Research Opportunities
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M.S. and Ph.D. Programs in Applied Mathematics
These degrees are designed to give candidates a contemporary,
in-depth education in applied mathematics and to provide research
opportunities in the special fields of
- computational mathematics
- computational and mathematical biology
- discrete mathematics
- mathematics of science and engineering
- optimization
- probability
- statistics
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| Figure: temperature distribution
over a ramp (produced under the direction of Dr. Leo Franca) |
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Ideas for research could come from working with a
faculty on a research project
Faculty are involved in a wide array of research
projects. Here are just a few:
- Image processing and radiation therapy: A variety of
optimization methods are used to develop methods of delivering
radiation to tumors with minimal damage to healthy tissue; the same
research has led to improvements in image understanding and diagnosis.
- Molecular biology: Linear programming methods, once
applied to problems in business and management, are now used to
understand metabolic pathways and the regulation of genes.
- Population genetics: Mathematical models relying on
differential equations are used to predict the evolution of multiple
traits in a selective gene pool.
- Graph theory applications: Algorithms being designed
to handle problems in DNA mapping and quantum random walks.
- Operations research:
modeling, analysis and computation of solutions to a wide variety of
problems in government, industry, and science.
Ideas for research could come from a Mathematics
Clinic
This is a project-driven course designed to illustrate the
applicability and utility of mathematics in many problem areas in
private and public sectors. Students apply their analytical
skills to various problems in business and government. Past clinics
have included medial image processing and radiation therapy, biomedical
modeling, survivability of Mars landers, genetic algorithms, cancer
models and detection, calibration of water distribution networks,
mobile robot planning, and many more. See our Clinic home at http://www-math.cudenver.edu/clinic/.
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- Oil reservoir recovery: Partial differential
equations are used to model the recovery of oil from reservoirs and the
underground flow of contaminants.
- Environmental issues: Multivariate spatial models
are used to assess environmental equity (the association between
locations of toxic facilities and local population demographics) and to
aid the U.S. Environmental Protection Agency in siting decisions for
new facilities.
- Weather and climate: Spatio-temporal statistical
models for rainfall, weather conditions, and soil characteristics are
used to assess uncertainty in crop models.
- Computational mechanics and fluid dynamics: State
of the art software and parallel computers are used to model sound
propagation in fluids and solids, and the deformation of solid bodies.
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Figure: Thin plate spline estimate of the crop
wilting point based on soil composition data (produced under direction
of Dr. Steve Sain).
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Ideas for research could come from a Center
Participation
The Mathematics Department has played the leading role in establishing
and sustaining the Center for
Computational Mathematics and the Center for Computational Biology
(two broad-based responses to the rapid and dramatic changes in these
fields. The centers are multidisciplinary, intercampus organizations,
and most faculty members participate in their activities. In addition
to the centers, the department offers as many as five different
colloquium series that feature regular talks by both local and visiting
researchers.
Important Features of Faculty Research
- research is collaborative
- there is considerable overlap and interaction between various
research groups in the Department
- students participate in research projects
- we bridge of the gap between theory and practice through the
development and analysis of mathematical models
- collaborations involve other departments within the CU system,
notably Engineering and the CU Medical School.
Computing Resources
The computer network includes workstations in offices and public areas,
color printers and data projectors, wireless access, a high-speed
backbone and Internet link, several Linux and Unix multiprocessor
servers, and a 72-node Beowulf cluster consisting of 36 Dual Pentium
III 933 MHz 2GB RAM nodes, connected by a Dolphin supercomputer
interconnect.
This page last modified Monday, 07-Apr-2008 11:27:03 MDT.
Maintained by
the Webmaster.
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