.2<br />

and 7.6 to represent the human body environment.<br />

The second part of this project involved gathering<br />

data on the incubated bone specimens. When first<br />

looking at the post incubation samples, we saw a<br />

Jacob Aaronson (back) and John Riordan (front) making<br />

solutions for incubation of cortical bone specimens<br />

significant difference in color between ribose and<br />

control groups. Samples in ribose solutions were<br />

brown, which indicates a buildup of the protein<br />

crosslinks. Meanwhile control groups had <strong>no</strong><br />

significant color change. A biochemical assay was<br />

run to measure the crosslink content, and cyclic<br />

reference point indentation (RPI) tests were used<br />

to measure the mechanical properties of bone<br />

after incubation.


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

From the data, we did <strong>no</strong>t detect our expected<br />

differences in crosslinks or mechanical properties<br />

between the Vitamin B6 treated group compared to<br />

the <strong>no</strong>n-treated group. This may be due to our small<br />

sample size and/or the Vitamin B6 dose being too<br />

low. Although we did <strong>no</strong>t detect any differences from<br />

the hypothesized inhibitory effects of Vitamin B6, we<br />

did have other key findings:<br />

• In vitro incubation with ribose does increase<br />

AGEs (protein crosslinks) in human cortical bone.<br />

• Indentation tests showed there were deteriorated<br />

bone mechanical properties in a simulated<br />

diabetic state.<br />

• Bone specimens with higher crosslink contents<br />

had weaker mechanical properties.<br />

By continuing my work with the mechanical<br />

engineering department, more mechanical testing<br />

data was derived from the incubated cortical<br />

beams. Specifically, we performed microindentation<br />

tests on the samples to measure bone<br />

stiffness.<br />

We also carried out a<strong>no</strong>ther incubation of cortical<br />

beams to test the efficacy of different concentrations<br />

of Vitamin B6 combined with the same<br />

concentration of ribose. The small dose of Vitamin<br />

B6 used in the previous incubation appeared to<br />

have <strong>no</strong> effect on AGE inhibition so we decided to<br />

increase this parameter. Vitamin B6 concentrations<br />

of 0.5 mM and 5 mM were used due to their positive<br />

effects seen in a previous study (Booth et al., 1997).<br />

Since the 5 mM concentration shows promising<br />

results it is important to verify this in future studies.<br />

Therefore, the next step of this project is to confirm<br />

the correct amount of Vitamin B6 through additional<br />

incubations followed by mechanical testing, chemical<br />

testing, and structural analysis. Specifically,<br />

108<br />

Diamond blade saw used to cut bone beams<br />

Cortical beams treated with ribose (top) and cortical beams<br />

treated with <strong>no</strong> ribose or vehicle group (bottom)


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

There was a trend for higher indentation distance (represnting weaker mechanical properties) and significantly more crosslinks in<br />

the ribose treated group (R) compared to vehicle controls (VEH)<br />

109<br />

we would like to carry out bending tests because<br />

they will give a more complete understanding of<br />

how the mechanical properties of samples change<br />

after incubation. We also plan on measuring specific<br />

AGEs, such as pentosidine, in our assays so that we<br />

can analyze the exact AGE chemical structures that<br />

are forming. Lastly, we hope to apply imaging techniques<br />

such as microCT analysis in order to measure<br />

microdamage in samples. A long-term goal for this<br />

project is to utilize our accumulated understanding<br />

of Vitamin B6 on the inhibition of AGEs in vitro to<br />

establish reason for animal model testing.<br />

From this experience, I have learned that research<br />

Samples treated with ribose had a lower elastic modulus (measure of stiffness) compared to the control group. This trend was seen<br />

across all age groups (57-87 years)


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

projects require countless amounts of planning, organization,<br />

and collaboration. I am thankful that I have<br />

developed these types of qualities during my time as<br />

an undergraduate researcher. My plan is to apply this<br />

research experience to graduate school, industry, and<br />

everyday life. Working on projects that are aimed to<br />

help restore health to many people will be something I<br />

always find highly motivational and invaluable.<br />

I would like to thank the Office of <strong>Undergrad</strong>uate<br />

Research for presenting me with this highly<br />

sought-after opportunity. I would also like to thank<br />

Dr. Lamya Karim, Rachana Vaidya, Taraneh Rezaee,<br />

Kelly Merlo, John Riordan, and the Mechanical and<br />

Civil & Environmental Engineering departments for<br />

all the help carrying out this project.<br />

110<br />

Results from the most recent incubation where two different concentrations of Vitamin B6 were used (0.5 mM and 5 mM). The 5<br />

mM concentration seems to have a considerable effect on the number of AGEs when compared to the ribose treated group (R)<br />

Refrences<br />

1.<br />

2.<br />

3.<br />

A. Ashley Booth, Raja G. Khalifah‡, Parvin Todd, and Billy G. Hudson. (1997.) “In Vitro Kinetic Studies of<br />

Formation of Antigenic Advanced Glycation End Products (AGEs),” The Journal of Biological Chemistry<br />

272 (9). Pp. 5430–5437.<br />

M. Janghorbani et al. (2007), “Systematic Review of Type 1 and Type 2 Diabetes Mellitus and Risk of<br />

Fracture,” American Journal of Epidemiology <strong>16</strong>6 (5/1). doi.org/10.1093/aje/kwm106<br />

M. Saito, Fujii, K., Mori, Y., & Marumo, K. (2006), “Role of collagen enzymatic and glycation induced<br />

cross-links as a determinant of bone quality in spontaneously diabetic WBN/Kob rats,” Osteoporosis<br />

International 17(10). doi:10.1007/s00198-006-0155-5


111


112


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

113<br />

Research in Art History &<br />

Curatorial Studies<br />

Artistic Responses to Presidential Elections<br />

& other Political Challenges<br />

Mariah Tarenti<strong>no</strong> ‘<strong>18</strong>


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

The United States has a rich history of politically<br />

motivated art, from the first political cartoons of<br />

the American Revolution to the socially conscious<br />

artists involved in civil rights movements of the<br />

1950s and 60s and leading up to works of today<br />

disseminated on social media and as street art. In<br />

1972 Andy Warhol created “Vote McGovern” for the<br />

George McGovern Presidential campaign. Rather<br />

than portraying McGovern, Warhol decided to<br />

represent his opponent in a negative light. During<br />

the 2008 elections, the Barack Obama “Hope” poster–designed<br />

by the re<strong>no</strong>wned graffiti artist Shepard<br />

Fairey–was widely described as iconic and came<br />

to represent the 2008 presidential campaign. The<br />

image became one of the most important aspects of<br />

Obama’s campaign messages, and arguably affected<br />

the perception of Obama in a positive way. By<br />

contrast, graffiti art and posters of President-elect<br />

Donald Trump, produced by designers and graffiti<br />

artists, were largely negative. Why do artists react to<br />

114<br />

Mariah Tarenti<strong>no</strong>


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

presidential elections? How does art affect the decision<br />

of voters? What can we learn from these artistic<br />

interventions? By looking at the trajectory of these<br />

artistic responses, we can better understand the<br />

relationship between art and politics: the ways in<br />

which art making can have an impact on the general<br />

public and how art becomes a tool of resistance for<br />

political dissidents.<br />

115<br />

In the 20<strong>16</strong>-17 polarized election cycle in the US,<br />

artists used their platforms to make a stand for their<br />

beliefs. The political art of the past year has come<br />

to the forefront of protests, awareness campaigns<br />

and the like. This art has focused on a wide range of<br />

themes, from women’s rights, racial justice, LGBTQ+<br />

rights, and criticism of the eco<strong>no</strong>my, to foreign policy,<br />

and politicians themselves.<br />

These depictions of political issues have clear and<br />

cutting messages. Through examining the works of<br />

artists, one can gain greater insight into the current<br />

unrest within our nation. And by analyzing what<br />

makes political art effective in its goals, artists can<br />

gain greater understanding of how to successfully<br />

use their skills to become an activist who is engaged<br />

in the society.<br />

My fascination with the topic of artistic responses to<br />

presidential elections and other political challenges<br />

is owing to my interest in art and activism. I major<br />

in Art History with a mi<strong>no</strong>r in Women’s and Gender<br />

Studies. In the past three years, I have been a<br />

student employee at the Center for Women, Gender,<br />

and Sexuality (CWGS) at UMass Dartmouth. During<br />

Shepar Fairy’s “Hope.” Courtesy of Wikimedia Commons<br />

my time at CWGS, I have been involved in multiple<br />

projects, including facilitating bystander intervention<br />

training and organizing awareness campaigns<br />

for issues like street harassment, domestic violence,<br />

and sexual assault. Additionally, I have had the opportunity<br />

to attend conferences on reproductive justice,<br />

which instilled in me a sense of civic duty and<br />

activism. In April 2015, I combined my passion for art


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

and social issues through an exhibition featuring the<br />

art of sexual violence survivors. Through this exhibition<br />

process, I saw firsthand the power that art has<br />

to convey powerful messages. I have seen this again<br />

in the current political climate. As the University of<br />

Massachusetts has a respected art college and a<br />

strong sense of civic and community engagement, it<br />

seems appropriate to conduct research on the topic<br />

of art as activism and the role of the artist as an<br />

activist. In what follows, I provide a summary of my<br />

research, which was supported by a generous fund<br />

from the OUR, granted to me in Spring 2017.<br />

20<strong>16</strong> was a year of rising socio-political tensions,<br />

which the election only seemed to bring to a boiling<br />

point. Between the Dakota Access Pipeline, Flint,<br />

Michigan, still in need of clean water, arguments of<br />

religious freedom and gay rights, the disenchantment<br />

of the working class, and the ever-growing<br />

list of in<strong>no</strong>cent Black Americans killed at the hands<br />

of police—everyone seemed in agreement that<br />

something had to give, but few agreed on what. The<br />

country held its breath as election results trickled<br />

in and collectively exhaled, some in relief and some<br />

in shock, when Mr. Trump became President Trump.<br />

In all this unrest and apprehensiveness, art found<br />

itself in the center of the conversation.<br />

Art worked to facilitate debate and convey<br />

messages, and it varied as much as the issues<br />

it attempted to address. It was seen on protest<br />

signs, in art museums, and on the internet. However,<br />

the common thread appeared to be that the<br />

art made use of appropriation and irony to convey<br />

its messages; it referenced images and messages<br />

of the oppressor, in part to illuminate the wrongs<br />

and in part to reclaim the very same images. Saint<br />

Hoax’s Make America Misogynistic Again is a<br />

prime example in this vein.<br />

1<strong>16</strong><br />

Left: Andy Warhol’s “Vote McGovern.” Courtesy of MOMA. © 20<strong>18</strong><br />

