MCDB Faculty
A | B | C | D | E | F | G | H | I | J | K | L | M | N | O | P | Q | R | S | T | U | V | W | X | Y | Z
| Name | Research Interests | Areas of Research |
|---|---|---|
| Ainslie, Kristy | Drug delivery and applied immunology | |
| Last Updated: 27-Sep-2011 | ||
| Amer, Amal | Host-pathogen interaction, f ocused on the role of cytosolic NOD-like receptors and their ability to activate inflammatory responses to combat pathogens and the role of caspases in innate immune response to pulmonary pathogens. | |
| Asano, Maki Graduate Studies Committee |
We study the molecular mechanisms regulating the cell cycle progression, with focus on the initiation of DNA replication. We use Drosophila as a genetically and molecularly amenable model system. | |
| Askwith, Candice | The role of acid-sensing ion channels in neuronal signaling. | |
| Bartlett, Christopher Graduate Studies Committee |
Focus on gene discovery for specific language impairment, autism and related cognitive traits | |
| Basu, Sujit (Heart & Lung Institute) (Pathology) |
Angiogenesis and vasculogenesis; tumor microenvironment including cancer stem cells; preclinical cancer chemotherapy; neural immune cross talk in cancer. | |
| Beattie, Christine | Elucidation of the underlying causes of motoneuron dysfunction in motoneuron diseases using zebrafish as a model system. | |
| Besner, Gail | Use of growth factors in the treatment of intestinal ischemia/reperfusion injury. | |
| Biesiadecki, Brandon | Understanding the molecular mechanisms of how muscle protein post-translational modifications (phosphorylation, radical modification, degradation, etc) alter heart function | |
| Bisaro,David Program Director, Chair of the Graduate Studies Committee |
Geminivirus replication, gene expression, and pathogenesis. The role of small RNA-directed epigenetic silencing in defense against DNA viruses. | |
| Boris-Lawrie, Kathleen | Post-transcription control of retroviruses; HIV-1 translation and RNA silencing suppression; Genome-wide analysis of RNA helicase A translation control. | |
| Boyaka, Prosper N. | My research interests focus on the regulation of immunity and inflammation in mucosal surfaces. T helper cells differentiation, Mucosal immunity, Mucosal inflammation /allergy, Adjuvants and vaccines. | |
| Boyd, R. Thomas | Molecular neurobiology; nicotinic acetylcholine receptor genes. | |
| Brigstock, David | Characterization of connective tissue growth factor: structure-function analysis and role in fibrotic disease | |
| Brown, Anthony | The mechanism of slow axonal transport | |
| Burghes, Arthur Contact Information Only |
Genetics of motor neuron disorders and the muscular dystrophies | |
| Chamberlin, Helen | Understanding the molecular processes underlying organogenesis | |
| Chandler, Dawn Member, Graduate Studies Committee |
Cancer biology; regulation of pre-mRNA splicing in normal cellular function and disease. | |
| Chang, Long-Sheng | Retinoblastoma-family genes; neurofibromatosis 2 suppressor gene; serotonin 5-HT2C receptor; DNA polymerase d in aging, transgenic mice | |
| Chotani, Maqsood | Molecular signaling in vascular smooth muscle cells and cardiac myocytes, the biology of the G protein coupled á2-adrenoceptor subtype C (á2C), and elucidating the role of Ras-related small GTPase Rap1 in the cardiovasculature. | |
| Clark, K. Reed | Molecular medicine, focusing on viral vectors, gene therapy, and adeno-associated virus | |
| Cole, Susan | Roles of fringe genes and Notch signaling during mouse development. Analysis of cyclic mRNA_expression during somitogenesis: linking the Notch pathway and the segmentation clock. | |
| Croce, Carlo | Human cancer genetics; role of micro RNAS in cancer. | |
| Dalbey, Ross | Protein secretion and membrane assembly; membrane and lipid biochemistry. | |
| Daniels, Charles | Molecular biology of Archaea: tRNA intron processing, RNAseP, small RNAs, regulation of gene expression, evolution of the transcriptional apparatus, and genome analysis. | |
| Das, Hiranmoy Contact Information Only |
Hematopoietic stem cell manipulation and evaluation of their effect on vascular disease models prior to clinical trial, factors affecting stem cell differentiation and function | |
| DeWille, James | Investigation of a protein that functions as a transcription factor and regulates mammary epithelial cell growth, death, and differentiation | |
| Ding, Biao | Focus is on elucidating molecular mechanisms that govern defense responses mounted by plants after attack by virus pathogens. Model viruses are small positive sense RNA viruses (ie, Turnip crinkle virus, Bean pod mottle virus). Current projects include understand the role of temperature in RNA silencing-based antiviral defense, and how nonhost plants respond to virus invasions. | |
