Alexander V. Benderskii

Associate Professor of Chemistry

Physical

Our group’s research focuses on the molecular structure and dynamics of surfaces and condensed phase interfaces.

Stephen E. Bradforth

Professor of Chemistry

Physical

Our group designs laser-based experiments to gain a deeper understanding of how the inter-connected motions of molecules impact chemical reactions in complex environments such as the aqueous milieu of cells, molecular liquids, or in functional molecular materials.

Richard L. Brutchey

Professor of Chemistry

Inorganic

Researchers in the Brutchey group focus on developing new methods of inorganic material synthesis to address challenges related to catalysis, energy storage and conversion, and sustainability.

Vadim Cherezov

Professor of Chemistry

Chemical Biology

Physical

Our group is focused on deciphering functional mechanisms of membrane proteins in health and disease, using cutting edge structural, biophysical and biochemical approaches.

Jahan M. Dawlaty

Professor of Chemistry

Physical

We use spectroscopic tools to answer fundamental questions at the intersection of catalysis, electrochemistry, and materials sciences, with special focus on challenges in energy conversion and storage.

Megan Fieser

Gabilan Assistant Professor of Chemistry

Inorganic

Organic

Researchers in the Fieser group are interested in the design of molecular catalysts for the polymerization of degradable polymers and/or the depolymerization of commercial, non-degradable polymers.

Valery Fokin

Professor of Chemistry

Chemical Biology

Organic

We are involved in the broader area of organic synthesis with applications in chemical biology.

Michael S. Inkpen

Assistant Professor of Chemistry

Inorganic

We design and study single-molecule devices and self-assembled monolayers, applying electrochemical and scanning probe microscope-based methods to address fundamental questions in energy storage, catalysis, and electron transfer/transport.

Kyung W. Jung

Associate Professor of Chemistry

Organic

We use organic synthesis and catalysis to explore research areas including RNA-targeting drug discovery and C-H bond activation of methane.

Anna Krylov

USC Associates Chair in Natural Sciences and Professor of Chemistry

Chemical Biology

Physical

Theoretical

The Krylov group develops theoretical methods and state-of-the-art computer codes for treating electronically excited and open-shell species. We apply these tools to study bioimaging, plasma, solar energy, quantum information science, and spectroscopy modeling, often in collaboration with experimentalists.

Daniel A. Lidar

Viterbi Professorship in Engineering and Professor of Electrical and Computer Engineering, Chemistry, and Physics and Astronomy

Physical

Theoretical

We are interested in fundamental and applied questions in quantum information science. Our group explores topics including adiabatic quantum computation and quantum annealing, theory and control of open quantum systems, quantum error correction, quantum algorithms, and physical implementations of quantum computers.

Chi H. Mak

Professor of Chemistry

Chemical Biology

Physical

Theoretical

Our group is focused on formulating rigorous theories and efficient computational strategies to understand the fundamental driving forces that dictate how nucleic acids fold and unfold, and the aberrant functions that result when they misfold.

Smaranda C. Marinescu

Associate Professor of Chemistry

Inorganic

We are interested in the development of novel catalytic systems for efficient solar-to-fuel technologies. Inspired by biological systems, we design molecular catalysts that involve hydrogen bonding networks capable of small molecule activation through multiple proton and electron transfers.

Charles E. McKenna

Professor of Chemistry

Chemical Biology

Organic

We are a drug discovery and medicinal chemistry lab using organic synthesis, computer-assisted design modeling, and a network of more than 20 biological collaborators to devise and develop molecules for the treatment of viral, bacterial and fungal infections, as well as cancer. Another area of interest is the creation of novel imaging agents targeting bone diseases.

Brent C. Melot

Professor of Chemistry

Inorganic

The Melot group works on all aspects of materials design, meaning that we synthesize new compounds, study their atomic structure, and characterize their functional properties. Current topics include photovoltaics, intercalation electrodes for Li-, Na-, or F-ion batteries, and heterogeneous catalysts for sustainable chemistry.

Elias Picazo

Assistant Professor of Chemistry

Organic

The Picazo group is interested in transition metal catalysis, selective catalysis, and synthesis. With a special focus on base metal catalysts, we aim to solve long-standing challenges in synthesis. Lastly, we aim to use the newly developed reactions to synthesize molecules of interest.