Andy Warhol Foundation for the Visual Arts / Artists Rights Society<br />

(ARS), New York. Screen-shot taken from<br />

www.moma.org/collection/works/68705<br />

I was most interested in the protest images that<br />

came out of the election and inauguration. My<br />

OUR funded research consisted of two parts: (1) a<br />

research paper that examined this political art and<br />

attempted to place it in a broader historical context;<br />

(2) an exhibition of local artists’ works regarding the


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

117<br />

20<strong>16</strong> elections. The Frederick Douglass Unity House<br />

at UMass Dartmouth was gracious e<strong>no</strong>ugh to host<br />

my exhibition (The Art of Resistance). The goals and<br />

values of the Unity House in creating discussion,<br />

providing support, and educating the community<br />

aligned perfectly with my goals for this exhibition.<br />

My show facilitated a dialogue at a time when<br />

political issues affected our campus community and<br />

other surrounding communities we all belong to. It<br />

also gave students a platform to discuss politics in<br />

unique and creative ways. In my call to artists, I tried<br />

to keep submission guidelines as open as possible.<br />

I hoped that the exhibit would inspire and empower<br />

others to act, be it through art, protest, calling<br />

representatives, or other avenues. The exhibition<br />

took place in mid-April and featured the works of<br />

students Ashley Lima, Joel Rivera, Grace Augello,<br />

Shan<strong>no</strong>n Morrell, and Chloe Bartlett, and alumnus<br />

Johnus Derby. It included photographs, paintings,<br />

digital works, and protest signs. The diversity of<br />

the works on display was a small glimpse into the<br />

diversity of works by artists around the country.<br />

capacity as the president of the Art History Club, I<br />

was responsible for organizing this year’s symposium,<br />

which required coming up with a theme.<br />

The research grant from the OUR also allowed me to<br />

advance my career goals by enabling my extra-curricular<br />

activities in the Department of Art History<br />

and I am grateful for that. The funding facilitated a<br />

professional exhibition with ample publicity. It also<br />

provided support for my research at key libraries in<br />

the greater Boston area. I intend to attend graduate<br />

school in curatorial and museum studies. Eventually,<br />

I’d like to pursue a career in curation, featuring the<br />

works of artists who focus on challenging social and<br />

political issues.<br />

Additionally, I wrote a paper analyzing works from<br />

all election cycles from 20<strong>16</strong> back to Nixon. The<br />

paper revealed trends <strong>no</strong>t only in art, but also in<br />

politics; through multiple case studies I discussed<br />

the ways in which artists and creative agents have<br />

approached political issues and described how they<br />

have chosen to agree or disagree. The research conducted<br />

for this paper allowed me to craft a theme<br />

for the 2017 UMass Dartmouth Art History Annual<br />

<strong>Undergrad</strong>uate Symposium: Art and Activism. In my


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

1<strong>18</strong><br />

Poster of “The Art of Resistance,” a juried show designed and curated by Mariah Tarenti<strong>no</strong>


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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

121<br />

Research in Political<br />

Science<br />

Voter Decision-Making in Low<br />

Information Elections<br />

David Borgesn ‘<strong>18</strong>


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

An astonishing number of elections in the United<br />

States occur at the local level. Because of various<br />

factors, these elections are low-tur<strong>no</strong>ut and low-information<br />

affairs. Frequently, regarding these local<br />

elections, the general electorate is woefully uninformed,<br />

and certain variables available to voters in<br />

more high-profile elections are unavailable to voters.<br />

Regardless, voters still head to the polls to cast their<br />

votes for candidates running for various positions in<br />

their local municipality.<br />

While much research has been dedicated to evaluating<br />

voting determinants in higher profile elections,<br />

like those concerning presidential, senatorial, and<br />

congressional contests, little has been dedicated<br />

to studying the more local level. Considering the<br />

magnitude and frequency at which local elections<br />

occur, Professors Shan<strong>no</strong>n Jenkins and Doug Roscoe<br />

decided to study how voters in low-information, local<br />

elections make their decisions. Thus, I was asked to<br />

spend time over summer break to help in this study<br />

and sought OUR funding to do so.<br />

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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

Alongside Professors Jenkins and Roscoe, I was<br />

involved in multiple aspects of conducting research,<br />

including data collection, inputting data into SPSS,<br />

conducting a literature review, formulating hypotheses,<br />

looking for patterns in the data, and finally<br />

obtaining results and reaching conclusions. The<br />

work was originally prepared for and presented at<br />

the 20<strong>16</strong> New England Political Science Association<br />

Conference and was just recently published in the<br />

New England Political Science Association Journal.<br />

process. This experience has been extremely valuable<br />

to me, thanks to the OUR. Partaking in research<br />

provides undergraduate students with so many ways<br />

to explore their interests and bring their educational<br />

experience to a higher level.<br />

123<br />

Participating in this OUR funded project was a<br />

worthwhile endeavor. I have been able to use what I<br />

learned from this research both professionally and<br />

personally. Living in a small town with a similar form<br />

of government as in the one we studied, I can apply<br />

findings from our research to my own community.<br />

Being interested in politics, I have and will continue<br />

to be involved in local politics in my hometown. I can<br />

use what I learned to help impact my community in a<br />

meaningful way. Understanding who votes and how<br />

they decide whom to vote for in these local, low-information<br />

elections is a significant advantage.<br />

Finally, by participating in this project I was able<br />

to work with two seasoned and distinguished<br />

researchers, thus learning the process of developing<br />

and implementing research much more thoroughly.<br />

Learning about the process in class is one thing, but<br />

it is a whole new experience to actually carry out the<br />

The poster of the 20<strong>16</strong> New England Political Science Association<br />

Conference, where Borges presented the final results of his<br />

research in conjunction with his supervisors


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Sample data analysis from Borges’s research<br />

124<br />

Screenshot of Borges’s publication in The New England Political Science<br />

Association Journal


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126


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

Research in Music<br />

Spheres of Influence<br />

John Dalton ‘<strong>18</strong><br />

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Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

My four years at the University of Massachusetts<br />

Dartmouth have been a personal artistic journey–a<br />

journey of self-examination, developing <strong>no</strong>t only as<br />

a musician but as an in<strong>no</strong>vator and a researcher.<br />

Throughout this journey I have constantly asked myself:<br />

Who am I as an artist? What should I do to find<br />

my own unique, creative voice? These are, of course,<br />

never ending questions. But for <strong>no</strong>w I can say that<br />

being at UMD’s Music Department has given me a<br />

foundation to pursue a career in music that is more<br />

than just a performer. It is a career that is combined<br />

with research and in<strong>no</strong>vation.<br />

128<br />

Every senior music student is required to put on a<br />

recital to showcase what they have accomplished<br />

in their time at the university. As an ho<strong>no</strong>rs student,<br />

I knew I had to aim for something more ambitious.<br />

Therefore, I decided to put together a group of <strong>no</strong>t<br />

only my peers, but of professional musicians and<br />

one of my Professors. The group includes current<br />

John Dalton during performance. Photograph courtesy of Dan<br />

Waterman


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

129<br />

students (myself and Caitlin Walsh), two alumni<br />

(Miles Flisher and Sean Farias), and one of my<br />

professors (Jim Robitaille). This is a quintet that<br />

consists of saxophone (Caitlin), guitar (Jim), pia<strong>no</strong><br />

(Miles), bass (Sean), and drums (myself). Bringing<br />

together this group of people required <strong>no</strong>t only<br />

research and coordination, but also financial support.<br />

Thanks to a grant from the OUR I successfully<br />

executed this complicated project.<br />

As a jazz musician one makes the decision to throw<br />

themselves into a continuum– the rich and vast<br />

legacy of many creative minds who advanced this<br />

form of music. I am interested in creating new jazz<br />

music and finding my own personal approach to<br />

both improvisation and composition. In doing so,<br />

I get inspired by many sources of influence. At my<br />

core, I am intrigued by the post-bop traditions of the<br />

1960’s, which includes such artists as John Coltrane,<br />

Wayne Shorter, Joe Henderson, Herbie Hancock,<br />

McCoy Tyner, and Eric Dolphy. I have also begun to<br />

draw inspiration from successful contemporary jazz<br />

musicians, including Brad Mehldau, Donny Mc-<br />

Caslin, and Kneebody. Also, as a jazz drummer, I am<br />

inspired by masters of the instrument such as Elvin<br />

Jones, Roy Haynes, Jack Dejohnette, Tony Williams,<br />

Bob Moses, Paul Motian, Brian Blade, Jorge Rossy,<br />

Nate Wood, Mark Guiliana, as well as local drummers<br />

Luther Gray and Chris Poudrier. These influences<br />

continue to color my approach as I try to reach<br />

for something that is uniquely my own expression. To<br />

achieve this goal, I have created a group under the<br />

moniker of Spheres of Influence.<br />

Spheres of Influence is my own modular ensemble,<br />

which aims to perform both my own music and the<br />

music that I resonate with. A Sphere of Influence is an<br />

international relations term which de<strong>no</strong>tes the region<br />

in which one nation holds power or influence. I decided<br />

to co-opt this term for my own work as the name<br />

allows for the group to be modular. Each group under<br />

this moniker represents its own sphere and its own<br />

artistic place, thus changing the influences made by<br />

other groups. In improvised music the range of individual<br />

players in any particular configuration can change<br />

the nature of the music. What unifies the concept<br />

though is the overall character of the music played by<br />

the whole group. The music is always guided by certain<br />

aesthetic principles–principles that are universal between<br />

different iterations. My vision for this group was<br />

to put on a free public concert in the College of Visual<br />

and Performing Arts’s main auditorium, showcasing a<br />

program of primarily original jazz compositions. The<br />

performance was also recorded and released as a<br />

high-quality video (view it above). While this concert<br />

was a collaborative effort between many musicians, a<br />

great deal of individual work went into it.<br />

John Dalton’s Spheres of Influence during performance


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Rehearsal at the College of Visual and Performing Arts’s main auditorium. Photograph courtesy of Dan Waterman<br />

130<br />

Perhaps the best place to start describing my individual<br />

contribution, is the work I put in practicing my<br />

instrument. I also practiced particular material for<br />

this recital and this ranged from different grooves<br />

and time feels to soloing ideas. I had been thinking<br />

about the general idea of the recital in my practicing<br />

for some time, but there were still many concrete<br />

steps that I had to take.<br />

Many of these steps taken have occurred in <strong>no</strong><br />

particular order (in fact, they were often simultaneous).<br />

But I have compiled and listed them here in a<br />

fashion that makes sense in a chro<strong>no</strong>logical order.<br />

The first step I took was figuring out which musicians<br />

I wanted to work with. I knew right away that I<br />

wanted to have both Miles Fisher and Caitlin Walsh<br />

on the program, as they are two of my closest friends<br />

and collaborators. I also knew, pretty early on, that<br />

I wanted to have my professor and project advisor,<br />

Jim Robitaille. Professor Robitaille is a master musician<br />

who has worked with many talented musicians,<br />

in addition to being an excellent player and composer<br />

himself. I wanted to use this opportunity to<br />

collaborate and perform with him. Finally, I decided<br />

to hire Sean Farias to round out the group because<br />

he has an excellent reputation in the Boston area as<br />

a musician.<br />

I also put a great deal of effort into writing and<br />

arranging some of the pieces. In this concert four of<br />

the nine tunes are my own compositions, including<br />

two new pieces I had written over the summer. I also


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

131<br />

had to compile the other pieces for the group, which<br />

included three more original compositions (each<br />

written by separate members of the group and two<br />

covers). During this process, I also thought about how<br />

the pieces should be arranged, according to both my<br />

tastes and the tastes of my fellow musicians.<br />

After these preliminary stages, I began to figure out<br />

the details for booking the space. I decided to use<br />

the main auditorium as I felt it would be an appropriate<br />

venue for the musicians I had chosen. In this<br />

stage I also started to work on assembling promotional<br />

materials, which included designing a poster,<br />

as well as contacting various promotional outlets<br />

(for both inside and outside of the school). During<br />

the process, I came across the OUR grant opportunities,<br />

and decided to apply. I was lucky e<strong>no</strong>ugh to<br />

be awarded a generous amount that helped support<br />

part of the recital and the research that went into<br />

the making of this music.<br />

The next item on the agenda was organizing two<br />

rehearsals. Due to the busy schedules of the chosen<br />

musicians, I booked two rehearsals in October, well<br />

in advance. The first rehearsal was an interesting<br />

experience; it was my first time directing a group<br />

like that. It was especially strange having to give<br />

directions to Professor Robitaille and Sean, due to<br />

their reputations and stature as musicians. In the<br />

second rehearsal I was able to better ascertain my<br />

bearings and give more clear instructions. It was a<br />

great experience, as I learned to examine the group<br />

sound, and make sure that people were playing their<br />

parts. It was also interesting to experiment with<br />

different ensemble textures, which I felt needed to<br />

be worked in, making sure that pieces had a certain<br />

flow to them. If this were a more regularly working<br />

group, these sorts of textures and dynamics would<br />

<strong>no</strong>t need to be said, as they could be formed spontaneously.<br />

