Organic, Medicinal and Drug Discovery

Organic chemistry, a major chemical discipline for over a century, focuses on the chemistry of carbon, developing new reactions, understanding their mechanisms, and applying this knowledge to the synthesis of natural and unnatural products. Our department has historical strengths in the synthesis of synthetic and natural polymers and bioactive molecules, such as drugs. Professor Bae is involved in the organic synthesis of novel organic polymers for use in fuel cells (also see Polymers, Materials and Energy).

Cheminformatics and Computational Chemistry

Computational chemistry is a branch of chemistry that uses computer simulations or descriptor-based machine learning/artificial intelligence techniques to assist in solving chemical problems. Scientists incorporate methods of theoretical chemistry into efficient computer programs to calculate the structures and properties of molecules and solids. While computational results normally complement the information obtained by chemical experiments, it can also be used to predict previously unobserved chemical phenomena.

Biotechnology and Biomaterials

Biotechnology harnesses cellular and biomolecular processes to develop products that help improve our lives and the health of our planet. This includes activities such as genetic engineering as well as cell and tissue culture technologies. Biotechnology is providing breakthrough products to combat debilitating and rare diseases, reduce our environmental footprint, feed the hungry, provide cleaner energy as well as green and sustainable manufacturing processes. Biotech uses processes such as fermentation and biocatalysts such as enzymes and microbes.

Analytical and Bioanalytical Chemistry

The disciplines of analytical and bioanalytical chemistry aim to improve/expand methods and/or develop new instrumentation for chemical and biochemical analyses. These new tools and methods are then applied to new or complex chemical problems to provide qualitative (i.e. what is it?) and quantitative (i.e. how much?) information of analytes within a sample, or to probe the behavior of complex molecular systems in areas such as materials, biomaterials, energy, and biology.

Chemistry

Students in the Chemistry M.S. program have access to the same opportunities to experience research in the frontiers of chemistry and interdisciplinary fields as students in the Ph.D. program, but in a less intense manner and with emphasis on ensuring a sound program of coursework.

Students must complete 30 credit hours of research and course work, 15 of which must be at the 6000–9990 level. In addition, these students must submit a research thesis.

Program Outcome

Chemistry

In order to remain at the frontier of modern Chemistry and Chemical Biology, the department emphasizes rigorous instruction in the fundamentals of chemical synthesis, characterization and function using the most modern methods and equipment available to explore the boundaries and intersections between traditional fields of study. This dedication is illustrated by the number of interdisciplinary centers associated with the Chemistry and Chemical Biology Department —all of which involve significant bridges between Chemistry and other disciplines, departments, and schools.

Chemistry

Enriching the Foundation in Chemistry or Chemical Biology Beyond a Bachelor’s Degree

A master's degree is becoming increasingly valuable. A master’s degree in chemistry enables students to round out their educations before embarking on their professional career. Accelerated master's degree programs save the cost and study time of graduate admission tests, application fees, and extra courses.

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