Hideki Aihara, PhD, Associate Professor, Dept of Biochemistry, Molecular Biology & Biophysics
The focus of Dr. Aihara’s lab is to determine molecular mechanisms of protein machineries that catalyze DNA strand cutting and rejoining reactions. Current major projects in his lab are to understand the mechanism of retroviral integration into the host genome, and understand the resolution of concatenated DNA-replication intermediates into linear chromosomes. A primary research tool in his lab is X-ray crystallography.
Courtney Aldrich, PhD, Professor, Dept of Medicinal Chemistry
The Aldrich lab designs new antibacterial agents based on novel mechanisms of action using data from experimental genetic approaches to identify candidate bacterial targets. High-throughput screening identifies lead compounds against the target. His lab employs structure- and/or ligand-based computational approaches, synthetic chemistry and characterization of compounds in vitro and in cells.
Edgar Arriaga, PhD, Professor, Dept of Chemistry
The Arriaga lab investigates the biochemistry of mitochondria in aging and disease, and biotransformations of drugs and xenobiotics in subcellular environments. For such projects, analytical efforts include: (1) development of microanalytical methods and instruments based on capillary electrophoresis, microfluidics, single molecule detection, and imaging, and (2) implementation and use of ‘omics’ technologies, such as proteomics with the aim of defining complex biochemical pathways.
Karen Hsiao Ashe, MD/PhD, Professor, Dept of Neurology
Dr Ashe creates transgenic mouse models of Alzheimer's disease and uses them to learn how specific proteins (tau and Aβ*) disrupt brain function using biochemical and behavioral techniques. The mouse-based research is complemented by biochemical analysis and the study of human samples in collaboration with clinical scientists.
Victor Barocas, PhD, Professor, Dept of Biomedical Engineering
The Barocas group is primarily interested in understanding how mechanical, physical, and chemical phenomena interact to govern the behavior of biological and medical systems. They use engineering knowledge to explore, understand, and manipulate biological systems. They develop computational tools to explore specific applications in biomechanics and biotransport, including how changes of pressure in the aqueous humor of the eye affects iris mechanics, and modeling cell behavior within biopolymer matrices that are preliminary designs of bioartificial tissues.
David Bernlohr, PhD, Professor, Dept of Biochemistry, Molecular Biology & Biophysics
Dr. Bernlohr’s broad research areas are (1) adipose biology and obesity-linked insulin resistance, (2) oxidative stress and mitochondrial function, and (3) adipokine biology and insulin resistance. His lab employs multiple methodologies from biochemical and biophysical characterization to employing mouse models.
Anya-Katrin Bielinsky, PhD, Professor, Dept of Biochemistry, Molecular Biology & Biophysics
The Bielinsky lab uses molecular biology and biochemical methodologies in eukaryotic cells to understand the regulation of DNA replication, in particular the role mcm10 plays in replication initiation and cancer. The lab also studies the pathways involved in (1) S phase checkpoint and (2) DNA damage tolerance.
James Ervasti, PhD, Professor, Dept of Biochemistry, Molecular Biology & Biophysics
The Ervasti group studies the structure and cellular function of dystrophin to understand how its absence or abnormality leads to Duchenne (DMD) and Becker (BMD) muscular dystrophies, as well as some forms of dilated cardiomyopathy. His lab pioneered the expression/purification of full-length (400 kDa) dystrophin and utrophin in the baculovirus system which has enabled rigorous biochemical studies.
Deborah Ferrington, PhD, Professor, Dept of Ophthalmology & Visual Neurosciences
Dr. Ferrington uses molecular biology and biochemical methodologies to understand the pathology of age-related macular degeneration, changes in proteasome function in the aging retina, and the effects of the cellular stress response on immunoproteasome function.
Gunda Georg, PhD, Professor, Dept of Medicinal Chemistry
The Georg lab develops synthetic methods, synthesizes natural products, and carries out structure-activity studies aimed at improving the therapeutic efficacy of lead compounds, including natural products and hits from high throughput screening. Current therapeutic areas include cancer, male and female contraception, epilepsy, and Alzheimer's disease.
Timothy Griffin, PhD, Professor, Dept of Biochemistry, Molecular Biology & Biophysics
Work in the Griffin lab involves the development and application of mass spectrometry-based tools to study proteins and proteomes, including tracking oral cancer progression through the salivary proteome, and protein post-translational modifications. His lab is also developing new bioinformatics tools that integrate genomic and proteomic data (e.g. proteogenomics and metaproteomics).
Carol Haskell-Luevano, PhD, Professor, Dept of Medicinal Chemistry
The Haskell-Luevano lab focuses on understanding peptide hormone endocrine systems in the brain and their involvement in feeding behavior, exercise, diabetes, and obesity. She utilizes multidisciplinary approaches including chemistry, chemical biology, biochemistry, molecular biology, pharmacology, physiology, and neuroscience to study endocrine systems.
Kristin Hogquist, PhD, Professor, Dept of Laboratory Medicine & Pathology
The Hogquist lab is primarily interested in T cell development in the thymus. They study how selection processes shape the T cell repertoire to achieve a highly effective and self-tolerant adaptive immune system using mouse models and cell-based assays.
Romas Kazlauskas, PhD, Professor, Dept of Biochemistry, Molecular Biology & Biophysics
Dr. Kazlauskas engineers enzymes not just for biotechnological applications, but also to understand molecular evolution. He employs molecular biology, biochemical characterization, structural biology and computational modeling to inform his work.
Carol Lange, PhD, Professor, Dept of Medicine
Dr. Lange studies the molecular biology of breast cancer. Her lab is focused on the study of cross-talk between peptide growth factors and steroid hormone receptors in human breast cancer cells, with the goal of developing better strategies for the treatment of breast and other hormonally influenced and/or epithelial cell-derived cancers.
John Lipscomb, PhD, Professor, Dept of Biochemistry, Molecular Biology & Biophysics
Dr. Lipscomb investigates the mechanisms of oxygenases through the use of transient kinetics, site-directed mutagenesis, diagnostic substrate reactions, EPR spectroscopy, and X-ray crystallography. The oxygenases he studies contain catalytic iron at the active site, forming reactive species that can oxidize toxic anthropomorphic aromatic compounds introduced into the environment.
Joseph Metzger, PhD, Professor, Dept. of Integrative Biology & Physiology
Dr. Metzger seeks mechanistic insights into normal and diseased muscle function, including heart failure associated with Duchenne muscular dystrophy. In particular, he focuses on manipulating the expression level and enzyme activity of parvalbumin, troponin, and myosin in skeletal and cardiac muscle. He uses in vitro and in vivo gene transfer to study muscle function in cell and animal models.
Kirsten Nielsen, PhD, Associate Professor, Dept of Microbiology & Immunology
Dr. Nielsen studies Cryptococcus neoformans, an opportunistic human pathogenic fungus that causes cryptococcosis, which commonly presents as a disseminated meningoencephalitis that is universally fatal if untreated. A defining feature of cryptococcosis is the ability of C. neoformans to cross the blood-brain barrier. Dr. Nielsen has demonstrated that disrupting pheromone signaling inhibits entry into the brain.
Michael O'Connor, PhD, Professor, Dept of Genetics, Cell Biology & Development
Dr. O’Connor studies the role of the TGF-β family of secreted proteins in cell-cell communication during development. The TGF-β family influences a wide variety of cellular processes including tissue growth, differentiation, and death as well as metabolic and synaptic homeostasis. The O’Connor lab employs genetic, molecular, biochemical and computational methods.
Laurie Parker, PhD, Associate Professor, Dept of Biochemistry, Molecular Biology & Biophysics
The Parker lab research program is broadly directed at assay development for post-translational modifications, with a focus on protein phosphorylation by tyrosine kinases. She develops artificial, optimized substrate peptides to report the activity of a specific enzyme in living cells. Enzymatic modification is measured using a range of readout strategies—some that require extraction of the cell contents (e.g. mass spectrometry) and some that leave the cell intact (fluorescent imaging).
Valerie Pierre, PhD, Associate Professor, Dept of Chemistry
The Pierre group studies the role of metal ions in biological systems, and designs metal complexes as biological and medical probes. Using analytica,l and inorganic and organic synthetic techniques, they develop lanthanide complexes as responsive luminescent sensors, such as contrast agents for medical MRI. Another project is directed toward elucidating the recognition and uptake of heme by gram-negative bacteria.
Lawrence Que, Jr., PhD, Professor, Dept of Chemistry
The Que lab research effort involves a combination of biochemical, synthetic, inorganic, and spectroscopic approaches, to elucidate the oxygen activation mechanisms of nonheme iron enzymes, design functional models for such enzymes, trap and characterize reaction intermediates, and develop bio-inspired oxidation catalysts for green chemistry applications.
David Redish, PhD, Professor, Dept of Neuroscience
The Redish lab works to understand how multiple learning and memory systems interact to produce behavior. They also apply the theories that arise from neurophysiology and computational modeling to explain dysfunctional and broken behavioral-control systems, such as occurs in addiction. The Redish lab combines multi-electrode neural ensemble recordings from awake, behaving animals with complex computational analysis techniques.
Jill Siegfried, PhD, Professor, Dept of Pharmacology
Dr. Siegfried investigates the role of growth factors and hormones in the development and growth of lung cancer. These include estrogen, progesterone, the epidermal growth factor family of peptides, and hepatocyte growth factor. Both cell culture and animal models are used to examine how these hormones and growth factors interact in the development and growth of lung cancer.
Jeffrey Simon, PhD, Professor, Dept of Genetics, Cell Biology & Development
The long-term goal of the Simon lab is to reveal chromatin mechanisms that control gene expression during development and disease. They study the Polycomb group (PcG) transcriptional repressors, focusing on Polycomb repressive complex 2 (PRC2), an enzyme that tri-methylates histone H3 on lysine 27, a hallmark of repressed chromatin. The Simon lab employs in vitro biochemical assays and in vivo approaches in Drosophila in their research.
Stanley Thayer, PhD, Professor, Dept of Pharmacology
Dr. Thayer's laboratory studies neurodegenerative processes. His group uses electrophysiological and optical techniques to measure ion currents, to image synaptic proteins, and to record changes in intracellular calcium within single neurons grown in tissue culture. In particular, his lab studies Ca2+ homeostasis in neurons, and the role of the endocannabinoid system in regulating synaptic transmission and neurotoxicity. He is also trying to develop pharmacological strategies to prevent loss of synapses during neurotoxic processes.
David Thomas, PhD, Professor, Dept of Biochemistry, Molecular Biology & Biophysics
Throughout his career, Dr. Thomas has been a leading investigator in the molecular biophysics of muscle. He has developed several novel spectroscopic techniques for this purpose, and has applied them to solve fundamental problems concerning the molecular mechanisms of muscle contraction and relaxation. In recent years he has balanced his focus on basic muscle research with applications to muscle disease and therapy.
Gianluigi Veglia, PhD, Professor, Dept of Biochemistry, Molecular Biology & Biophysics
The goal of Dr. Veglia’s lab is understanding the structural basis of complex molecular mechanisms that regulate muscle cell Ca2+ signaling in both skeletal and cardiac muscle. The Veglia lab uses a combination of solution and solid-state NMR, in concert with other spectroscopic techniques (CD and EXAFS), as well as new computational approaches, to decipher the chemical and structural bases for the signal transduction processes in muscle cells.
Li-Na Wei, PhD, Professor, Dept of Pharmacology
Dr. Wei's lab is interested in regulatory pathways and underlying mechanisms in differentiation and function of neurons and adipocytes. Two principal signaling pathways are targets of investigation: (1) hormone (vitamin A and fatty acids) signaling pathways that involve nuclear receptors and coregulators to trigger chromatin remodeling, and (2) extra-nuclear signaling pathways that regulate post-transcriptional events, specifically, mRNA transport and localized translation. The Wei lab uses molecular, biochemical, cellular and genetic methods, as well as analysis of proteomes by mass spectrometry.
Carrie Wilmot, PhD, Professor, Dept of Biochemistry, Molecular Biology & Biophysics
The Wilmot lab focuses on the biosynthesis of protein and peptide-derived enzyme cofactors. She employs X-ray crystallography, UV-vis absorbance spectroscopy in the crystal, and mass spectrometry. She freeze-traps catalytic intermediates in the crystal, leading to "snapshots" along the reaction pathway. These are then assembled into a "movie of catalysis" at the molecular level
David Zarkower, PhD, Professor, Dept of Genetics, Cell Biology & Development
Disorders of sexual differentiation are among the most common congenital syndromes and often have serious medical and social consequences. Research in the Zarkower laboratory aims to uncover the molecular and genetic mechanisms that underlie sexual development. To accomplish this goal, they study model organisms (C. elegans; mouse) in which powerful genetic, genomic, and molecular approaches are possible.