However, due to time constraints it was the<br />

most logical choice.<br />

The day of the concert was very gratifying. Playing with<br />

musicians of this caliber is <strong>no</strong>t only exciting, but also<br />

educational. There is also a level of comfort and trust;<br />

and this gives an amazing feeling. Indeed, this is part of<br />

the beauty of this kind of art form. Jazz is a communal<br />

experience, and the relationships one has with other<br />

musicians has an impact on one’s own musical style.<br />

When there is a deep connection between musicians, it<br />

can be felt in the way they play together.<br />

A<strong>no</strong>ther interesting facet of this performance was<br />

the extent to which the results were different from<br />

my own personal expectations. Many of the solos<br />

took on different directions than what I had anticipated.<br />

I really enjoyed this aspect of the project, as<br />

it is those unexpected turns that bring about some<br />

of the most powerful moments in improvising. Of<br />

course, sometimes these risks don’t pay off, but they<br />

have to be done as part of the process. The thrill of<br />

improvising when everything comes together makes<br />

the process worth the risk of things <strong>no</strong>t working out.<br />

This performance was positively received by both<br />

my peers and mentors, which I greatly appreciate.<br />

My greatest achievement was that I inspired some of<br />

the younger musician peers at the University to work


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

hard and diligently at their craft. Throughout the<br />

process of researching and developing this music, I<br />

learned that my art can be a positive force for change<br />

in the world– whatever that may be: from advocacy<br />

to suggestion of a better future, or even making<br />

someone’s day a little better. I hope that this concert<br />

can also contribute to my future research on the<br />

development of improvised music. I look forward to<br />

searching for new sounds, while also pay homage to<br />

those that came before me. Above all, I hope that my<br />

music will continue to build upon the rich foundation<br />

that I, and many others here at UMass Dartmouth,<br />

draw inspiration from.<br />

As far as future plans, I would like to make this<br />

a regular, working group. Upon receiving the recordings,<br />

I was very pleased with the overall group<br />

chemistry, but I believe that this group could become<br />

a more cohesive unit. I felt that the performances<br />

ran into errors that would <strong>no</strong>t be an issue if we were<br />

a group that played more regularly. Because of this, I<br />

would like to perform with this iteration of the group<br />

whenever the opportunity arises. Additionally, I<br />

would like to start making inroads in the Boston jazz<br />

scene, performing with as many different musicians<br />

as possible– both as a leader and sideman. Overall,<br />

I am very happy with how this concert turned out.<br />

It was an ho<strong>no</strong>r playing with gifted colleagues and<br />

mentors, and I hope to do it again in the near future.<br />

132<br />

Spheres of Influence in action. Photograph courtesy of Dan Waterman


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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

135<br />

Research in Social Psychology<br />

Researching the Psychosocial Well-Being of<br />

Siblings of Children with Disabilities<br />

Catrina Combis ‘17 Ho<strong>no</strong>rs


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Through UMass Dartmouth Ho<strong>no</strong>rs Program and<br />

thanks to a research grant from the OUR, I launched<br />

a research study titled “The Relationship Between<br />

Having a Sibling with a Developmental Disability<br />

and Indicators of the Typically Developing Sibling’s<br />

Psychosocial Well-Being.” While brainstorming ideas<br />

in an introductory Psychology class at the beginning<br />

of my research process, I immediately thought of my<br />

own sibling. My sibling was diag<strong>no</strong>sed with anxiety<br />

and depression while we were both in high school,<br />

and the consequent unusual behaviors greatly impacted<br />

all of our lives. As a Psychology major I strove<br />

to learn more about my sibling’s diag<strong>no</strong>ses, and<br />

decided to dedicate my professional life to children<br />

with developmental disabilities.<br />

Left to right: Ramzy Rajeh, Kimberly Schoener, Dr. Christina<br />

Cipria<strong>no</strong>, and Catrina Combis. Rajeh and Schoener help code<br />

Combis’s interviews and Dr. Cipria<strong>no</strong> is Combis’s supervisor<br />

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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

137<br />

The purpose of my OUR-funded research is to<br />

determine how having a sibling with a developmental<br />

disability impacts a typically developing sibling<br />

(TDS). Once concluded, this research will help fill<br />

the gap in the current k<strong>no</strong>wledge about the TDS’s<br />

psychosocial well-being as well as other factors, including<br />

the relationship they have with their parents.<br />

It is essential to understand the relationship between<br />

the siblings in order to comprehend how that<br />

relationship affects the development and life of the<br />

TDS. The research will also highlight the indicators<br />

of the TDS’s psychosocial well-being.<br />

When a member of a family receives a medical<br />

diag<strong>no</strong>sis, it can have layers of impact on the larger<br />

family unit. Siblings of children with developmental<br />

disabilities are a classically understudied population.<br />

Only recently has there been a rise in studies on<br />

siblings of children with developmental disabilities<br />

(Stoneman, 2005). Sibling relationships are one of the<br />

most significant relationships that humans develop<br />

and are strongly related to psychosocial adjustment<br />

(Pollard, Barry, Freedman, & Kotchick, 2013). Although<br />

much is k<strong>no</strong>wn about the impact and trajectory of the<br />

child with a developmental disability, less is k<strong>no</strong>wn<br />

about their siblings.<br />

Developmental disability is operationalized in this<br />

research as they are described in the Individuals<br />

with Disabilities Education Act (IDEA). The IDEA<br />

federally mandates that schools serve the educational<br />

needs of eligible students with disabilities<br />

and ensures students with disabilities have access<br />

to a free and appropriate public education (FAPE). It<br />

includes a diag<strong>no</strong>sis of Autism Spectrum Disorder<br />

(ASD), Intellectual Disability, Multiple Handicap,<br />

Emotional-Behavioral Disorder, and Learning Disability.<br />

Typical development is operationalized as the<br />

absence of an IDEA designation. Under the direction<br />

of Dr. Christina Cipria<strong>no</strong>, Assistant Professor in the<br />

Psychology Department, I submitted and received<br />

IRB approval to compile a list of psycho-educational<br />

batteries alongside my own developed questionnaire,<br />

to assess TDS mental health and well-being<br />

in the community. Using the Qualtrics platform,<br />

I recruited and surveyed participants, and then<br />

randomly selected a proportion of participants to<br />

take part in an information gathering interview. I am<br />

currently analyzing the Qualtrics and interview data<br />

using a mixed-methods approach. These include<br />

descriptive and inferential analyses, and open<br />

coding for themes. I will be presenting my findings<br />

at the Annual Meeting of the Council for Excepional<br />

Children (CEC) in Boston this Spring and will be writing<br />

up my findings for publication in a peer-reviewed<br />

psychology journal.<br />

I have always enjoyed spending my time with<br />

children since my teenage years and this interest<br />

has been furthered by the professional connections<br />

I have developed during my undergraduate education:<br />

While a student at UMass Dartmouth, I have<br />

worked for and interned for various organizations<br />

involving children. I worked for the America Reads<br />

Program through UMass Dartmouth’s Leduc Center<br />

for Civic Engagement where I tutored and mentored<br />

students in schools and after school programs in<br />

Fall River and New Bedford. I also interned with the


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

South Coast Autism Center where I modeled social<br />

skills for young boys with Autism and learned a lot<br />

more about Autism through observing and interacting<br />

with many children. I am currently interning<br />

with Horizons for Homeless Children where I play<br />

and interact with homeless children in homeless<br />

shelters that have established therapeutic play<br />

spaces. As an undergraduate student, I have also<br />

worked for two professors, Dr. Christina Cipria<strong>no</strong><br />

and Dr. Meredith Dove, on their respective research<br />

studies. Dr. Cipria<strong>no</strong>’s research is on the Recognizing<br />

Excellence in Learning and Teaching (RELATE)<br />

tool for special education classroom observation.<br />

Dr. Dove’s research is on nutrition and physical<br />

activity in childcare settings. My experiences with<br />

children along with the research opportunities at<br />

UMass Dartmouth, have formed my professional<br />

trajectory. Right <strong>no</strong>w I am in the process of preparing<br />

my applications for graduate school and I look<br />

forward to pursuing a career in supporting children<br />

and their families.<br />

138<br />

Refrences<br />

1.<br />

2.<br />

Pollard, C. A., Barry, C. M., Freedman, B. H., and Kotchick, B. A. 2013. “Relationship Quality as a<br />

Moderator of Anxiety in Siblings of Children Diag<strong>no</strong>sed with Autism Spectrum Disorders or Down<br />

Syndrome.” Journal of Child and Family Studies 22 (5), 647-657. doi:10.1007/s10826-012-96<strong>18</strong>-9<br />

Stoneman, Z. 2005. “Siblings of Children with Disabilities: Research Themes.” Mental Retardation 43 (5),<br />

339-350.


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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

141<br />

Research In Mathematics<br />

Strong Stability Preserving Sixth Order<br />

Two-Derivative Runge–Kutta Methods<br />

Gustavo Franco Rey<strong>no</strong>so ‘17


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

In the summer 20<strong>16</strong> I joined Professor Sigal<br />

Gottlieb and PhD student Zachary Grant in their<br />

Computational Mathematics research on “Strong<br />

Stability Preserving Sixth Order Two-Derivative<br />

Runge-Kutta Methods.” It was a great experience<br />

that has helped me understand my abilities and<br />

my interests. Before I explain the project, I would<br />

like to go back in time to provide some background<br />

information about my research.<br />

142<br />

Gustavo Franco Rey<strong>no</strong>so


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

143<br />

When I first started taking Computational Mathematics<br />

curriculum courses back in 2012, I never<br />

thought research is what I wanted to do. In 2012 I<br />

joined a class called CSUMS that was centered on<br />

independent undergraduate research. Even though<br />

I enjoyed the class, research was <strong>no</strong>t on my mind.<br />

Eventually, I started taking higher level classes and<br />

realized that research was the base of everything I<br />

did, whether it be in my Civil Engineering classes or<br />

in my Math classes. Subsequently, I decided to do<br />

research independent of classwork.<br />

This past summer I approached Dr. Gottlieb to see<br />

if she would let me join her research group. She<br />

warmly accepted and started to instruct me in the<br />

topics I needed to learn. This was just the start.<br />

Shortly thereafter an OUR summer grant enabled<br />

me to work with Dr. Gottlieb on a research titled<br />

“Strong Stability Preserving Sixth Order Two-Derivative<br />

Runge-Kutta Methods.” Hyperbolic partial<br />

differential equations (PDEs) describe a wide-range<br />

of physical phe<strong>no</strong>mena in a variety of fields, such as<br />

aeronautics, ocea<strong>no</strong>graphy, and astrophysics. These<br />

equations describe solutions that have wave-like<br />

behavior, such as fluid flows and gravitational<br />

waves. In many cases, the physical behavior of this<br />

phe<strong>no</strong>me<strong>no</strong>n and the related solutions to the hyperbolic<br />

PDE develop sharp gradients or discontinuities.<br />

In such cases, the numerical methods used to<br />

approximate the solutions in space and evolve them<br />

forward in time need to be very carefully designed<br />

so they can handle the discontinuities and remain<br />

stable and accurate.<br />

The design of high order Strong Stability Preserving<br />

(SSP) time-stepping methods that are advantageous<br />

for use with spatial discretizations and that have<br />

<strong>no</strong>nlinear stability properties needed for the solution<br />

of hyperbolic PDEs with shocks, has been an<br />

active area of research over the last two decades. In<br />

particular, the focus has been to design high order<br />

methods with large allowable time-step. SSP methods<br />

in the multistep and Runge-Kutta families have<br />

been developed. However, these methods have order<br />

barriers and time-step restrictions. The focus of this<br />

project was to develop new SSP time discretizations<br />

by further exploring the class of multi-derivative<br />

Runge-Kutta methods.


