Adjunct Research Professor of Chemical Engineering and Materials Science
Reservoir Monitoring, Seismic Acquisition & Processing, Seismic Attributes, E&P Risk Analysis, Petroleum Economic Assessment, Micro earthquake data analysis, Shale gas/oil elastic modeling and amplitude versus offset (AVO), 4D Seismic, Reservoir Characterization
Ray Irani Chair in Chemical Engineering and Materials Science and Professor of Chemical Engineering and Materials Science, Biomedical Engineering, Electrical and Computer Engineering-Electrophysics, and Aerospace and Mechanical Engineering
Research in the Armani Lab combines optics and material synthesis to enable biological and chemical detection as well as therapeutic development. Current projects in photonics are focused on integrating optical components on silicon for telecommunications and biosensing applications. Active bio/chem sensor related projects include the development of a portable optical sensor for water monitoring, the design and demonstration of a new instrument with improved temporal resolution (sub-microsecond), and the detection of cell signaling. Material synthesis and growth is focused on optically active dielectric...
The Dr. Karl Jacob Jr. and Karl Jacob III Early-Career Chair and Assistant Professor of Biomedical Engineering, Chemical Engineering and Materials Science, Surgery, and Medicine
Dr. Chung's lab utilizes self-assembly, molecular design, and tissue engineering to generate biomaterial strategies to address the limitations of clinical solutions. One primary focus of our research involves the design and application of self-assembling, peptide amphiphile micelle nanoparticles for cardiovascular and cancer theranostics. Through targeting elements, micelles are tailored to directly bind to sites of diseased tissue for enhanced efficacy, while limiting side effects to normal tissues. Moreover, our goal is to incorporate imaging components within micelles that are relevant for clinical modalities...
Professor of Medicine and Chemical Engineering and Materials Sciences; Kenneth T. Norris, Jr., Chair in Medicine; Hastings Foundation Professorship in Medicine
Dr. Crandall's research has been focused on the following topics: markers of alveolar epithelial cell development and differentiation, regulation of pulmonary epithelial cell differentiation, acute and chronic lung injury and the factors that influence recovery, transport properties of pulmonary alveolar epithelium, and biology of nanoparticle interactions with alveolar epithelial cells.
William M. Keck Chair in Engineering and Distinguished Professor of Electrical and Computer Engineering, Chemical Engineering and Materials Science, and Physics and Astronomy
Photonics, MOCVD & III-V materials vertical cavity surface emitting lasers, novel photonic devices.
Assistant Professor of Chemical Engineering and Materials Science and Gerontology
The Graham Lab focuses on using system biology approaches to understand and develop novel therapeutic approaches for cancer and other human diseases. We specialize in using mass spectrometry and other quantitative, high-content technologies to generate proteomic and metabolomic data from cancer cell lines, mouse models and human patient samples. Through integration of proteomic, metabolomic, genomic and phenotypic data, we aim to create data-driven computational models across multiple components and time scales. These models enable us to extract biological meaning from quantitative, complex data sets. Drawing on...
Lloyd F. Hunt Chair in Electrical Power Engineering and Professor of Electrical and Computer Engineering, Chemical Engineering and Materials Science, and Physics and Astronomy
Research activities are in applied plasma science with applications to combustion, pollution control, and pulsed power; quantum electronics, semiconductor devices and physics, and biophysics. Current interests include applications of pulsed power to biological cells, and investigation of cellular responses to pulsed electrical fields. Plasma research includes the transient plasma devices for treatment of polluting gases including NOx emissions from diesel engines, VOC emissions abatement, and applications to power plants, gasoline engines and other sources. The work combines research and development of both...
Arthur B. Freeman Professor and Professor of Chemical Engineering and Materials Science
My research focus is in the area of Nanomechanics, nanocrystalline materials processing, high temperature mechanics, thin and thick film coatings, biomaterials mechanics and foam processing.
Associate Professor of Chemical Engineering and Materials Science, Electrical and Computer Engineering, and Civil and Environmental Engineering
I work at the interface of computational geoscience and systems science and engineering to better understand, characterize, and predict complex subsurface flow and transport processes in order to optimize the development of subterranean energy, water, and environmental resources. The research in my lab, Subsurface Energy and Environmental Systems (SEES) Lab, integrates advanced computational and mathematical tools with the physics of multiphase flow in porous media to solve energy and environmental problems in geosciences. Examples of energy and environmental applications that we study include conventional and...
