Arts - Buffalo State College
Arts - Buffalo State College
Arts - Buffalo State College
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98<br />
Physical Geography, Sciences, and Mathematics<br />
quarterbacks, but also ones that had good college statistics but did<br />
not succeed in the NFL. Using several online references, I observed<br />
various categories such as completion percentage, touchdowns,<br />
and interceptions. Also, I considered other factors such as combine<br />
statistics and how they affected their respective teams positively or<br />
negatively. Any overall team improvement would be considered a<br />
positive impact, and the opposite would be measured as a negative<br />
impact. I will use my findings to predict the success of some of<br />
the big name players who are entering the draft this year such as<br />
Andrew Luck and Robert Griffin III.<br />
Presentation Type and Session: Poster I<br />
Geochemical Analysis of Associated Granite<br />
Bodies From the Eastern Sebago Pluton,<br />
Maine<br />
Krista Ventura, Geology<br />
Faculty Mentors: Professor Gary Solar, Earth Sciences and Science<br />
Education and Professor Paul Tomascak, Geochemistry (SUNY<br />
Oswego)<br />
As part of a large-scale, ongoing project, the research focused<br />
on rocks in the northern Appalachians, north of Portland, Maine.<br />
Evidence shows partial melting of rocks during their deformation,<br />
and the emplacement of associated granite bodies of various sizes.<br />
Study of the relations of the mineral patterns and associated granite<br />
bodies at several scales is a means of understanding granite magma<br />
production, travel and emplacement as granite bodies. My work<br />
was focused on the geochemical analysis of granitic rocks from the<br />
Eastern Sebago Pluton. Geochemistry is used to help understand<br />
the age and composition of the rock source. Field work was done to<br />
obtain samples from the field area near Poland, Maine. Two distinct<br />
areas were explored for sampling, the Sebago Pluton, and an area to<br />
the north that has rocks of similar composition to that of the Sebago<br />
Pluton. We conducted new mapping along an E-W corridor along<br />
the north contact of the Sebago pluton as part of our lab’s ongoing<br />
work on understanding the relation of the pluton to its migmatitegranite<br />
complex country rocks reported on previously by students<br />
in our lab in the last 5 years (LaFleur, Nyitrai, Bohlen, Naschke). In<br />
the summers of 2010 and 2011, we discovered this area of similarity<br />
to the pluton that was separated from the pluton by the migmatitegranite<br />
complex country rocks. Rocks in the pluton are typically<br />
medium-grained, and homogeneous 2-mica granite, whereas<br />
the complex outside the pluton is plastically deformed, strongly<br />
heterogeneous migmatites, and granites with varying solid-state<br />
fabrics. 2011 field work was required in order to both (1) check field<br />
data against my 2010 lab results, and to (2) continue mapping in<br />
unexplored parts of the field area near Poland, Maine. Geochemistry<br />
was performed on selected specimens in the geochemistry laboratory<br />
at Syracuse University. Results show positive correlations with<br />
previous field data.<br />
Presentation Type and Session: Poster VI<br />
Growth and Low Temperature Optical<br />
Studies of HoMnO 3 Thin Films<br />
Anthony Delmont, Physics<br />
Faculty Mentor: Professor Ram Rai, Physics<br />
We prepared multiferroic HoMnO 3 by a conventional solid-state<br />
method. We used high purity Ho 2O 3 and Mn 2O 3 powder samples<br />
(and also Ho 2O 3 and MnO 2) to synthesize two different batches of<br />
HoMnO 3. The synthesized HoMnO 3 compound was pressed into halfinch<br />
diameter pellets using a hydraulic press, and the pellets were<br />
used as the target material for the electron-beam system. To fabricate<br />
high quality thin films, we deposited HoMnO 3 thin films on different<br />
single crystal substrates, such as sapphire, quartz, YSZ, and LiNbO 3,<br />
using the electron-beam evaporation system. We studied the growth<br />
parameters, such as substrate temperature, oxygen partial pressure,<br />
and evaporation rate to improve the quality of the thin films. All thin<br />
films with thickness ranging from 100 nm to 300 nm were annealed<br />
after each deposition. To characterize our thin film samples, we<br />
utilized a dual beam spectrophotometer (190 – 3000 nm) equipped<br />
with a liquid nitrogen-cooled cryostat. We also took advantage of our<br />
department’s new spectrometer, which utilizes fiber optic cables and<br />
is much faster, to take preliminary room temperature transmittance<br />
and reflectance on our samples. Our transmittance data, measured<br />
at temperatures ranging from 78 K to 490 K, show insulating<br />
character with a weak Mn d to d electronic excitation at ~1.7 eV. We<br />
also found that the electronic excitations of the HoMnO 3 thin films<br />
are weaker than the corresponding excitations in the bulk samples,<br />
possibly due to quantum size effects.<br />
Presentation Type and Session: Poster VI<br />
Has Cazenovia Park Impacted Cazenovia<br />
Creek?<br />
West Cassenti, Rafael Manenti, and Brittany Carlson,<br />
GES 460: Environmental Field Methods and Analysis<br />
Faculty Mentor: Professor Elisa Bergslien, Earth Sciences and<br />
Science Education<br />
Recent flooding and a history of industrial development in<br />
South <strong>Buffalo</strong>, New York have potentially impacted Cazenovia<br />
Park. This research is to determine if any contamination of the<br />
park has taken place and in contrast if any contamination is<br />
occurring due to Cazenovia Park on Cazenovia Creek. The fragile<br />
balance of these adjacent entities is in question. Is Cazenovia Creek<br />
affecting the remediation of <strong>Buffalo</strong>’s urban watershed and the<br />
park that houses a handful of community destinations, including a<br />
playground, bike path, pool house, casino, and a golf course. The<br />
research will be conducted on the creek and the park composed<br />
of water, soil and creek sediment samples in order to determine if<br />
the park is impacting the creek, vice versa, or the possibility of both<br />
entities simultaneously impacting the other. We will be testing for<br />
temperature, pH levels, and heavy metals, as well as phosphates<br />
and nitrates, which is essential in the event that any fertilizers<br />
are entering Cazenovia Creek upstream from the park, to see if