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

My main job at the beginning was to derive the<br />

order conditions needed to design higher order<br />

multi-derivative methods. I derived the two derivative<br />

Runge-Kutta order conditions up to 6th order<br />

using what is k<strong>no</strong>wn as Butcher trees. Just the one<br />

derivative derivation had 37 trees, after including<br />

the second derivative, it increased tremendously.<br />

Some trees had around 15 sub-derivations; this was<br />

a tedious job that taught me a lot on how to be efficient<br />

and optimal. After deriving all the order conditions,<br />

they had to be included into a code that finds<br />

numerically optimal multi-derivative Runge-Kutta<br />

methods and tests these methods for accuracy and<br />

for the sharpness of the SSP condition on test problems<br />

used previously in the SSP field. We were able<br />

to find methods that gave us sixth order accurate,<br />

and after doing so we found that there are 7th order<br />

methods that work as well. This experience led me to<br />

realize how I want to further my education. Thanks to<br />

a summer grant from the OUR as well as help from<br />

Dr. Gottlieb and Zack Grant, I have decided to pursue<br />

a PhD at UMD in Engineering and Applied Science.<br />

This will be an amazing experience and I very much<br />

look forward to it. To all students out there who have<br />

yet to find the beauty hidden in the intricate curiosity<br />

that some call research, I recommend that you get<br />

involved in research as soon as possible. If you find<br />

that you don’t like it, it is easy to get out; but, if you<br />

find it luring and attractive, you will feel like you have<br />

lost time <strong>no</strong>t doing it earlier. Research is <strong>no</strong>t boring,<br />

as many students might think. It is challenging<br />

and never definitive or mo<strong>no</strong>to<strong>no</strong>us. You’re always<br />

learning something new. Even if you try it once and<br />

don’t like it, you could still try it again, because there<br />

are so many topics unexplored that you are bound to<br />

find something you find interesting.<br />

I’d like to leave you with this quote by the American<br />

biochemist and peace activist, Linus Carl Pauling:<br />

“Satisfaction of one’s curiosity is one of the greatest<br />

sources of happiness in life.”<br />

144


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146


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

147<br />

Research In Biochemistry<br />

Studying the Potential Applications of<br />

Dipeptide Na<strong>no</strong>materials<br />

Lisa Perreault ‘17 Ho<strong>no</strong>rs


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

I jumped headfirst into computational chemistry<br />

research at the end of my sophomore year by<br />

joining the Mayes Research Group, which focuses<br />

on computational and theoretical chemistry. Now,<br />

about three years later, I have used this research<br />

experience to graduate with my Bachelor’s degree<br />

in Chemistry as an Ho<strong>no</strong>rs student. I am currently<br />

continuing this research as a Master’s student, and<br />

I will use the skills and k<strong>no</strong>wledge I have learned<br />

through research in my career post-graduation.<br />

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Lisa Perreault


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

Figure 1. The initial steps of na<strong>no</strong>tube self-assembly, as investigated in this study. First single dipeptide mo<strong>no</strong>mers were studied,<br />

followed by their dimers, and finally their hexamers<br />

149<br />

In my time in the Mayes Research Group, I have been<br />

able to develop my skills in many different areas. I<br />

have evolved from an undergraduate student running<br />

calculations as directed by Dr. Mayes to a graduate<br />

student coming up with ways to advance our project<br />

on my own and analyzing results comprehensively. I<br />

have become confident in using many computational<br />

programs, such as GAMESS, NAMD, and Spartan<strong>16</strong>.<br />

Just as important as the computational chemistry<br />

skills that I became proficient in, I learned how to<br />

think and work like a researcher in a collaborative<br />

environment. I learned how to view a problem from<br />

different points of view and use these points of view<br />

to better understand how to approach my research.<br />

I have had the opportunity improve my presentation<br />

skills, by sharing my research on several different<br />

platforms. I have presented research posters on this<br />

research at on- and off-campus conferences, given<br />

research talks at chemistry department seminars,<br />

and even published a paper. These are all skills that I<br />

will use in my future as a chemist, and I am thankful<br />

to have gotten to learn them first-hand as a student.<br />

Dipeptide na<strong>no</strong>materials are relatively new and<br />

unique biomaterial with many potential applications.<br />

Their organic nature, rigidity, and flexibility make<br />

them safe yet strong, lending them to applications<br />

such as biosensing, tissue engineering, and biological<br />

scaffolds. Their semiconductor properties make<br />

them potential alternatives as biological scaffolds<br />

in solar cells. During the past several years, these<br />

dipeptide na<strong>no</strong>materials have risen in scientific<br />

interest and their properties have been investigated<br />

on both macro- and microscales. However, much<br />

is still unk<strong>no</strong>wn about the self-assembly of these<br />

dipeptide na<strong>no</strong>structures.<br />

This research aims to understand the early self-assembly<br />

of aromatic dipeptide na<strong>no</strong>tubes using a<br />

variety of quantum computational methods. Four<br />

dipeptides are considered in this work: linear dityrosine<br />

(YY), cyclic YY, linear tryptophan-tyrosine (WY),<br />

and cyclic WY. This research was partially funded<br />

through a grant from the OUR. All calculations were<br />

run on the Massachusetts Green High Performance


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Computing Center (MGHPCC), a statewide computing<br />

cluster with high computing capabilities.<br />

The basic theorized mechanism of na<strong>no</strong>tube<br />

self-assembly is that mo<strong>no</strong>mers form small aggregates,<br />

which then form rings, which stack to form<br />

tubes. So far, I have used a bottom-up approach to<br />

model these initial steps of na<strong>no</strong>tube self-assembly<br />

to provide a fundamental molecular understanding<br />

of the process. Progress so far can be broken down<br />

into three basic stages: a study of each of the four<br />

dipeptides, a study of their dimers, and a study of<br />

their hexamers (Figure 1).<br />

In the first stage of the study, conformer analyses of<br />

the four dipeptides were performed using the MMFF<br />

implemented in Spartan14 software to determine all<br />

energetically and geometrically possible configurations<br />

of the dipeptides. More accurate calculations<br />

were then carried out with density functional theory,<br />

specifically DFT-M05/6-31G*, on a few lowest<br />

stable conformers using GAMESS (General Atomic<br />

Molecular and Electronic Structure) to determine<br />

more accurately the lowest-energy conformer of<br />

each dipeptide, representing their most stable<br />

forms (Figure 2). Structural analysis revealed that<br />

the most stable conformers of the linear YY and WY<br />

dipeptides both featured intramolecular hydrogen<br />

bonding within their backbones. The most stable<br />

conformers of the cyclic YY and WY dipeptides<br />

both feature slightly puckered boat structures in<br />

their diketone-backbone rings. The orbital analysis<br />

suggested that π-π stacking, XH-π interactions, and<br />

charge-transfer interactions likely participate in<br />

the aggregation and self-assembly of these dipeptides.<br />

These findings have recently been published<br />

in Computational and Theoretical Chemistry (DOI:<br />

10.10<strong>16</strong>/j.comptc.20<strong>18</strong>.03.031).<br />

In the second stage of the study, dimers of each of<br />

the four dipeptides were studied, using the density<br />

functional tight binding (DFTB) method. The lowest<br />

energy conformers from stage one were dimerized<br />

in three orientations: “side by side,” parallel, and<br />

perpendicular “T.” Analysis of structural and spectroscopic<br />

properties showed that the side-by-side<br />

and parallel orientation were found to be the most<br />

favorable for linear and cyclic dipeptides, respectively.<br />

This suggests that linear dipeptides mainly<br />

Figure 2. The optimized structures of the lowest-energy<br />

conformers of each of the dipeptides studied<br />

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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

depend on interactions between their side chains<br />

while the cyclic dipeptides have increased interactions<br />

between their cyclized backbones.<br />

To investigate the interaction between the dimers<br />

in more detail, an energy decomposition calculation<br />

was carried out using the Hartree-Fock,<br />

HF/6-31G*, level of theory. It showed that for each<br />

dimer, electrostatic energy, charge transfer energy,<br />

and electrostatic energy acted as attractive forces<br />

between dimers and exchange energy acted as a<br />

repulsive force (Figure 3). The electrostatic energy<br />

implies the importance of the polar interactions<br />

between mo<strong>no</strong>mers, the exchange energy implies<br />

the importance of overlapping orbital mixing, the<br />

dispersion energy implies the importance of weak<br />

Van der Waals interactions between mo<strong>no</strong>mers, and<br />

the charge transfer energy implies the importance<br />

of attractive orbital interactions, as in π-π stacking<br />

or hydrogen bonding. Altogether, this demonstrates<br />

how several different weak forces come together to<br />

drive dimerization.<br />

In the third stage of the study, hexamer rings of<br />

each of the dipeptides were studied, again using<br />

DFTB. The lowest-energy conformers from stage one<br />

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Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

were arranged into six-membered hexamers. The<br />

binding energies were found to be moderately large,<br />

suggesting that the dipeptides have high affinity<br />

for each other in this hexamer arrangement. The<br />

binding energies of linear WY and cyclic WY, were almost<br />

identical, suggesting that both forms of WY are<br />

equally likely to self-assemble. However, the binding<br />

energy of cyclic YY was almost twice as much as the<br />

binding energy of linear YY, suggesting that the cyclic<br />

form of YY will self-assemble much more readily. In<br />

fact, the cyclic YY hexamer was found to have the<br />

largest binding energy of all the dipeptides studied,<br />

suggesting it is the most likely to form na<strong>no</strong>tubes.<br />

The calculated inner and outer diameters of each<br />

hexamer were compared against experimental data<br />

for the highly studied diphenylalanine na<strong>no</strong>tube,<br />

revealing that these four na<strong>no</strong>tubes will be slightly<br />

larger, due to large side chains and higher polarity.<br />

An interaction energy decomposition was also<br />

carried out on the hexamers at HF/6-31G* and<br />

shows that the same forces that drive the interaction<br />

between the dimers are at play on a larger scale<br />

also, and therefore likely drive the self-assembling<br />

of the whole na<strong>no</strong>tube as well.<br />

This project can take several directions from here.<br />

One next step could be to use molecular dynamics<br />

simulations to study the self-assembly of<br />

dipeptides by simulating their behavior over time.<br />

A<strong>no</strong>ther next step could be to apply the techniques<br />

used thus far to tripeptides and tetrapeptides to<br />

learn about their fundamental properties, as these<br />

oligopeptides are also commonly used as building<br />

blocks for peptide na<strong>no</strong>structures.<br />

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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

Research In Photojournalism<br />

A Photo-journalistic Journey into Okinawa<br />

Lizzy Santoro ‘17<br />

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Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