Assistant Professor of Petroleum Engineering
I am interested in coupled multi-physics processes of flow, transport, and mechanical deformation in porous media. I emphasize a mathematical and computational approach in studying geophysical systems to identify the dominant coupling mechanisms and expressing them in the form of reduced-order models.
Professor of Physics and Astronomy, Computer Science, Chemical Engineering and Materials Science, and Biomedical Engineering
Computing technology will grow by a factor of more than a thousand in the next ten to fifteen years. Our goal is to follow this computing revolution from teraflops (1012 flops) to petaflops (1015 flops). Using this unprecedented computing power, available for the first time in the history of science and engineering, it will be possible to carry out realistic simulations of complex systems and processes in the areas of materials, nanotechnology, and bioengineered systems. Coupled with immersive and interactive visualization this will offer unprecedented opportunity for research as well as modifying graduate and...
Part-Time Lecturer of Chemical Engineering and Materials Science
The researches had been focused on optimization of oil and gas reservoir performance through comprehensive integrated subsurface studies, encompassing various aspects of reservoirs, including environmental studies, production performance analysis, PVT analysis, core analysis (routine and SCAL), fracture assessment, fracking, reservoir characterization (geological, petrophysical and geophysical), well test analysis, reservoir simulation, improved and enhanced oil recovery, and economical evaluation.
Associate Professor of Chemical Engineering and Materials Science
The photocontrolled binding of light-sensitive surfactants onto proteins is being investigated as a means to control protein folding with light irradiation. These photosensitive surfactants undergo a reversible photoisomerization upon exposure to the appropriate wavelength of light, with the visible-light form of the surfactant being more hydrophobic than the UV-light form. As a consequence, the visible-light form exhibits enhanced binding to the hydrophobic domains of the protein compared to the UV-light form of the surfactant. Light scattering and small-angle neutron scattering have recently revealed that this...
Associate Professor of Clinical Medicine and Chemical Engineering and Materials Science
As a basic science researcher, Dr. Lee is dedicated to combining cell biology, molecular biology, and engineering approaches to develop novel techniques to elucidate the interplay between biophysical and biochemical drivers of age-related diseases at the single cell and tissue scales. His work has revealed novel key role of Cdc42, one of the RhoGTPases, in mediating nucleus movement and rotation in response to fluid flow. Dr. Lee also led the development of ballistic intracellular nanorheology (BIN) assay used to obtain real-time measurements of intracellular viscoelastic differences in migrating cells grown in...
Kenneth T. Norris Professor in Engineering and Professor of Chemical Engineering and Materials Science, Biomedical Engineering, and Electrical and Computer Engineering
Anupam Madhukar examines fundamental and applied issues relating to growth, in-situ processing, and structural and optical studies of III-V semiconductor based quantum nanostructures (quantum wells and quantum dots) for applications in information sensing and processing with the current focus on on-chip single photon source based quantum optical circuits.
Professor of Chemical Engineering and Materials Science and Chemistry
Research in the Malmstadt laboratory focuses broadly on the topic of engineered interfaces. We study this both in terms of the central interface in biology—the cell membrane—and in microfluidic systems, where fluid-fluid and fluid-solid interfaces play key roles in system performance. We build synthetic systems for studying how lipid composition and oxidative processes change the medically relevant properties of cell membranes. We also build systems for studying how neurobiologically important receptor proteins are altered by their local lipid environment, with the long-term goal of tuning this...
Senior Lecturer of Chemical Engineering and Materials Science
Expertise: Research and development on low-latency high-performance algorithms and software, massively parallel molecular simulation software on peta-to-exascale computing platforms, interactive and immersive visualization tools, software disseminations and outreaches for computational materials science.
M.C. Gill Chair in Composite Materials and Professor of Chemical Engineering and Materials Science and Aerospace and Mechanical Engineering
Dr. Nutt's research group focuses on processing science for fiber-reinforced composites, including experimental determination of mechanisms (resin flow, air removal, compaction) and underlying scientific principles governing production of composite laminates and composite structures. Hallmarks of the group include in situ process diagnostics, design/build of instrumented test beds, and coupling with process modeling. The scope of research encompasses composites for aerospace, wind energy, and automotive applications, and emphasizes prepregs and liquid molding processes. Additional topics include...
Fluor Professor in Process Engineering and Professor of Chemical Engineering and Materials Science and Electrical and Computer Engineering
Dr. Qin's research interests include big data, process data analytics, statistical process monitoring, fault diagnosis, model predictive control, system identification, multi-step manufacturing control, and control performance monitoring.
