Theoretical immunology uses mathematical models to understand the evolution and diversification of immune systems across all organisms. System-wide models account for the complexity inherit in a broad expanse of immune functions and the accompanying multifactorial causation of these activities. Measurements have greatly expanded the potential factors to be analyzed and have increased the complexity of the mathematical models required for determining how immune processes operate and relate to various physiological conditions.
Researcher | Department | Research Interests | |
---|---|---|---|
Judy Day | Mathematics; Electrical Engineering & Computer Science | Mathematical modeling and control, dynamical systems, model predictive control, acute inflammation/immunology | |
Vitaly Ganusov | Microbiology; Mathematics | Mathematical modeling of CD8 T cell responses to acute and chronic infections | |
Tian Hong | Biochemistry and Cellular & Molecular Biology | Computational systems biology | |
Suzanne Lenhart | Mathematics | Optimal control, population and environmental models, natural resource modeling, disease models | |
Andreas Nebenführ | Biochemistry & Cellular and Molecular Biology | Cell biology of organelle movement in Arabidopsis | |
Olivia Prosper | Mathematics | Mathematical biology, modeling disease dynamics, population dynamics, optimal control |
NIMBioS
1122 Volunteer Blvd., Suite 106
University of Tennessee
Knoxville,
TN 37996-3410
PH: (865) 974-9334
FAX: (865) 974-9461
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