| Doseff, Andrea | Mechanisms involved in cell death during the innate immune response and oncogenic transformation | |
| Drew, Mark | Genetic, cell biological, and biochemical studies of the protozoan parasite Plasmodium falciparum in an effort to discover novel therapeutics to treat human malaria. | |
| El-Hodiri, Heithem Member, Graduate Studies Committee |
Regulation of gene expression in early Xenopus neural development | |
| Fischer, Andy | Neural development, regeneration, and survival of cells in the retina. In particular, neural stem cells that are found at the peripheral edge of the retina or those that are derived from the major type of glial cell in the retina, the Müller glia. Investigating the cellular and molecular mechanisms that control the proliferation and differentiation of neural precursors in the developing and mature retina. | |
| Fishel, Richard | Biophysical chemistry and genetics of DNA repair. | |
| Fisk, Harold | Cell cycle regulation of the Mps1 family of protein kinases; centrosome duplication and spindle checkpoint control; mis-regulation of Mps1 and its role in genetic instability and cancer. | |
| Flanigan, Kevin | ||
| Fu, Haiyan | My major focus is to develop efficient approaches for gene delivery to the central nervous system (CNS), using recombinant adeno-associated virus vectors, to treat the neurological disease of Mucopolysaccharidosis (MPS) IIIB in patients. | |
| Fuerst, Paul | Molecular evolution of rRNA genes in intracellular bacteria and in algae. | |
| Ganju, Ramesh K. | Chemokine-mediated breast cancer progression and metastasis; molecular mechanism of chemokine receptor CXCR4/CCR5-mediated pathogenesis during HIV infection; small molecular weight inhibitors for chemokine receptors and characterizing cross-talk between Slit/Robo and chemokine receptor pathways as a novel target for combating breast cancer metastasis and HIV infection. | |
| Garg, Vidu | Focus is on the genetic basis of congenital heart disease and the molecular pathways regulating normal and abnormal cardiac development, utilizing a combination of human genetic and molecular approaches to gain insight into the etiologies of congenital heart disease. | |
| Gopalan, Venkat | Biochemistry and applications of ribonuclease P, a catalytic RNP complex | |
| Green, Patrick | Molecular pathogenesis of human T-cell leukemia virus (HTLV); molecular biology of retrovirus replication; T-cell activation/transformation | |
| Grotewold, Erich | Control of gene expression; metabolic engineering; evolution of transcription factors | |
| Gu, Chen Graduate Studies Committee |
Our research goals are to understand how ion channels are precisely localized to control neuronal excitability and how localization and function of ion channels are altered in neurodegenerative diseases. | |
| Guttridge, Denis C. | NF-kappa β regulation of cell growth and differentiation | |
| Hackshaw, Kevin | Autoimmune disorders; growth factors involved in the inflammatory cascade | |
| Hai, Tsonwin Member, Graduate Studies Committee |
Eukaryotic gene expression, stress responses, cell death (apoptosis), cell cycle regulation, signal transduction, molecular mechanisms of diseases including cancer, diabetes and liver dysfunction. Experimental systems include cell free system, cell culture, transgenic and knock-out mice models. | |
| Hamel, Patrice | Redox factors and heme delivery systems involved in the maturation of chloroplast and mitochondrial c-type cytochromes, assembly of mutimeric complex I in mitochondria | |
| Harper, Scott Q. | Gene therapy for dominant genetic diseases using RNA interference (RNAi), with particular focus on muscular dystrophy and neurodegenerative disease. | |
| Hassanain, Hamdy (Anesthesiology) (Heart & Lung) |
Molecular cardiovascular research, transgenic models for cardiovascular diseases, gene chip analysis to identify putative genes involved in cardiovascular diseases, signal mechanism involved in cardiovascular diseases. | |
| Henion, Paul | Developmental regulation of neural crest cell diversification | |
| Henkin, Tina | Regulation of gene expression; Bacillus subtilis; grampositive bacteria; transcription antitermination; transcription activation and repression; RNAstructure and function; tRNA | |
| Herman, Gail | X-linked developmental disorders; human and mouse genetics | |
| Herman, Paul | Eukaryotic cell proliferation; ras protein signaling; RNA pol II transcription | |
| Hopper, Anita | Intracellular trafficking of RNA and proteins; Nucleus organization; RNA processing | |