Assistant Professor of Chemical Engineering and Materials Science and Electrical and Computer Engineering
I am interested in the physics, materials science, and applications of emerging complex materials. The systems of interest range from ionic oxide materials to more covalent chalcogenides. My group is studying both thermodynamically stable materials, and metastable systems in the film form to achieve the desired functionalities in these systems. Our synthetic capabilities range from bulk ceramic processing, single crystal growth, to state-of-the-art thin film growth techniques with in situ and real time structural and chemical characterization methods. My group also specializes in transport measurements (primarily...
Professor of Chemistry, Chemical Engineering and Materials Science, Biomedical Engineering, and Molecular and Computational Biology
Prof. Roberts lab uses mRNA display to design new peptides and proteins exploring fundamental aspects of molecular recognition, strategies for new drug development, and probes for biological systems.
WISE Gabilan Assistant Professor and Assistant Professor of Chemical Engineering and Materials Science and Chemistry
Shaama's research focuses on developing catalysts and photocatalysts to meet energy-efficiency and sustainability goals. Her group utilizes quantum chemistry to find active, selective, and stable catalytic materials for efficient valorization of CH bonds and green conversion of anthropogenic carbon dioxide. Shaama is also keen on making quantum chemical predictions more reliable. She is developing algorithms inspired from signal processing to make otherwise prohibitive but accurate kinetics theories more tractable for routine studies.
Professor of Electrical and Computer Engineering, Chemical Engineering and Materials Science, Biomedical Engineering, Physics and Astronomy, and Ophthalmology
Professor Tanguay's research interests and experience include the crystal growth and characterization of optical and optoelectronic materials; dielectric and optical thin film physics; thin film deposition technology and characterization; device processing by ion beam milling and etching techniques; electronic/photonic packaging including multichip module integration by flip-chip bonding; physical optics; the physics and technology of electrooptic, optoelectronic, and integrated optical devices (including spatial light modulators, photorefractive volume holographic optical elements, diffractive optical elements,...
Dean's Professor in Chemical Engineering and Materials Science, Biomedical Engineering, Computer Science, and Physics and Astronomy
Vashishta previously taught at LSU where he was the Cray Professor of Computational Science, a post he assumed after years as a senior research scientist at Argonne National Laboratory. A fellow of the American Physical Society, he has edited or co-edited 10 books and is the author or co-author of more than 240 papers.
Robert G. and Mary G. Lane Endowed Early Career Chair and Associate Professor of Electrical and Computer Engineering and Chemical Engineering and Materials Science
Our research is at the intersection of nano-electronics, nanophotonics and materials science, exploring topics such as:
Zohrab A. Kaprielian Fellow in Engineering and Professor of Chemical Engineering and Materials Science and Biomedical Engineering
The Wang laboratory focuses on an emerging field of “immunobioengineering” with the aim of employing engineering tools and principles to quantitatively understand the immune system in health and disease and to develop novel molecular and cellular immunotherapies by precisely modulating disease-specific immune responses. The ongoing research research projects include: 1) exploring various strategies to engineer virus-derived vector systems for dendritic cell-targeted vaccine delivery and oncolytic virus-based immunotherapy; 2) designing and optimizing cellular immunotherapy that is based on molecular...
Dana and David Dornsife Chair in Chemistry and Distinguished Professor of Chemistry and Biochemistry and Chemical Engineering and Materials Science
Arieh Warshel and his coworkers have spearheaded key approaches for simulating the functions of biological molecules, including introducing molecular dynamics in biology; developing the quantum mechanical/molecularmechanical
Associate Professor of Chemical Engineering Practice
I have always had a passion for process control and modeling especially applied to chemical reactors. Understanding the behavior of reaction processes is one experience that broadened my interest into process design and process safety. As a member of the faculty at USC, I am able to couple my passion for engineering with the personal joy I get from teaching and learning. I strive to enhance and anchor my students’ educational experience by using my industrial experience.
Assistant Professor of Chemical Engineering and Materials Science (starting Fall 2020)
Cellular membranes provide critical interfaces for the biochemical interactions that regulate cell behavior and function. These membranes are composed of a heterogeneous mixture of lipids and proteins. Understanding and controlling biomolecular interactions that occur at membranes is challenging owing to the inherent ability of the membrane environment to functionally couple interactions between proteins and lipids. Nonetheless, elucidating the interplay between proteins and lipids in biological membranes is important for a variety of applications such as pinpointing the mechanisms of disease, discovering and...