Tags: Graduate

Classical and statistical thermodynamics applied to chemical reactions, phase equilibria and solutions. The thermodynamic properties of macroscopic matter in terms of the molecular properties. Boltzman, Bose-Einstein and Fermi-Dirac distributions and their applications to physical and chemical systems.
A selected specialized area of analytical chemistry. Emphasis is on current topics in cutting edge research, as presented in recent journal literature. Representative topics include Fourier transform methods, etc.
Nanomaterials are at the forefront of areas as diverse as energy conversion & storage, environmental remediation, and nanobiosystems. Focuses on understanding methodologies for the formation (e.g., molecular self-assembly, photolithographic patterning, electrochemistry) and characterization (e.g., optical spectroscopy, atomic force microscopy, scanning tunneling microscopy, and scanning electron microscopy) of nanomaterials.
Selected principles of analytical chemistry such as: techniques of analytical separations, including liquid and gas chromatography and electrophoresis; sampling theory; and chemometrics, including experimental design, statistics and data evaluation.
Instrumentation and methods used for spectrometric measurements with particular emphasis on vibrational spectroscopy (infrared and Raman). Physical theory, optical principles, experimental methodology, modern instrumental design, and numerical data processing are covered.
Surfaces and thin films, including the construction and use of ultra-high vacuum apparatus. Various microscopy and elemental analysis techniques are investigated, including XRD, SEM, STM, AFM, LEED, Auger spectroscopy, XPS, EPMA and others.
Analog and digital electronic circuit design and construction, as well as the interfacing of computers to laboratory instrumentation.  Offered fall semester.
Electrochemistry and electroanalytical chemistry, including the treatment of mass transport, interfacial and coupled chemical processes; the thermodynamics, kinetics and mechanisms of electron transfer processes; and electrochemical methodologies including controlled-potential or controlled-current methods under transient and steady-state conditions.
Modern methods of mass spectrometry covering fundamental principles, instrumentation, and data interpretation. New techniques for the structural analysis of biomolecules.
Specialized research topics in organic chemistry. Emphasis is given to recent literature descriptions of cutting edge research. Topics include X-ray crystallography, natural products, and heterocyclic chemistry.