Physics Research at UE
Biophysics
Professor Stamm's research is in protein structure and dynamics. Stamm is currently studying
the structure and interactions of a cardiac muscle protein, phospholamban. Phospholamban is
the key regulator of muscle relaxation in the heart and is thus a crucial target for
therapeutic agents aimed at treating heart failure. Stamm has developed methods for producing
and purifying large amounts of phospholamban, a necessary step for studying its molecular
structure. High resolution experiments involving electron paramagnetic resonance (EPR)
techniques are being used to test and refine atomic level models of phospholamban's
molecular interactions. Deep insight into this important clinical question is gained when
these experimental results are coupled with modern computer simulations.
While integration with Computational Physics (Phys 340) is clear,
this research is primarily applied to the interdisciplinary course in
Biological Physics (Phys 322). Research involving molecular
dynamics experiments and simulations accentuates the principles mastered in this and
complementary courses in each of the natural sciences and leads to a wide variety of possible
student projects.
High-Energy Astrophysics
Prof. Boone's research is in observational X-ray / γ-ray astronomy, and theoretical
modeling of high-energy radiation signatures of relativistic outflows. Specifically, Boone is
interested in understanding how such outflows produce their characteristic high-energy
radiation. Active avenues of inquiry within Boone's research include analysis of observational
data from a variety of satellite-based observatories including the Chandra X--Ray
Observatory, INTEGRAL, RXTE, SWIFT, and in the future, GLAST.
In addition, Boone is currently working on producing a full Monte Carlo model of the radiation
mechanisms believed to be operating within these outflows. Boone expects the combination of
this model with detailed observations to provide tremendous insight into these incredibly
powerful and exotic formations.
Boone's research projects spill over into a number of exciting topical courses within the
major. Naturally, Astrophysics (Phys 320) benefits greatly from
its close proximity to astrophysical research at UE. But an important complementary course is
Cosmology (Phys 422). The huge influx of quality astrophysical
data over the past decade has elevated the study of cosmology to an observational
science. In particular, there are a number of key cosmological concepts that may be addressed
through high-energy observations. In addition, the computational techniques employed in
Boone's Monte Carlo simulations provide an excellent application for our course in
Computational Physics (Phys 340).
Undergraduate Research Projects
Undergraduate research is an integral part of the Physics curriculum at the University of
Evansville. Funds are available to students for conference travel to present research findings.
UE physics majors have been well represented at both regional and national conferences.
The University of Evansville Physics Department also encourages its students to seek research
experiences funded by the NSF. There are many of these held each summer on campuses throughout
the United States. Many students have had the opportunity to participate in these. Most REUs
(Research Experience for Undergraduate) provide stipends for participating as well as some
travel and room expenses. Participating in a REU fulfills part of the research requirement
needed in order to graduate with a degree in Physics at UE. When the student returns to UE
after participating in a REU he or she will give an average of two talks describing the
methodology and results of the project he or she participated in over the summer. Information
on NSF sponsored REUs is listed below.
A Sample of Past Undergraduate Research Projects by UE Physics Students
| Student | Project Name | Year | Performed at |
| Carrie Schindler | Electrospun PCL/CNF Scaffolds Coated with HA/BMP-2 for Localized Bone Reformation | 2008 | University of Alabama at Birmingham* |
| Maria Weber | Simulation of the Influence of Atmospheric Turbulence and Instrumentation on Solar Observations | 2007 | National Solar Observatory* |
| Sarah Bockting | Normal Subgroups of a Specific p-Group and Corresponding Doubly-Invariant Vector Subspaces | 2006 | University of Akron* |
| Mallory Walker | Laser Trapping and Cooling of Neutral Atoms | 2006 | University of Michigan* |
| Nick Armstrong | The Effect of Neutrino Mass on Supersymmetric Models | 2003 | Michigan State University* |
| Kimberly Scott | Variability of SiO Masers at 43 GHz in the Bipolar Nebula IRAS 19312+1950 | 2002 | Maria Mitchell Observatory, Nantucket, MA* |
| Derick M. Tormohlen | Fermi National Accelerator Laboratories Experiment E-781 | 2003 | Ball State University and Fermi National Accelerator Laboratory* |
| Reijiro Matsuo | Critical Exponents for Percolation in Two Dimensions | 2002 | University of Evansville |
| Kimberly Scott | The Intrinsic Axial Ratios of Spiral Galaxies | 2001 | Cornell University* |
| Vassil Antonov | Simulation of Azimuthal Temperature Distribution in Experimental Capsule for Project SEE | 2000 | University of Tennessee, Knoxville, ORNL 1999* |
| Marc D. Mitchell | Surface Plasmon Resonance | 2000 | University of Evansville |
| Siddartha Naidu | Quantum Computing | 2000 | University of Evansville |
National Science Foundation
The NSF is the primary organization responsible for the coordination
and funding of the various Research Experience
for Undergraduates programs. The map on the right indicates the number and distribution of
programs that come under the NSF umbrella and represent the bulk of the REU programs available.
It is usually unecessary to contact the NSF (although contact info is listed below). Instead,
find the programs that interest you in the NSF list of REUs and directly contact the program
for information and application material. All NSF funded programs are closed to international
students, who must instead look for independent REUs.
