People: Dynamics In Space And Time
Huck Early Career Professor; Assistant Professor of Biology
The underlying mechanisms for spatial heterogeneities in host disease burden and risk across spatial scales, from regional dynamics to seasonal outbreaks in cities, rural villages, and across borders by assessing regional variations in movement and contact patterns relating to outbreaks and access to health care.
Huck Chair of Epidemiology; Distinguished Professor of Entomology and Biology; Adjunct Professor in Statistics
Population ecology and population dynamics with particular emphasis on mathematical and computational aspects
Associate Professor of Biology
Human influenza epidemiology and evolution, evaluating population-level malaria treatment strategies with individual-based microsimulation models, phylogenetic analysis of avian influenza evolution in southern Vietnam, economic epidemiology of avian influenza, evaluating population-level efficacy of a potential dengue vaccine with mathematical models
Associate Professor of Biology
Immuno-epidemiology of co-infection, how host immunity modulates parasite interactions and transmission and how host molecular processes explain the dynamics of infection at the population level.
Associate Professor of Statistics
Statistical computing (Markov chain Monte Carlo algorithms); spatial models (Gaussian random field models); methods for complex computer models; interdisciplinary collaborations in environmental sciences, climate science, disease modeling, ecology
Former Director, Huck Institutes of the Life Sciences; Willaman Professor of Biology
Population dynamics of infectious diseases in wildlife and the dynamics of parasite community structure.
Professor of Statistics, Department Head
I work on statistical models for networks, mixture models, and certain optimization algorithms called MM algorithms. A full list of papers and related work, such as software, may be found at http://sites.stat.psu.edu/~dhunter/.
Associate Director for Strategic Initiatives, Huck Institutes of the Life Sciences; Huck Distinguished Chair in Global Health; Professor of Microbiology and Infectious Diseases
The basic mechanisms by which pathogenic microbes successfully infect, colonize, and cause disease in their hosts.
Assistant Professor of Biology
Ecological and evolutionary genomics, genetic and ecophysiological basis of adaptation to environmental stress, evolutionary ecology of biological complexity.
Associate Professor of Biochemistry & Molecular Biology, Co-Director, Center for Malaria Research
Our laboratory couples molecular parasitology and structural biology to study the malaria parasite (Plasmodium spp.).
Associate Director of Operations, Huck Institutes of the Life Sciences; Professor of Biology
How physiological variation within species affects their ecology and evolution. Primarily with insects, but recently also with plants, and a particular interest in allelic variation in the pathogen resistance genes of tropical trees.
Assistant Professor of Biochemistry and Molecular Biology
How bacteria adapt to a host environment. The mutualistic symbiosis established between the Hawaiian bobtail squid (Euprymna scolopes) and a bioluminescent bacterium (Vibrio fischeri).
Director, Huck Institutes of the Life Sciences; Evan Pugh Professor of Biology and Entomology; Eberly Professor of Biotechnology
The ecology and evolutionary genetics of infectious disease.
Director of the Center for Neural Engineering; Brush Chair Professor of Engineering; Professor of Neurosurgery; Professor of Engineering Science and Mechanics
Neural engineering, neurosurgery, epilepsy, Parkinsons Disease, wave mechanics, brain machine interfaces, EEG, electrical fields, and control theory.
Professor of Biology
I am a Biomathematican and very recently moved to Penn State from Georgia Tech (I also had appointments at Emory in Public Health and PBEE). Bacteria and their viruses (phages) provide a way to study ecological and evolutionary processes in real time under the well-controlled laboratory conditions. Many of the questions that our group studies lie at the intersection of fundamental science and improving human and animal health. We develop new approaches to mathematical modeling to better understand the role of the physical structure in how bacteria grow and evolve. To complement this computational work, we work closely with microbiologists, biochemists, virologists, physicians, veterinarians, etc. and combine mathematical models with experiments. In recent years I have taught courses in virus dynamics, population genetics, dynamics and bifurcations, advanced linear algebra, and stochastic processes.