I am a dual major in Photography and Political<br />

Science. My passion for social and political issues<br />

always complements my artistic side. In summer<br />

20<strong>16</strong> I received an OUR summer grant to study<br />

the culture of the American military community of<br />

Okinawa, Japan. My research was conducted under<br />

the supervision of Professor Pamela Karimi of Art<br />

History as well as Professors Victoria Crayhon and<br />

Sarah Malakoff of the Design Department.<br />

156<br />

My decision to do a photo-journalistic research in<br />

Okinawa was motivated by a personal experience. My<br />

journey began when I joined an Okinawan martial arts<br />

dojo, Kodokai, seven years ago. My Sensei is a Marine<br />

Corps veteran who was stationed in Okinawa during<br />

the 1970s and learned martial arts during his time<br />

there. He truly immersed himself in the culture and<br />

became versed in the conflict between the Okinawans<br />

and American military. By going to the dojo five days<br />

a week, three/four hours a day, for seven years I, too,<br />

learned about the culture and the relationship between<br />

the American military and Okinawa.<br />

Lizzy Santoro


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

157<br />

There are five times as many American bases in<br />

Japan than in Afghanistan and 75% of those bases<br />

are located in just 0.6% of Japan’s landmass, on the<br />

island of Okinawa. This over-saturation of American<br />

military on a very small landmass has affected the<br />

area in many tangible ways—both positive and<br />

negative. Okinawa’s eco<strong>no</strong>my, culture, and history<br />

have been strongly influenced by America; conversely,<br />

thousands of Americans have been shaped by the<br />

Okinawan culture and society.<br />

important moments and locations and I “framed”<br />

these moments and locations in meaningful ways.<br />

Even though the final product—an illustrated<br />

book—ended up being <strong>no</strong>t too long, it definitely<br />

proved to be very challenging. The recent history of<br />

Okinawa is incredibly complicated. It includes 70<br />

years of injustice and Okinawan bitterness at both<br />

the Japanese and the American central governments.<br />

At the macro level, there are fierce political<br />

debates about how necessary the bases in Okinawa<br />

are, whether the Okinawan people have been subjugated<br />

by American and Japanese superpowers,<br />

and whether the bases do more harm than good.<br />

But there is also a less polarized micro reality. Most<br />

Americans are just doing their jobs. They were given<br />

relatively <strong>no</strong> choice to be stationed in Okinawa and<br />

are just fulfilling their duty as ho<strong>no</strong>rably as possible.<br />

Simultaneously, most Okinawans are just living their<br />

daily lives as best as they can, and as harmoniously<br />

American soldier shares rations with Okinawan children in 1945<br />

Courtesy of Wikimedia Commons<br />

In my recent travel, I did my best to tell the story of<br />

the American military presence in Okinawa through<br />

both texts and images. I took <strong>no</strong>tes as I explored<br />

different places. I interviewed both Americans and<br />

Okinawans. I did research on my own and I captured<br />

the culture, utilizing the elegance of the frozen<br />

moment that only photographs can provide. It is<br />

important to <strong>no</strong>te that my photographs are <strong>no</strong>t just<br />

representations of reality; they are mediated images<br />

with deep meanings. Indeed, I did my best to capture<br />

Santoro’s photograph of a neighborhood near the American<br />

base, 20<strong>16</strong>. American ico<strong>no</strong>graphy and English Signage are fairly<br />

common throughout Okinawa, but they are especially prevalent<br />

near the bases


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

as possible with their American neighbors.<br />

There were more challenges than just the complexity<br />

of my research topic. I struggled particularly<br />

with the writing portion of this project because my<br />

upbringing put me on both sides of this debate. I<br />

grew up in a military family, with a father who was<br />

a Naval Commander and a brother training to be<br />

a Marine Corps officer. On the other hand, I have<br />

strong personal relationships with several people<br />

who are somewhat critical of the American military<br />

presence in Okinawa. The only way I could navigate<br />

through these conflicting emotions was to tell the<br />

story as accurately as possible. The result of this<br />

strategy is a book that is as removed from myself<br />

as I could manage; however, the origins of this book<br />

could <strong>no</strong>t have been more personal because, for me,<br />

this research project is about a place where my second<br />

home was conceived. To read my book, America<br />

Abroad, and to see more of my photographs, please<br />

go to this link: www.Issuu.com/americaabroad/docs/<br />

okinawa_v03_online_<br />

158<br />

Santoro’s photograph of the Osprey helicopters on Futenma Air Base, 20<strong>16</strong>


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

159<br />

Santoro’s photograph of two Okinawans taking a selfie with an American at Gate Two street in Okinawa, 20<strong>16</strong>


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

<strong>16</strong>0<br />

America Aborad book cover. To read the book and to view more professionally taken<br />

photographs go to the link: www.issuu.com/americaabroad/ docs/okinawa_v03_online_


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<strong>16</strong>2


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

<strong>16</strong>3<br />

Research In<br />

Child Psychology<br />

Emotional Differences in Preschool-Aged<br />

Children<br />

Alicia Cronister-Morais ‘17


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

During my first semester as a transfer student here<br />

at the University of Massachusetts Dartmouth I was<br />

presented with an opportunity to join a research study.<br />

My advisor, Dr. Robin Locke-Arkerson, was looking<br />

for interested students to participate in research<br />

conducted in her Child Emotion Center. Research<br />

projects in the Child Emotion Center examine emotional<br />

development in children, with specific interest<br />

in understanding how various emotional, cognitive,<br />

and biological processes influence social and emotional<br />

behavior. Current and future projects of the<br />

center include individual differences in emotional<br />

behavior, emotional understanding, neuroendocrine<br />

(cortisol) and cardiac physiology, attention, language,<br />

aggressive behavior, bullying, victimization,<br />

peer rejection, and loneliness.<br />

Alicia Coronister-Morais and her advisor Dr. Robin<br />

Locke-Arkerson at the 2017 SRCD (Society for Research in<br />

Child Development) Conference, where she presented her<br />

research poster<br />

<strong>16</strong>4


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

<strong>16</strong>5<br />

Initially I started working in the Child Emotion Center<br />

as a volunteer, but my interest in research compelled<br />

me to participate at a greater level. I first assisted<br />

with a National Institute of Health (NIH) – funded<br />

study that examines multiple factors associated<br />

with emotional differences in preschool-aged<br />

children. Later, this complex study of child emotion<br />

gave me the opportunity to train on various behavioral,<br />

cognitive, and biological assessments. Given<br />

the multitrait-multimethod design employed by<br />

the study, I was exposed to various forms of data<br />

collection, including child interviews, physiological<br />

assessments, teacher- and parent-reports, as well<br />

as behavioral measures. The behavioral measures<br />

are very expansive, with many tasks spanning the<br />

realm of various emotions. The interview measures<br />

tap into child receptive language skills and k<strong>no</strong>wledge<br />

of their own and others’ emotions.<br />

Most importantly, the OUR summer grant and CAS<br />

Dean’s fellowship provided an opportunity to examine<br />

questions on how language comprehension<br />

and emotion k<strong>no</strong>wledge relate to peer rejection and<br />

externalizing behavior. Preliminary findings from my<br />

research indicate that children with lower recognition<br />

of emotional faces and emotional situations<br />

were more likely than other children to be rejected<br />

by their peers. Furthermore, a child’s tendency<br />

to attribute anger to <strong>no</strong>n-anger faces was also<br />

associated with greater peer rejection. In addition,<br />

language comprehension was related to emotion<br />

k<strong>no</strong>wledge and attention problems.<br />

During this period I also submitted an abstract to<br />

present some of the preliminary results from the<br />

study at the biennial meeting of the Society for<br />

Research in Child Development (SRCD) in Austin,<br />

This cumulative exposure to the preparation and<br />

implementation of the study in Dr. Locke-Arkerson’s<br />

lab prepared me to engage in an individual research<br />

project. The summer grant I received from OUR and<br />

the CAS Dean’s summer research fellowship provided<br />

me with the funds to examine unique research<br />

questions within this complex study on child emotion.<br />

I independently carried out all roles required to<br />

conduct this research project. I was invested in all<br />

aspects of the study from the beginning (participant<br />

recruitment) to the end (participant compensation).<br />

I interacted with many of the school staff and<br />

families that so kindly volunteered to participate in<br />

this important research on child emotion.<br />

Cronister-Morais administering the Peabody Picture Vocabulary<br />

test as an assessment of receptive language during an<br />

interview with a preschool-aged child, 20<strong>16</strong>


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Texas, in April 2017. A future goal of mine is to submit<br />