| Hopper, James | My research focuses on transcription or gene switches and how cells use them to evolve strategies that allow appropriate responses to environmental changes. | |
| Hoyt, Dale | Pulmonary and cardiovascular diseases | |
| Huang, Tim H.M. | Use integrative tools combining an experimental and bioinformatics approach to study complex epigenetic alterations in cancer and other diseases. | |
| Jackman, Jane | The Jackman laboratory utilizes the principles and techniques of mechanistic enzymology and enzyme kinetics to elucidate the molecular mechanisms of tRNA processing enzymes. | |
| Jacob, Samson | Metallothionein gene expression; protein factors that modulate ribosomal RNA gene transcription; molecular mechanisms of action of 5-fluorouracil | |
| Jang, Jyun-Chyun | Sugar and steroid hormone action and signal transduction in higher plants | |
| Janssen, Paul | Muscle mechanics. EC coupling and energetics of cardiac muscle tissue, under physiological and pathophysiological conditions. | |
| Jhiang, Sissy | Protein tyrosine kinases and cancers; transgenic mice for human diseases; gene transfer of sodium/iodide symporter for radioiodine treatment in human cancers | |
| Jontes, James | Role of cell adhesion molecules in the processes of synaptogenesis and circuit assembly in the developing zebrafish nervous system. | |
| Kahn, Mahmood | ||
| Kaspar, Brian K | Investigation of cell death pathways in Central Nervous System Disorders; delivery of Gene Therapy Vectors to the CNS; identification of Neural Stem Cell Signaling Pathways and Development | |
| Kirschner, Lawrence | molecular events leading to the formation of tumors of the endocrine glands, and the relationship of these processes to the differentiation of these tissues | |
| Kitagawa, Risa | Focus on elucidation of molecular mechanisms of maintenance of genome stability using C. elegans as a model organism to study physiologic function of the Spindle Assembly Checkpoint in multicellular organisms | |
| Kniss, Douglas | Biochemical and molecular regulation of inflammation | |
| Kuret, Jeff | Molecular basis of neurodegenerative diseases | |
| Kvaratskhelia, Mamuka | Understand HIV replication, cancer development and DNA repair processes at the molecular level, using mass spectrometry as both a proteomic and structural biology tool to elucidate the composition and architecture of key biological macromolecules. | |
| Kwon, Chang-Hyuk | Tumor drivers of glioblastoma; comparing genetic and epigenetic changes between origin (neural stem cells) and tumor cells during tumor development. | |
| Lairmore, Michael | Transcription regulation and immunopathogenesis of human retroviruses HIV and HTLV-I | |
| Lamb, Rebecca | Role of transcriptional regulation during flower development in the model plant species Arabidopsis thaliana. Using specification of organ identity to study transcriptional networks controlling development. In addition to elucidating the molecular underpinnings of flower formation, the potential modification of transcriptional networks during evolution to give rise to varying floral morphologies is being examined. | |
| Lang, James | Role of oncogenes in cancer causation | |
| Lasky, Larry CV Only |
Hematopoiesis, with emphasis on applications in transfusion medicine. | |
| Lee, Beth S. | Cell biology of osteoclasts with particular emphasis on differentiation and the cytoskeleton; mechanisms by which kidney tubule cells regulate mRNA levels during and following cellular stresses. | |
| Lee, L. James | Currently interested in both in vivo and in vitro delivery of siRNA and miRNA and their potential application in cancer and leukemia therapy. Research involves nanobiotechnology and biomaterials. | |
| Lee, Robert J. | Targeted drug delivery systems for cancer. Gene therapy. Antisense and siRNA therapy. Liposomes and nanoparticles for drug delivery. Nanoparticle based nanomedicines. Immunotherapy for cancer. | |
| Leone, Gustavo W. | Cancer biology; control of cell growth and cell death | |
| Lesinski, Gregory B. | Research focuses on understanding the interactions between the host immune system and tumor cells. Ultimate goal is to develop novel therapeutic or chemo-preventative approaches to help patients with cancer and improve existing therapies. Inhibition of the oncogenic STAT3 pathway and maximizing the effect of immune based therapy are of particular interest. | |
| Lill, Nancy | Regulation of growth factor receptors; protein trafficking; signal transduction; mechanisms of cell transformation and oncogenesis; targeted protein degradation; anticancer therapeutics; protein-protein interations | |