G. K. Surya Prakash

Distinguished Professor of Chemistry and Chemical Engineering and Materials Science – George A. and Judith A. Olah Nobel Laureate Chair in Hydrocarbon Chemistry

Organic

Our research centers on hydrocarbon, synthetic organic, organosilicon and organofluorine chemistry with special emphasis in areas of energy, catalysis, and greenhouse gas abatement. We are particularly focused on carbon dioxide capture from air and sustainable carbon recycling through a concept called the methanol economy.

Matthew R. Pratt

Professor of Chemistry

Chemical Biology

Organic

We are interested in the biological consequences of protein posttranslational modifications, with a focus on glycosylation. We utilize a combination of organic synthesis, bioorthogonal reactions, and synthetic protein chemistry to accomplish these goals.

Oleg V. Prezhdo

Professor of Chemistry

Physical

Theoretical

We study excited state processes in a broad range of materials and molecules for energy and opto-electronics applications. For this purpose, we develop nonadiabatic molecular dynamics and time-dependent density functional theory.

Peter Z. Qin

Professor of Chemistry

Physical

Chemical Biology

We are interested in understanding the mechanisms of specific recognition of nucleic acids that inform genome engineering as well as developments in diagnostics and therapeutics. We use Site-Directed Spin Labeling (SDSL) and other tools to study the relationship between structure, dynamics, and function in nucleic acids and protein-nucleic acid complexes.

Hanna Reisler

University Professor, Lloyd Armstrong, Jr. Chair for Science and Engineering and Professor of Chemistry

Physical

We study detailed mechanisms of photoinitiated chemical reactions in gas and condensed phases. Our goal is to understand reactive processes at a fundamental level, in particular those important in the atmosphere.

Richard W. Roberts

Professor of Chemistry, Chemical Engineering and Materials Science

Chemical Biology

Organic

Physical

Our research involves engineering new peptides and proteins for biology, diagnosis, and therapy using mRNA display.

Susumu Takahashi

Associate Professor of Chemistry

Physical

We are interested in developing novel magnetic resonance techniques for tests of fundamental science in quantum physics, investigations of nanoscale magnetism/spin dynamics, and applications to biological imaging and sensing.

Barry C. Thompson

Department of Chemistry Chair
Professor of Chemistry

Organic

We use organic synthesis and develop new polymerization methods and polymer architectures to address sustainability and materials for alternative energy applications.

Mark E. Thompson

University Professor, Ray R. Irani Chairman of Occidental Petroleum Corporation Chair in Chemistry and Professor of Chemistry – Fellow of the National Academy of Engineering

Inorganic

Physical

We are interested in the optical and electronic properties of molecular materials, with an eye toward materials used to create organic LEDs, solar cells, and catalysts for solar fuels.

Andrey Vilesov

Professor of Chemistry

Physical

We specialize in the spectroscopy of molecules and molecular ions isolated in superfluid helium droplets and the study of quantum fluids on an atomic scale.

Arieh Warshel

Distinguished Professor of Chemistry – Fellow of the National Academy of Sciences – Nobel Laureate in Chemistry

Chemical Biology

Physical

Theoretical

We develop and use advance computer simulations to elucidate the functions of key biological molecules, with an overarching goal to help alleviate human suffering. Our methods help to elucidate how chemical reactions are catalyzed by enzyme and to progress in enzyme design. We also use our simulations to study the action of very large biological molecules, including molecular motors, ion channels and systems that control signal transduction in the cell. Additionally, we focus a significant effort on computer aided drug design and on fighting drug resistance.

Kate L. White

Gabilan Assistant Professor of Chemistry

Chemical Biology

Our research aims to help bridge the gap between structural biology and physiology by pioneering new experimental and computational tools for multi-scale structural biology (atomic to cellular scales). A major focus is the multi-scale structure and function of pancreatic β-cells and the chemical environment of insulin vesicles. Our approach to cell mapping utilizes a combination of multi-modal imaging, biophysical approaches, and integrative modeling (metamodeling) to relate multi-scale structure to cell function.

Travis J. Williams

Professor of Chemistry

Inorganic

Organic

We are interested in studies of organometallics and catalysis and are applying them in projects ranging from designing new catalytic systems for synthetic fuels and fine chemicals to reclaiming value from waste polymers and materials.

Curt Wittig

Paul A. Miller Professor of Letters, Arts and Sciences

Physical

Our group’s research addresses fundamental issues germane to a number of interesting and relevant gaseous and condensed phase (liquid and solid) environments.

Chao Zhang

Associate Professor of Chemistry

Chemical Biology

Organic

Research in the Zhang group focuses on the discovery and mechanistic study of novel small-molecule modulators of diverse proteins using a combination of techniques including structure-based design, organic synthesis, and chemical proteomics.