a manuscript based on my findings for publication in<br />

a peer-reviewed journal of psychology.<br />

Being offered the opportunity to work at a greater<br />

capacity on this research project helped me understand<br />

the many different techniques employed by<br />

researchers to gain insight and information into how<br />

to improve everyday life. In particular, I am thankful<br />

for a greater understanding of how children’s language<br />

and emotion k<strong>no</strong>wledge are important for<br />

adaptive social functioning and how they could be<br />

helpful in guiding early intervention and prevention.<br />

Recognizing deficits at an early age increases<br />

the ability to facilitate improvement in important<br />

aspects of a child’s relational functioning.<br />

In addition to addressing my own research questions,<br />

the data collection that occurred under the<br />

OUR summer grant and CAS Dean’s fellowship<br />

will be used to address goals of a broader future research.<br />

Research in psychology is very important: it<br />

helps elucidate what makes people think, feel, and<br />

act in certain situations. It can also give clinicians<br />

a better understanding of how relationships within<br />

families can improve. As a Psychology major, I<br />

wanted to get more involved with research in the<br />

field. When I first started at the university I hoped<br />

to gain as much experience within the discipline<br />

of psychology as I could; I wanted to better understand<br />

how research is conducted. The opportunity<br />

to work in Professor Locke-Arkerson’s lab was<br />

extremely valuable to me. Above all, it prepared me<br />

for graduate programs in clinical psychology. I am<br />

currently a full time graduate student in the Master’s<br />

in Social Work Program at Bridgewater State<br />

University continuing my education. I will graduate<br />

in 2020, after which I will obtain my license and<br />

become a therapist. My ultimate goal is to be an<br />

LICSW and open my own practice working with children<br />

and families. Choosing this clinical psychology<br />

path, I want to develop treatment models based<br />

on the factors that influence social development.<br />

Understanding how and why research is conducted<br />

has helped me in term of my future career goals. I<br />

look forward to assisting children and families develop<br />

the skills needed for productive relationships<br />

and better social interactions.<br />

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<strong>16</strong>7


<strong>16</strong>8


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

<strong>16</strong>9<br />

Research In History of<br />

Art & Architecture<br />

Exploring the Post-Industrial Landscapes<br />

of the Northeast<br />

Hannah Gadbois ‘<strong>16</strong>


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

I graduated from the Art History Department in<br />

May 20<strong>16</strong>. I am from Seekonk, Massachusetts, and<br />

became interested in art history while attending<br />

high school there. As a native of New England, I was<br />

always intrigued by the post-industrial landscapes<br />

of this region. This post-industrial landscape<br />

became even more interesting to me when I took<br />

Architecture & Sustainability in the American<br />

Post-Industrial City, a course offered by Professor<br />

Pamela Karimi. The body of literature we covered in<br />

this class introduced me to the many ways of looking<br />

at America’s post-industrial environments.<br />

Gadbois and her classmates taking a tour of abandoned zones<br />

and vacant lots in the city of New Bedford, 2015<br />

170


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

171<br />

Since the closing of American factories in the late<br />

1970s, post-industrial ruins have appeared in many<br />

parts of the United States. Whether left abandoned<br />

or transformed into new uses, the post-industrial<br />

building is a prevalent force on the Northeastern<br />

American setting. Accordingly, these buildings<br />

(especially their rui<strong>no</strong>us shells), have been popular<br />

subjects of both art and art historical research and<br />

are particularly of interest to photographers. Having<br />

read a vast body of literature on the American<br />

post-industrial city, I learned that, unfortunately,<br />

many of these urban contexts end up remaining in<br />

ruins, a problem particularly common in Detroit.<br />

Foreign tourists come to see the abandoned factories,<br />

forcing the city to remain in disrepair with a<br />

low quality of life for its citizens. What is the history<br />

of the fetishization or the neglect of the industrial<br />

ruin in the New England region? How far back does<br />

this history go? What can we learn from this history?<br />

How can this historical k<strong>no</strong>wledge allow us to come<br />

up with better ways of representing these cities and<br />

even providing remedies for them?<br />

character in photography is also directly tied to their<br />

complicated relationship to American history. The<br />

industrial factory and its corresponding neighborhood<br />

was at once a symbol for American power and<br />

wealth as well as a reflection of the flawed class<br />

system that forced many into difficult labor. The<br />

period of prosperity in which factories were prominent<br />

was also a time of intense race and gender<br />

boundaries, and reflections on the post-industrial<br />

building are innately tied to the society created by<br />

powerful class borders. Americans’ relationship<br />

to the post-industrial ruin is inherently entwined<br />

with our complicated feelings about our difficult<br />

past. However, ruins are fundamentally ambiguous;<br />

the empty spaces can be <strong>no</strong>stalgic, prophetic, or<br />

escapist, so the meaning heavily relies on artists’<br />

intentions and viewer expectations.<br />

In fall 2015 I received a grant from the OUR to investigate<br />

the ways in which the post-industrial landscapes<br />

of the Northeast were depicted in the work of<br />

late-twentieth century artists. My research analyzed<br />

Northeastern American post-industrial ruins in the<br />

work of six artists from four perspectives: ruins as<br />

prophetic, ruins as <strong>no</strong>stalgic, ruins as disappointment,<br />

and ruins as problematic. The ambiguity of the<br />

ruin allows these vastly different lenses to color the<br />

interpretations of ruins photography. Their complex<br />

Bernd and Hilla Becher, Coal Tipple, Goodspring,<br />

Pennsylvania,1975. Screen-shot from the Museum of Modern<br />

Art website. Screen-shot taken from www.moma.org/collection/<br />

works/109523?locale=en. © Museum of Modern Art, New York City


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

The first and possibly most instinctive way to<br />

analyze photography of the post-industrial ruin is<br />

from the perspective of memory and <strong>no</strong>stalgia. In<br />

describing the famous photographs of abandoned<br />

factories taken by her and her husband, Hilla Becher<br />

says, “the olden days will never come back… there<br />

is <strong>no</strong>thing left of the facilities but memories.” In that<br />

same interview, Becher discussed how her husband<br />

began to photograph factory ruins as a method of<br />

preserving them and the memories they held (Becher<br />

2012). The post-industrial ruin, from the moment<br />

of the industry’s closing in America, was doomed<br />

to crumble. Although the factory workers were <strong>no</strong>t<br />

living incredibly prosperous lives, the buildings still<br />

represented the American Dream. The time of the<br />

American factory was a time of self-made men and<br />

affordable goals. The factory was a way to set out on<br />

the path to prosperity, a fair-paying job that paved<br />

the road to success. The Bechers’ photographs<br />

reflect the sudden loss of a pervasive dream. The<br />

world rapidly changed, leaving many without steady<br />

jobs and a predictable role in society. With the eco<strong>no</strong>mic<br />

downturn and outsourcing came turmoil. The<br />

Bechers’ abandoned coal tipple reminds the viewer<br />

of the coal workers who had built lives around the<br />

industry, lives that were made suddenly transient.<br />

The reminiscence surrounding ruins is <strong>no</strong>t entirely<br />

in<strong>no</strong>cent. Looking <strong>no</strong>stalgically back can inspire<br />

“ideological phantasms” (Huyssen, 2011) where we<br />

imagine better, more simple pasts and void this period<br />

of American history of its underpinnings of racism,<br />

sexism, and classism. Many argue for a return<br />

to the factory period and neglect to ack<strong>no</strong>wledge<br />

Joachim Koester, Boarded Up House, Philadelphia, 2011. Screenshot<br />

from Galleri Nicolai Wallner, Copenhagen. Screen-shot taken<br />

from www.nicolaiwallner.com/artists.php?action=details&id=3.<br />

© Galleri Nicolai Wallner<br />

the negative basis of the era. Art historians Magali<br />

Arriola and Andreas Huyssen both warn against<br />

this possible role of ruins, cautioning against the<br />

destructiveness of the “picturesque ruin” (Arriola,<br />

2011) on accurate historical memory. From this perspective,<br />

the ruin can serve to delude recollections<br />

into overly sentimental and optimistic views of a<br />

deeply flawed past. However, the ruin can also act to<br />

reignite memory. Rebecca Solnit (2007) argued that<br />

our memory is incomplete and ruins are “our guides<br />

to situating ourselves in a landscape of time.” Artist<br />

172


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

173<br />

Joachim Koester (2010) shares this appreciation<br />

for ruins as providing an awareness of our place in<br />

history, allowing us to shape our future in “better and<br />

surprising ways.” Of course, the difficultly here lies in<br />

the ambiguity of the ruin. The same building can be<br />

analyzed by one as a call to action and by a<strong>no</strong>ther as<br />

a call to return to the past. Koester speaks passionately<br />

about his photographs of ruined buildings as<br />

liminal spaces that incite change, but their ambiguity<br />

lends itself to a multitude of interpretations, often<br />

reflecting what the viewer wishes to see.<br />

A<strong>no</strong>ther prominent perspective in the realm of<br />

ruins photography is the ruin as prophetic. This lens<br />

stretches back to the beginning of ruins scholarship<br />

and specifically the popularity of Roman ruins in<br />

art. Denis Diderot analyzed the interest in ruins in<br />

the quote, “We contemplate the ravages of time,<br />

and in our imagination we scatter the rubble of the<br />

very buildings in which we live over the ground; in<br />

that moment solitude and silence prevail around<br />

us, we are the sole survivors of an entire nation that<br />

is <strong>no</strong> more. Such is the first tenet of the poetics of<br />

ruin.” (1995). The destruction of powerful buildings<br />

of the past inspires the viewer to look prophetically<br />

forward and predict the end of their own civilization,<br />

reminded of the ephemerality of society. This<br />

perspective is reflected in the work of Walker Evans<br />

(2004) who encouraged artists to “Photograph the<br />

present as it would be seen in the past.”<br />

This sense of a forewarned future is very present<br />

in Walker Evans’s cityscapes with their absence of<br />

human presence and partly destroyed facades. The<br />

city objectively existed during the period of factory-closings<br />

in the 1960s and 1970s but it looks as if<br />

it foretells a distant future, the future fall of our own<br />

civilization. This element of the foreseen destruction<br />

of a building is also a focus in the scholarship of<br />

Robert Smithson (1996) who describes the phe<strong>no</strong>mena<br />

of the “ruins in reverse,” that “rise into ruin<br />

before they are built.” Often, these reverse ruins are<br />

in construction sites, projects begun during periods<br />

of eco<strong>no</strong>mic wealth and abandoned during slower<br />

eco<strong>no</strong>mic times. Inherent to Smithson’s ruins in<br />

reverse is the concept of entropy, or that all things<br />

increase towards chaos. Even in the process of<br />

building, the ruins are prophesized and subsequently<br />

inevitable. A similar analysis to Walker Evans’s work<br />

can be made of Stephen Shore’s. Shore photographed<br />

the American Northeast during the same period of<br />

the factory closings. His works share that prophetic<br />

emptiness, of a city vacant before its time. The closing<br />

of factories did <strong>no</strong>t just produce abandoned factories,<br />

it created abandoned cities, empty of people and past<br />

prosperity. With that incredibly permeable barrenness<br />

came mixed feelings about the events that brought<br />

the cities to their current state.<br />

Reflecting on the situation of many Northeastern<br />

cities after the closing of major businesses, many<br />

artists and art historians turned to the ruin as a<br />

sign of their disappointment. Edgar Martins, the<br />

photographer of the photo series “Ruins of the<br />

Second Gilded Age” (later called “This Is Not A<br />

House”) described his photographed ruins in the<br />

statement, “They deploy the metaphor of struggle<br />

between poetic failures and the promise of success


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

to suggest a place uncertain of its future” (Dunlap,<br />

2009). Martins’s photographs reference the concept<br />

of failure as he creates spaces that are almost ghost<br />

towns stuck in a “capitalist limbo” between “boomtown<br />

prosperity and quiet devastation” (Williams,<br />

2011). While analyzing Martins’s work, art historian<br />

Gilda Williams (2011) wrote, “So much human failure<br />

from the recent past is tied up with ruins.” She<br />

further argued that artists turned to ruins to lament<br />

the collapse of modernist ideas (Williams, 2011).<br />

The hopeful and booming future that modernism<br />

had ceaselessly moved towards had suddenly<br />

collapsed. With the disappearance of the promised<br />

future came a reversal of the concept of progress.<br />

No longer was life getting steadily better, and many<br />

people <strong>no</strong>w found themselves questioning the future<br />

they had always been certain of. Martins’s haunting<br />

photographs of buildings are interestingly timeless;<br />

they could have been abandoned minutes ago or<br />

decades ago. This immutability embodies the other<br />

perspectives, whether these ruins project our future<br />

or capture our past; they address a disappointment<br />

with our place in history.<br />

The final, and oft forgotten, perspective on photographic<br />

ruins is their problematic nature. Scholarship<br />

on the abstract nature of the ruin regularly<br />

neglects the fact that people still live in these areas.<br />

Though many fled to suburbia during the factories’<br />

prosperity, the areas surrounding the industrial<br />

buildings still held a large population. Camilo Jose<br />

Vergara addresses that in his photo series, “Fern<br />

174<br />

Stephen Shore. Holden St, North Adams, Massachusetts, 1974.<br />

© The Metropolitan Museum of Art, New York City. Screenshot<br />

from the personal website of the artist. Screen-shot<br />

taken from www.stephenshore.net/photographs/six/index.<br />

php?page=8&menu=photographs<br />

Edgar Martins, Untitled, Connecticut. From This Is Not a House<br />

Series, 2008. Screen-shot taken from Purdy Hicks Gallery’s<br />

website. Screen-shot taken from www.purdyhicks.com/display.<br />

php?aID=243#2. © Purdy Hicks Gallery, London


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

175<br />

St., Camden” and “5th Ave at 7th Street” in which<br />

he photographed several streets in industrial<br />

areas of Camden and Newark, New Jersey, from<br />

1979, the time of many factory closings, until 2014.<br />

Vergara (2013) describes his images as “bricks<br />

that when placed next to each other reveal shapes<br />

and meanings of neglected urban communities.”<br />

His buildings are <strong>no</strong>t ruins, they are homes. Of all<br />

the meanings that the ruin can hold to a removed<br />

observer, they can<strong>no</strong>t be more powerful than the<br />

understanding of the ruin as part of your home<br />

environment. Even if artists photograph with this in<br />

mind, these images of “gutted buildings can never<br />

adequately describe the longstanding causes of<br />

urban poverty” (Woodward, 2013). The reflective<br />

nature of a photograph allows for meditation on the<br />

subject, but without hearing from the people who<br />

are living among ruins, one can<strong>no</strong>t truly understand<br />

the basis of the ruin. Furthermore, this reflection<br />

does <strong>no</strong>t improve the neighborhood. Fetishizing<br />

ruins does <strong>no</strong>thing for the efforts to revitalize<br />

urban areas. Although the goal of this paper is to<br />

understand artistic intentions and the discourse<br />

surrounding the ruin, it is still necessary to address<br />

the abstracted nature of ruin photography.<br />

ruin exists in the hometowns of real people. As art<br />

historian Lucy Lippard once remarked, “Poverty is<br />

a great preserver of history” (Solnit, 2007, 355). It is<br />

vastly important that we understand the complexities<br />

of our own place in history without romanticizing<br />

the past, but it is exceedingly important to<br />

address the ruin <strong>no</strong>t as a hypothetical but as a real<br />

issue. The photographed post-industrial ruin points<br />

to the American past of prosperity and unequal<br />

wealth while also gesturing toward our increasingly<br />

ambiguous future. The building itself can<strong>no</strong>t stand<br />

as a reminder to this, it is <strong>no</strong>t “liminal,” or “marginal,”<br />