| Lin, Huey-Jen | My laboratory has examined how tumor suppressor genes can be epigenetically silenced in malignant breast epithelial cells, particularly the aberrant event commanded by cancer-associated fibroblasts. The signaling pathways governing the epigenomic perturbations comprised the main research streamlines. Our studies would depict a causal mechanism defining how tumor-microenvironment conveys DNA hypermethylation and leads to silencing of tumor suppressor genes in breast epithelia, events may virtually promote breast tumorigenesis. | |
| Lin, Jiayuh | Molecular mechanisms of activation of Signal Transducer and Activator of Transcription 3 (STAT3) pathway in human cancers; tyrosine kinase profile in human ovarian and bladder cancers, and Rhabdomyosarcomas; regulation of gene transcription and _expression by p53 tumor suppressor gene in cancer and normal cells. | |
| Lin, Young | Roles of growth factors and steroidogenic enzymes in hormone-dependent cancers | |
| Liu, Yusen | Signal transduction pathways that regulate the cellular responses to extracellular stimuli. Investigate the role of MAP kinase phosphatases in the regulation of inflammatory cytokine biosynthesis in macrophages during bacterial infection. Investigations the basic mechanisms of aging and the molecular mechanisms via which triptolide induces apoptosis in a variety of cancer cells. | |
| Liu, Zhenguo | Stem cell differentiation; mechanisms and pharmacologic therapies of ventricular tachycardia | |
| Lovett-Racke, Amy | My laboratory studies the pathophysiology of multiple sclerosis. | |
| Ma, Jiyan | Transmissible Spongiform Encephalopathies (TSEs) | |
| Mackey, David | Pathogens secrete effector proteins that enhance virulence by functioning inside plant cells. Plants express resistance proteins that can sense effectors and induce an innate immune response. Current research focuses the molecular mechanisms of each of these processes. | |
| Mangel, Stuart | We are studying how a circadian (24-hour) clock modulates cellular and molecular processes and chemical and electrical synaptic transmission, and how disruption of this circadian system mediates neuronal degeneration. We are also studying the cellular, subcellular(eg transporters), developmental, and neural network mechanisms that underlie information processing in the brain. | |
| Marcucci, Guido | Molecular Biology and Cancer Genetics, Experimental Therapeutics. | |
| Marketon, Jeannette | My laboratory is interested in the molecular action of nuclear hormone receptors, particularly the glucocorticoid receptor. | |
| Marsh, Clay | Research centers on the roles of monocytes and macrophages in regulating inflammation and organ repair | |
| Martin, Paul Taylor | Research in the Martin lab is focused on the role of glycoyslation in synapse formation and muscular dystrophy. Other studies involve understanding the role of carbohydrates in the development of the brain, and the development of diagnostic and therapeutic reagents for Alzheimer's disease. | |
| McBride, Kim | Focus is on elucidating causes of cardiovascular malformations, with the goal of developing novel therapies. We apply a variety of human genetic techniques (linkage, association, sequencing) to identify and characterize candidate genes. Functional consequences are studied in cell based systems. We use genetic and environmental models to examine cardiovascular developmental biology in the mouse. | |
| McCarty, Douglas M. | The biology of adeno-associated virus (AAV), and its used as a gene delivery system for the treatment of human disease | |
| McHugh, Kirk | The research efforts in my laboratory rely upon an integrated scientific approach that is designed to identify the genetic pathways responsible for the ontogenesis and pathogenesis of smooth muscle tissues. The dysregulation of smooth muscle differentiation represe. | |
| Mehta, Kamal D. | Signaling and transcriptional mechanisms regulating cholesterol homeostasis | |
| Meier, Iris | Molecular analysis of the plant nuclear matrix | |
| Mendell, Jerry R. | I am a translational scientist whose laboratory works on projects that test experimental paradigms that can potentially be brought to clinical trial. The disease focus is muscular dystrophy and the major experimental tool is gene therapy. In the laboratory we are currently testing gene therapy in dysferlin and dystrophin deficient mice, and in the clinic we are doing gene therapy on patients using alpha-sarcoglycan, follistatin, and mini-dystrophin. | |
| Munson, Robert | Molecular pathogenesis of Haemophilus infections | |
| Mykytyn, Kirk | Molecular genetics of complex diseases. | |
