Duquesne University Biochemistry Pittsburgh, PA Overview Duquesne University has a total enrollment of more than 9,500 students in its ten schools. With 176 graduate students and 36 faculty members in the graduate programs in the Bayer School of Natural and Environmental Sciences, the University offers students a highly personalized learning and advisement environment. The Location and Community Programs of Study and Degree Requirements Graduate students begin laboratory research during their first semester in residence and participate in two semester-long research rotations in the laboratories of two different investigators during their first year. First-year students enroll in several short, intensive courses that emphasize applied research skills. Students typically do not enroll in any other courses during the first year, allowing complete focus upon research during this period. At the end of the first year, students are advanced to Ph.D. candidacy based upon successful completion and defense of their research rotation projects. Academic requirements during the second and subsequent years are determined by the student's dissertation committee and are designed on an individual basis. Candidates for the Ph.D. degree are required to submit and defend an original research proposal in an area unrelated to their dissertation research. The department sponsors a weekly research colloquium series that features speakers from academia, industry, and government. For the M.S. degree, a minimum of 30 semester hours of combined course and research credits are required.
Facilities & Resources Expenses and Aid Financial Aid: Housing/Living Expenses: How to Apply Who to Contact 412-396-4900 E-mail: gradinfo@duq.edu The Faculty and Reasearch • Jennifer Aitken, Associate Professor; Ph.D., Michigan State. Solid-state inorganic materials chemistry: elucidation of new crystal structures, synthesis and study of novel solid-state materials with potential use in optical and electronic technologies, crystal growth. • Partha Basu, Assistant Professor; Ph.D., Jadavpur (India), 1991. Inorganic chemistry: synthesis, structure, reactivity, and magnetic interactions of biological and model molecules. • Bruce D. Beaver, Associate Professor; Ph.D., Massachusetts, 1984. Organic chemistry: oxygenation of organic molecules, development of new antioxidants, oxidative degradation of petroleum products, chemistry of wine making. • Charles Dameron, Associate Professor; Ph.D., Texas A&M, 1987. Biochemistry: metals in biology, understanding how metals are chaperoned by proteins and exchanged between proteins. • Jeffrey D. Evanseck, Associate Professor; Ph.D., UCLA, 1990. Theoretical and computational chemistry: quantum and classical simulations coupled with experiment, energy landscapes of biomolecules, novel ionic liquids for catalysis, influence of solvent on organic reaction mechanism, supramolecular complexation for nanotechnology. • Fraser F. Fleming, Associate Professor; Ph.D., British Columbia, 1990. Organic chemistry: application of the chemistry of α,β-unsaturated nitriles to the synthesis of anti-AIDS and anticancer drugs; synthesis of natural products. • Ellen Gawalt, Associate Professor; Ph.D., Princeton. Bioorganic and materials chemistry: chemical modification of metal oxide surfaces used in biomaterials and reaction mechanisms of interfacial reactions. • Mitchell E. Johnson, Assistant Professor; Ph.D., Massachusetts Amherst, 1993. Analytical chemistry: trace analysis of molecular species, fluorescence spectroscopy, high-speed separations, biochemical analysis. • Shahed Khan, Associate Professor; Ph.D., Flinders (Australia), 1977. Physical chemistry: electrochemistry, photoelectrochemistry, solar energy conversion by thin-film organic and inorganic semiconductors, electrocatalytic biosensors, electrosynthesis of conducting polymers, electrochemical surface modification, theory of electron transfer reactions in condensed medium, effect of solvent dynamics on electrochemical electron transfer reactions. • H. M. Kingston, Professor; Ph.D., American, 1978. Analytical and environmental chemistry: microwave chemistry application, environmental methods and instrument development, speciated analysis, ICP-MS clean-room chemistry, chromatography, laboratory automation. • Jeffry D. Madura, Associate Professor and Chair; Ph.D., Purdue, 1985. Theoretical physical chemistry: computational chemistry and biophysics, classical simulations of biomolecules, Poisson-Boltzmann electrostatics coupled to molecular dynamics, simulation of proteins at ice/water interface, simulation of biomolecular diffusion-controlled rate constants, quantum mechanical calculation of small molecules. • David W. Seybert, Professor and Interim Dean; Ph.D., Cornell, 1976. Biochemistry: lipid peroxidation in biomembranes and lipoproteins, antioxidants and inhibition of LDL oxidation, mechanism and regulation of cytochrome P450 catalyzed steroid hydroxylations. • Omar W. Steward, Professor; Ph.D., Penn State, 1957. Inorganic chemistry: synthesis and structural studies of carboxylato metal complexes by X-ray diffraction; magneto-structural studies of transition metal complexes with organosilicon ligands; organosilicon and organogermanium compounds; structure-reactivity studies. • Julian Talbot, Associate Professor; Ph.D., Southampton (England), 1985. Theoretical physical chemistry: statistical mechanics, Monte Carlo and molecular dynamic simulation of classical systems, theory of adsorption kinetics and equilibria, biomolecules at interfaces, gases in porous solids. • Theodore J. Weismann, Adjunct Professor; Ph.D., Duquesne, 1956. Physical chemistry: mass spectrometry, ion optics, free radical reactions, organoboron chemistry, geochemistry, stable isotope MS, petroleum source and characterization. |