it is real and it must be addressed as such.<br />

While conducting my research on the portrayal of<br />

post-industrial cities in the Northeast, I worked<br />

on several off-campus research projects including<br />

one concerning the work of the re<strong>no</strong>wned American<br />

landscape painter, Albert Bierstadt, for an exhibition<br />

at the New Bedford Art Museum.<br />

The American perspective on post-industrial ruins<br />

is above all else, temporal. The ruin is at once<br />

analyzed as <strong>no</strong>stalgic, prophetic, and a timeless<br />

symbol of failure. Tied up with our understanding<br />

of ruins are our feelings about our American past,<br />

our understandings of our flawed history and our<br />

shared hopes for what the future holds. Among all<br />

these hypotheticals, however, is the fact that the<br />

Camilo Jose Vergara, 5th Ave at 7th Street, Newark. NJ, 1980.<br />

Screen-shot from the artist’s website. Screen-shot taken<br />

from www.camilojosevergara.com/Camden/Former-Camden-Free-Public-Library/1.<br />

© Camilo Jose Vergara


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Upon graduation I received a Mellon Summer<br />

Internship grant from the RISD Museum. There I<br />

worked with Emily Peters at the Department of<br />

<strong>Print</strong>s, Drawings, and Photographs. My contributions<br />

involved cataloguing Flemish <strong>print</strong>s in the extensive<br />

RISD archives as well as publishing an essay in RISD<br />

Museum’s online journal, Manual.<br />

I am <strong>no</strong>w continuing my research on the architecture<br />

of the city of New Bedford’s Abolitionist neighborhood.<br />

The project, called The Aesthetics and<br />

Architectonics of an Abolitionist Neighborhood is<br />

led by Professor Karimi and is funded by a Creative<br />

Eco<strong>no</strong>my Grant. So far, in my capacity as a research<br />

assistant to the project, I have conducted research<br />

at the archives of the Whaling Museum, the New<br />

Bedford Registry of Deeds, and the New Bedford<br />

Public Library. These research projects have prepared<br />

me well for graduate school. I am currently<br />

applying to several graduate programs in Art History<br />

and I hope to be a professor of Art History, training<br />

the future generation of Americans.<br />

176<br />

Gadbois exploring New Bedford’s abolitionist homes at the New<br />

Bedford Registry of Deeds, 20<strong>16</strong><br />

Snapshot of Gadbois’s article for RISD Museum’s Manual journal


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

Refrences<br />

177<br />

1.<br />

2.<br />

3.<br />

4.<br />

5.<br />

6.<br />

7.<br />

8.<br />

9.<br />

Magali Arriola, “A Victim and a <strong>View</strong>er: Some Thoughts on Anticipated Ruins,” in Ruins, ed. Brian Dillon<br />

(Cambridge, MIT Press, 2011), 174.<br />

Hilla Becher, “Hilla Becher Interviewed at Paris Photo,” Phaidon, November 12, 2012, accessed March<br />

29, 20<strong>16</strong>, http://www.phaidon.com/agenda/photography/articles/2012/<strong>no</strong>vember/21/hilla-becher-interviewed-at-paris-photo/.<br />

Denis Diderot, Le Salon de 1767, trans. John Goodman (New Haven and London: Yale University Press,<br />

1995), 196-197.<br />

David W. Dunlap, “Behind the Scenes: Edgar Martins Speaks,” The New York Times, July 31, 2009,<br />

accessed April 2, 20<strong>16</strong>, http://lens.blogs.nytimes.com/2009/07/31/behind-10/?_r=0.<br />

Walker Evans, “Walker Evans (1903–1975),” In Heilbrunn Timeline of Art History (New York: The Metropolitan<br />

Museum of Art, 2000–). http://www.metmuseum.org/toah/hd/evan/hd_evan.htm (October<br />

2004).<br />

Andreas Huyssen, “Authentic Ruins,” in Ruins, ed. Brian Dillon (Cambridge: MIT Press, 2011), 53.<br />

Joachim Koester, “Questionnaire: Joachim Koester,” Frieze, November 1, 2010, accessed March 30,<br />

20<strong>16</strong>, https://www.frieze.com/article/questionnaire-joachim-koester/.<br />

Robert Smithson, “A Tour of the Monuments of Passaic, New Jersey,” in Robert Smithson: The Collected<br />

Writing, ed. Jack Flam (Berkeley and Los Angeles: University of California Press, 1996), 68-74.<br />

Rebecca Solnit, Storming the Gates of Paradise (Berkeley and Los Angeles: University of California<br />

Press, 2007), 354-355.<br />

Camilo Jose Vergara, “From the Inner Cities to the White House,” Time, July 9, 2013, accessed April 1,<br />

20<strong>16</strong>, http://time.com/3800841/from-the-inner-cities-to-the-white-house-photographs-by-camilojose-vergara/.<br />

Gilda Williams, “It Was What it Was: Modern Ruins,” in Ruins, ed. Brian Dillon (Cambridge: MIT Press,<br />

2011), 96-99.<br />

Richard B. Woodward, “Disaster Photography: When is Documentary Exploitation?” ArtNews, February<br />

6, 2013, accessed April 1, 20<strong>16</strong>, http://www.artnews.com/2013/02/06/the-debate-over-ruin-porn/.


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

178


179


<strong>18</strong>0


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

<strong>18</strong>1<br />

Research In Mechanical<br />

Engineering<br />

Going into the Cloud to Study Renewable<br />

Energy Extraction from Ocean Waves<br />

Cole Freniere ‘<strong>16</strong>


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

I joined the Computational Multiphase Flow Research<br />

Group in the summer after my sophomore<br />

year. Led by Dr. Mehdi Raessi, the research group<br />

is primarily focused on Computational Fluid Dynamics<br />

(CFD) simulations of two immiscible fluids<br />

interacting with moving or stationary solid bodies.<br />

Specifically, I was assigned to a project funded by<br />

the National Science Foundation (CBET Grant No.<br />

1236462), which involved simulations of Ocean<br />

Wave Energy Converters interacting with ocean<br />

waves. These Wave Energy Converters are complex<br />

to simulate, and require a large supercomputer to<br />

run for an extended period of time. How quickly the<br />

supercomputer solves the problem mainly depends<br />

on its hardware—processors, network cables, etc.<br />

There are several supercomputers available to us<br />

Cole Freniere watching the clock count down before he begins<br />

his timed presentation at the American Physical Society Division<br />

of Fluid Dynamics conference, 20<strong>16</strong><br />

<strong>18</strong>2


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

<strong>18</strong>3<br />

as university researchers, but we wanted to explore<br />

a new option—Cloud Computing. Amazon, whom<br />

we all k<strong>no</strong>w for its large online store, also offers<br />

computing resources in the Cloud, which customers<br />

can essentially rent. It is possible to build a supercomputer<br />

in the cloud, for a cost that depends on<br />

how powerful the hardware is, and how long we<br />

use the resources. The grant I received from the<br />

OUR provided the funds we needed to “benchmark”<br />

Amazon’s Cloud to see if it would be an eco<strong>no</strong>mically<br />

feasible option for us. The outcome of the study<br />

was that Amazon’s Cloud offers a high amount of<br />

flexibility, and short term benefits, but over the long<br />

term it is <strong>no</strong>t an eco<strong>no</strong>mically feasible alternative to<br />

university supercomputers. This is mainly because<br />

we need access to these resources continuously for<br />

long periods of time, which is <strong>no</strong>t the Cloud’s strong<br />

suit at this point. However, it seems more appealing<br />

for smaller, short term projects, for example,<br />

engineering consulting work. The cloud is also<br />

compelling because it offers so many different sets<br />

of hardware, which are all inexpensive to test, and<br />

enables exploration of the many different flavors of<br />

hardware available.<br />

the experts in computational physics, and a great<br />

learning experience.<br />

I presented the results from this project at the<br />

American Physical Society, Division of Fluid Dynamics<br />

conference, which had more than 2,000<br />

attendees; this was during my senior year, and it<br />

is rare for an undergraduate student to be able<br />

to make a conference presentation. In addition, I<br />

gave presentations at three other local research<br />

conferences. I was also able to publish my work in<br />

In this OUR supported project, I worked with Prof.<br />

Mehdi Raessi and his PhD student Ashish Pathak<br />

(both from the Mechanical Engineering Department)<br />

as well as Dr. Gaurav Khanna, professor at the<br />

Physics Department and the associate director of<br />

the Center for Scientific Computing & Visualization<br />

Research. Dr. Khanna is well k<strong>no</strong>wn for his Playstation<br />

supercomputer that is used for black hole<br />

simulations. It was a pleasure collaborating with<br />

The cover page of the CiSE journal


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

the journal Computing in Science and Engineering,<br />

co-published by the IEEE Computer Society and the<br />

American Institute of Physics.<br />

My OUR funded project was very fruitful for many<br />

reasons. It provided insight into an unexplored alternative<br />

to meet my research group’s supercomputing<br />

needs, and the journal publication contributes to<br />

a specialized area of research. Also, the project<br />

enabled me to experience presenting at a research<br />

conference, and publishing a paper. Finally, it was a<br />

valuable experience because I learned something<br />

about a growing field of interest, High Performance<br />

Computing (HPC). This changed the way I view<br />

science and made me reflect on the capability of<br />

computer models. Additionally, it made me wonder:<br />

to what extent can we really simulate physical phe<strong>no</strong>mena?<br />

Nowadays, the scope of simulations that<br />

scientists and engineers are implementing is incredible,<br />

and new advances are being made all the time.<br />

I find scientific computing a compelling subject, and<br />

it is the main reason I decided to pursue a Master’s<br />

Degree in Mechanical Engineering.<br />

This project was related to my research on Ocean<br />

Wave Energy Converters, because it introduced me<br />

to the field of High Performance Computing, and<br />

gave me an idea about how the simulation model<br />

performs on different types of supercomputers.<br />

Supercomputers come in many different flavors, and<br />

it is <strong>no</strong>t always apparent which flavor is the best,<br />

because different algorithms require specialized<br />

hardware to run efficiently. For instance, data analytics<br />

and molecular dynamics models would require<br />

<strong>18</strong>4<br />

Computer simulation of an ocean wave energy converter. The<br />

device is a buoyant flap that pivots around a shaft on the ocean<br />

floor. Courtesy of Ashish Pathak<br />

The front page of Freniere’s undergraduate research<br />

publication, which was partially supported by the OUR


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

a completely different structure of supercomputer<br />

for optimal efficiency. When we get access to better<br />

hardware, we can do larger simulations that solve<br />

higher levels of complexity of the ocean wave motion<br />

as it interacts with the Wave Energy Converter. This<br />

can significantly increase insight into the physical<br />

problem. I was very excited to present the Wave Energy<br />

research at the 20<strong>16</strong> American Physical Society<br />

conference in Portland, Oregon.<br />

As a mechanical engineering student, I was compelled<br />

by the subject material, and I was eager to<br />

get involved with undergraduate research. I also<br />

enrolled in the 5 year BSMS program, which enabled<br />

me to take graduate courses my senior year, counting<br />

toward both a bachelor’s and master’s degree. In<br />

my view, undergraduate research can be an excellent<br />

way to accelerate a graduate degree. Research<br />

is also interesting because during the course of<br />

conducting a research project, one always learns<br />

something new; it never really gets old and, above<br />

all, it is intellectually challenging. A<strong>no</strong>ther <strong>no</strong>teworthy<br />

issue is that everybody’s research trajectory is<br />

different. So, I can’t really tell you what it’s like to do<br />

research–you will need to see for yourself!<br />

<strong>18</strong>5


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

Refrences<br />

1.<br />

Cole Freniere, Ashish Pathak, Mehdi Raessi, and Gaurav Khanna, “The Feasibility of Amazon’s Cloud<br />

Computing Platform for Parallel, GPU-Accelerated, Multiphase-Flow Simulations,” Computing in<br />

Science & Engineering, vol. <strong>18</strong>, <strong>no</strong>. , pp. 68-77, Sept.-Oct. 20<strong>16</strong>, doi:10.1109/MCSE.20<strong>16</strong>.94.<br />

<strong>18</strong>6


<strong>18</strong>7


<strong>18</strong>8


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

<strong>18</strong>9<br />

Research in Biology<br />

Behavioral Response of Mud Crab<br />

Megalopae to Chemical Cues from Fish<br />

Species & Adult Conspecifics<br />

Jerelle Jesse ‘15 Ho<strong>no</strong>rs


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

During the summer of 2014 OUR funded my ho<strong>no</strong>rs<br />

research with Dr. Nancy O’Con<strong>no</strong>r. This research has<br />

recently been published in the Journal of Experimental<br />

Marine Biology and Ecology, and in what<br />

follows, I provide a summary of this research for the<br />

OUR blog readers.<br />

In Massachusetts, Asian shore crabs have become<br />

more abundant than native mud crabs. Crab survival<br />

can be enhanced by antipredator behaviors in<br />

response to chemical cues released by predators.<br />

190<br />

The purpose of this study was to determine if and<br />

how mud crab megalopae (the last larval stage of<br />

the crab) respond to chemical cues from local fish<br />

predators and adult crabs of the same species and<br />

to understand the way local mud crab megalopae<br />

behaviorally respond to chemical cues. The study<br />

focused mainly on the importance of early life stages,<br />

the origin of the chemical cues, and their ability to<br />

respond to chemical stimuli. This could potentially<br />

shed light on how an invasive species can be more<br />

successful than a native species in this habitat.<br />

Jerelle Jesse


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

191<br />

Female egg-bearing mud crabs were collected from<br />

the rocky intertidal habitat during low tide periods.<br />

When the females became close to releasing larvae<br />

they were transferred to a small finger bowl, then<br />

placed in the incubator.<br />

Once the larvae were released they were cared for<br />

until they reached the megalopae stage when they<br />

were designated to an experiment.<br />

Chemical cues for the experiment were made by<br />

the fish species or adult mud crabs being held in<br />

artificial seawater tanks to let their cue release<br />

into the water. The chemical cue seawater flowed<br />

through the apparatus, a glass pipe-shaped piece of<br />

equipment with an inflow opening, outflow opening,<br />

and a middle opening on top. The middle opening<br />

was used to drop the individual megalopa into the<br />

apparatus with the cue flowing through.<br />

Once the megalopae were dropped into the apparatus<br />

they displayed 1 to 3 different behaviors, and<br />

then flowed out into the sink. The behaviors were<br />

categorized based on the orientation to the flow,<br />

the limb position, and the action performed. These<br />

behaviors included: control swim, random swim,<br />

perimeter swim, cyclone swim, closed roll, open roll,<br />

swim out, sideways walk run, slide, and push.<br />

The data were analyzed using generalized linear<br />

modeling. The results show <strong>no</strong> difference in behavioral<br />

responses between the two mud crab species.<br />

However, more open rolling behavior was seen for<br />

the mummichog cue, and significantly more walking<br />

on the bottom was seen for the adult cue. This<br />

indicates that megalopae can detect and respond to<br />

chemical cues in their environment. Megalopae can<br />

also tell the difference between adult conspecific<br />

cues and predator cues, and they can perform a<br />

different behavioral response depending on the cue.<br />

My research experiences in Dr. Nancy O’Con<strong>no</strong>r’s<br />

lab are some of my best memories from my time at<br />

UMass Dartmouth. I had so much fun conducting the<br />

research that summer, then rising to the challenge of<br />

analyzing the data, and ultimately getting the opportunity<br />

to present my work at multiple conferences.<br />

It was a rewarding experience that made my career<br />

Asian shore crab<br />

The chemical cue flowed from the reservoir to a flow stabilizer,<br />

then a glass apparatus, and finally the sink. The megalopae were<br />

dropped into the middle funnel shaped opening in the apparatus


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

at UMass Dartmouth truly special. Currently, I am<br />

working for the Division of Marine Fisheries and applying<br />

to graduate schools. I k<strong>no</strong>w that this research<br />

helped me become better prepared for fieldwork and<br />

graduate school. Being able to work with a master’s<br />

student, Ami Araujo, while I was an undergraduate<br />

gave me insight to the process and hard work involved<br />

with graduate school. Without OUR’s help I would <strong>no</strong>t<br />

have been able to conduct this research, and help<br />

fulfill my dream of working as a marine biologist and<br />

going to graduate school.<br />

Egg-bearing female mud crab<br />

Control swim<br />

Megalopa on its back<br />

192<br />

Mud crab megalopa<br />

Snapshot from the official website of the Journal of<br />

Experimental Marine Biology and Ecology, where Jesse’s<br />

research results were published<br />

Incubator with glass bowls of mud crab larvae before reaching<br />

the megalopal stage as well as females almost ready to release<br />

larvae in small glass finger bowls


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<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

195<br />

Research in Social Psychology<br />

Does Ego-Resilience Impact Friendship<br />

Outcomes?<br />

Elizabeth B. Loza<strong>no</strong> ‘13


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

I hold a Bachelor’s degree in Psychology, as well<br />

as a Master’s degree in Research Psychology<br />

from UMass Dartmouth. Currently, I’m a first-year<br />

doctoral student studying Social Psychology at the<br />

University of Illi<strong>no</strong>is at Urbana-Champaign. The<br />

story of my research began in 2009 as a freshman<br />

at UMass Dartmouth. Having always wanted to be<br />

a “doctor”, I felt completely unsure of my future and<br />

where I was headed. Luckily, Dr. Trina Kershaw’s<br />

PSYCH 101 class (in particular, her weekly book club)<br />

got me really excited about Psychology! This interest<br />

quickly developed into my active involvement as an<br />

undergraduate research assistant.<br />

196<br />

Elizabeth B. Loza<strong>no</strong> (right) and Dr. Mahzad Hojjat at the International<br />

Association for Relationship Research (IARR) conference, 2015


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

197<br />

As the next few years passed, the passion for serving<br />

as an RA blossomed into my undergraduate thesis<br />

as a Commonwealth Ho<strong>no</strong>rs Program Scholar and<br />

consequently, my desire to attend graduate school.<br />

I was extremely fortunate to have a faculty member<br />

whose research was closely aligned with my own. Dr.<br />

Mahzad Hojjat had a keen interest in Positive Psychology<br />

which led to my idea of studying resilience<br />

and positive emotions in the context of friendship.<br />

As daunting as the project was at times, I knew it<br />

was going to help me further my goals.<br />

Looking back, the person who truly inspired me was,<br />

indeed, my advisor, Dr. Hojjat. Despite every challenge,<br />

she encouraged me to keep going. Every week I looked<br />

forward to our talks about research and academia. As<br />

we bonded throughout the years, Dr. Hojjat became<br />

the role model that I wished to emulate.<br />

By the time application deadlines for graduate<br />

programs approached, I was certain that my dream<br />

was taking hold. Not only had I established fruitful<br />

contact with potential lab directors (i.e., PIs), but<br />

I possessed summa cum laude standing, approximately<br />

four years of research experience, and<br />

leadership in extracurricular activities. In an effort to<br />

present myself even better, I chose to pursue a terminal<br />

Master’s degree in Research Psychology and<br />

a teaching assistantship for my tenure of graduate<br />

school. Through these opportunities I obtained valuable<br />

experiences, such as supervising an undergraduate<br />

ho<strong>no</strong>rs student on her thesis and co-teaching<br />

the lab component of a graduate-level statistics<br />

class. Above all, I published the results of my OUR<br />

funded ho<strong>no</strong>rs thesis research. The research examined<br />

the connection between resilience and beneficial<br />

outcomes in young adult friendships. It was<br />

Snapshot from Loza<strong>no</strong>’s article, written in conjunction with Mahzad Hojjat and Judith Sims-Knight


Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

found that resilience and positive emotions were<br />

associated with desirable friendship outcomes such<br />

as closeness, maintenance behaviors, and received<br />

social support. Most importantly, we are among the<br />

first to discover that positive emotions mediate (or<br />

explain) this relationship. Our results have important<br />

implications for interpersonal functioning, most<br />

<strong>no</strong>tably that positive emotions may lead to positive<br />

behaviors (i.e., friendship maintenance) and higher<br />

quality friendships.<br />

cultivate my strong work ethic and desire to excel<br />

in research, thanks to the passion and support of<br />

faculty and staff. I can safely say that my scholarly<br />

experience as a Corsair effectively prepared me<br />

for the challenges of today, where I am a student<br />

at one of the best Social Psychology programs in<br />

the country. It is my hope that sharing my research<br />

journey will encourage readers to pursue their passion<br />

despite the many challenges and roadblocks<br />

that may lie ahead.<br />

Two years later, and with considerably more experience,<br />

I applied to PhD programs. I had two options.<br />

The first option was to work as an IRB Analyst at<br />

Tufts University in Boston, close to home, while the<br />

second prospect involved moving my life to Illi<strong>no</strong>is to<br />

work in a research lab at U of I. Rather than focusing<br />

on the short-term sacrifices (e.g., location, time,<br />

and money), I recognized that the research position<br />

would give me more opportunities to network, all the<br />

while allowing me to do what I love. I was accepted to<br />

the PhD program in Social Psychology at the University<br />

of Illi<strong>no</strong>is In Urbana-Champaign.<br />

198<br />

Fast forward to October 20<strong>16</strong> and I’m about a<br />

month into my long-awaited journey as a doctoral<br />

student. My new advisor and I are working on a<br />

series of experiments investigating whether blame<br />

and praise are socially contagious. We’re particularly<br />

interested in the ways that individuals quantify<br />

these judgements.<br />

The six years at UMass Dartmouth were some of<br />

the best years of my life—every experience helped<br />

The cover page of the Journal of Individual Differences, where<br />

Loza<strong>no</strong>’s OUR funded research was published


<strong>Undergrad</strong>uate Research at UMass Dartmouth<br />

Refrences<br />

1.<br />

Elizabeth B. Loza<strong>no</strong>, Mahzad Hojjat and Judith Sims-Knight, “Does Ego-Resilience Impact Friendship<br />

Outcomes?” Journal of Individual Differences (20<strong>16</strong>), 37, pp. 128-134. DOI: 10.1027/<strong>16</strong>14-0001/a000197.<br />

© 20<strong>16</strong> Hogrefe Publishing.<br />

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Selected Projects 20<strong>16</strong>-<strong>18</strong><br />

200

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