| Nankano, Ichiro | Characterization of cancer stem cells in brain tumors is the main project in the Nakano Lab. We seek to determine the signaling pathways regulating survival of brain tumor stem cells and to identify novel chemotherapeutic agents that eradicate these stem cells without causing side effects on behavior of normal neural stem cells in the brain. | |
| Niewiesk, Stefan | Immune modulation by measles virus and vaccination in the presence of maternal antibodies. | |
| Nishijima, Ichiko | Identify and characterize the genetic factors causing human developmental disorders. | |
| Oberdick, John | Genetic control of mammalian brain development | |
| Obrietan, Karl | Second messenger signaling and transcriptional pathways that regulate circadian timing: Ca2+, CREB and neuronal plasticity: peptidergic modulation of glutamatergic signaling | |
| Oglesbee, Michael | Role of cellular stress response/heat shock proteins in viral infection (measles, canine distemper virus). | |
| Osmani, Stephen A. | Cell cycle; nuclear migration; fungal development | |
| Ostrowski, Michael | Nonnuclear oncogenes, ETS-family transcription factors, and the regulation of transcription during cellular differentiation and malignant transformation | |
| Park, Hay-Oak | Regulation of Cell Growth and Oriented Cell Division; Oxidative Stress Response and Cell Death; GTPase signaling pathways | |
| Parris,
Deborah (CMIB) (MVIMG) |
Herpes
simplex virus; gene expression and DNA replication. Suppression of RNAi as a pathogenicity determinant for herpes simplex virus and Ebola virus. |
|
| Partida-Sanchez, Santiago Contact Information Only |
Chemokine receptor signaling, generation of calcium second messengers, activation of calcium channels and their role in regulating migration of immune cells. | |
| Parthun, Mark | The role of histone posttranslational modifications in the formation and regulation of chromatin | |
| Parvin, Jeffrey | Systems Biology, Breast Cancer, BRCA1, Ubiquitination | |
| Pekarsky, Yuri | Investigation of the function of TCL1 oncogene | |
| Periasamy, Muthu | Genomics and proteomics of the heart | |
| Perrotti, Danilo | Research is aimed at assessing the molecular mechanisms leading to leukemic transformation of hematopoietic cells. Specific areas of interest are: a)Role of RNA binding proteins in blastic transformation of Chronic Myelogenous Leukemia; b) Signal transduction in Leukemia; c) Mechanisms regulating expression and activity of oncogenic kinases. | |
| Phiel, Christopher | Understanding the interface between signal transduction and epigenetics. | |
| Pierson, Christopher R. | Elucidate the pathogenesis of the centronuclear myopathies, especially X-linked myotubular myopathy, and to develop novel therapies for these myopathies. | |
| Popovich, Phillip | Neuron-immune interactions in models of CNS trauma, spinal cord injury; mechanisms of neuronal and glial toxicity triggered by innate and adaptive immune system; role of neuroinflammatory processes in glial tumor formation/progression. | |
| Quan, Ning | The afferent pathways by which immune activity are transmitted to the central nervous system. | |
| Qu, Feng Contact Information only |
Focus is on elucidating molecular mechanisms that govern defense responses mounted by plants after attack by virus pathogens. Model viruses are small positive sense RNA viruses (ie, Turnip crinkle virus, Bean pod mottle virus). Current projects include understand the role of temperature in RNA silencing-based antiviral defense, and how nonhost plants respond to virus invasions. | |
| Rafael-Fortney, Jill | Mouse models of neuromuscular diseases | |
| Raffel, Cory | The focus of the Raffel Lab is to develop alternative treatment for medulloblastoma in children using recombinant measles virus | |
| Ransom, Richard | Research is focused on the mechanism of action of corticosteroids in the common pediatric kidney disease, nephrotic syndrome. We are pursuing both cell biology experiments using cell models and a multi-center study using patient blood and RNA samples to address both the mechanism of corticosteroid action and resistance to steroids. | |
| Rikihisa, Yasuko | Molecular and cellular mechanism of intracellular parasitism/Ehrlichia spp | |
| Rosol, Thomas J. | The laboratory utilizes mouse models of human cancer to investigate the role of parathyroid hormone-related protein in bone metastasis and cancer-associated hypercalcemia. Metastases are monitored using in vivo bioluminescence of luciferase-transfected tumor cells. Molecular studies are focused on the regulation of PTHrP mRNA stability by transforming growth factor-s. | |
| Rotter, Andrej | Bioinformatics and computational biology of neural signaling molecules | |
| