Co-Director, Center for Biorenewables; Associate Professor of Biology
In vivo imaging of plant cell wall dynamics. Molecular genetic analysis of genes involved in cell growth. Cell wall biosynthesis in dividing cells. Cell wall engineering for sustainable bioenergy production.
Associate Professor of Plant Science
Environmental plant physiology. Controlled and modified environments for plant growth. Eco-roofs, rooftop greening, and other uses of plants in distributed stormwater management systems.
Ernest C. Pollard Professor of Biotechnology; Professor of Biochemistry and Molecular Biology
Photosynthesis, structure-function relationships of proteins, gene regulation, and microbial physiology. Cyanobacteria and green sulfur bacteria. Genomics of photosynthetic bacteria.
Professor of Molecular Genetics; Director, Schatz Center for Tree Molecular Genetics
Genome mapping, including genetic linkage mapping, molecular cytogenetics; studies of genetic diversity in forests.
Professor of Agricultural and Biological Engineering
Cellulose synthesis and organization, cellulosic composites and coatings, microbial cellulose production, and chemically powered microfluidic and biological devices and sensors.
Eberly Chair and Professor of Biology
Mechanism of plant growth. Function and evolution of expansins. Biochemistry and rheology of plant cell walls. Growth responses to light, hormones, and water stress and other stimuli.
Assistant Professor of Vegetable Crop Science
Plant nutrition, plant physiological and biochemical response to environmental and abiotic stress conditions, sustainable vegetable production, agrobiodiversity, agronomic biofortification, food and nutrition security.
Professor of Plant Genetics
Genetic characterization of resistance/tolerance to biotic/abiotic stresses, and genes/QTLs contributing to tomato fruit quality. Investigation of genes/QTLs for directed crop improvement and germplasm enhancement. Tomato cultivar development & release.
Professor of Biochemistry and Biophysics
Light reactions in photosynthesis. Structure and function of photosystem I and the heliobacterial reaction center. Regulation and bioassembly of iron-sulfur clusters in cyanobacteria and plants. Plant and bacterial metalloproteins. Generation using Photosystem I, hydrogenase, and molecular wire technology.
J. Franklin Styer Professor of Horticultural Botany; Professor of Plant Molecular Biology; Director, Endowed Program in the Molecular Biology of Cocoa
Plant functional genomics, metabolomics and biotechnology. Identification of key genes for disease resistance and important traits in the tree crop Theoboma cacao, the Chocolate tree.
Chair, Intercollege Graduate Degree Program in Ecology; Professor of Soil Biogeochemistry
Ecosystem ecology; global change biology; biogeochemistry of nitrogen and carbon cycling in managed and unmanaged ecosystems.
Associate Professor of Production Systems and Modeling
Agricultural Systems, Agricultural and Natural Systems Modeling, Soil Carbon and Nitrogen Cycling, Bioenergy Systems, Coupled Hydrologic and Nutrient Modeling, and Plant Competition
Assistant Professor of Biology
Ecological and evolutionary genomics, genetic and ecophysiological basis of adaptation to environmental stress, evolutionary ecology of biological complexity.
Professor of Biochemistry and Molecular Biology
Structural and functional basis of cellulose synthesis. Using Physcomitrella patens and other organisms as model systems, we are learning how plants make cellulose for building new cell wall. The studies use methods of molecular biology and cryoEM to characterize the enzyme as a monomer, and when it assembles into its larger 'Cellulose Synthase Complex '(CSC for short). The aim is to understand cellulose synthesis to explain fundamentals of cell wall biology in plants, and to enable manipulation of its synthesis for applications in fields of bioenergy and materials.
Associate Professor of Ecosystem Science and Management
Analysis of natural resources systems; wood identification and taxonomy; forest industry economics; wood products operations management; process control, simulation, and optimization; statistical quality control; relationships of wood, moisture, product properties, and environmental emissions; artificial intelligence; lean manufacturing; quality management systems.
Professor of Agricultural and Biological Engineering
Application of fundamental engineering science to microbial ecosystems, developing innovative strategies for a more sustainable agriculture and the emerging bio-based economy.
Associate Professor of Chemical Engineering; Associate Professor of Agricultural and Biological Engineering
Engineering microorganisms for applications in synthetic biology and metabolic engineering.
Assistant Professor of Chemical Engineering
Micro- and nanoengineered soft materials for medicine and the environment; microfluidic-enabled biomaterials for tissue engineering and regeneration; living materials; next-generation bioadhesives, tissue sealants, and hemostatic agents; hydrogels for minimally invasive medical technologies; self-healing and adaptable soft materials; smart coatings; hairy nanocelluloses as an emerging family of advanced materials.
Professor of Biochemistry & Molecular Biology
Characterization and biochemical analysis of cellulose synthesis in a variety of organisms. Mechanism and regulation of fungal degradation of lignin. Dissimilatory Iron reduction.
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.