 Chemical and Biomolecular Engineering
Mark Prausnitz, a professor in the School of Chemical and Biomolecular Engineering, holds an array of polymer microneedles that are approximately 1,000 microns tall.
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S.A. Bidstrup Allen
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Basic relationships between the structure, processing, and mechanical properties of polymers.
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T. Fuller
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Electrochemical systems for energy conversion and storage. His interests are in linking fundamental science and technology with practical applications to meet growing energy challenges.
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M.A. Gallivan
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Process control and materials processing. Of particular interest are systems in which the dynamics require explicit consideration of discrete atomic interactions.
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C.L. Henderson
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Microelectronics processing, microlithography, photoresists and imaging materials, microstructures, and microfluidics.
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D. Hess
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Thin film science and technology, microelectronics processing and electronic materials. His group's work focuses on the establishment of fundamental structure-property relationships and their connection to chemical process sequences used in the fabrication of electronic materials and devices.
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J.S. Hsieh
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Chemical and thermomechanical pulping, deinking on recycled fibers, mass transfer and kinetics in oxygen/ozone delignification of wood pulp and many applications of chemical engineering unit operations on pulp and paper processes.
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P.A. Kohl
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Thin film analysis for the development of semiconductors, including high-speed silicon VLSI, GaAs, and photonic devices.
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W. Koros
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Advanced materials for both membrane and barrier applications.
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P. Ludovice
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Use of computer simulation to elucidate the relationship between atomic level structure and properties of synthetic and biological macromolecules.
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J.Carson Meredith
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Application of advanced polymer thin film and colloid materials to novel optical communications and data storage devices, functional biomedical implants, microelectronics, sensors, and engineered coatings and adhesives.
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J. Muzzy
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Composite materials properties and processing.
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R.W. Rousseau
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Crystal nucleation and growth and the role these phenomena have in determining crystal morphology, purity and size distributions.
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A. Sambanis
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Biochemical and biomedical engineering, emphasizing the application of chemical engineering principles towards developing tissue substitutes for restoring metabolic and secretory functions.
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M. White
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Heterogeneous catalysis and kinetics.
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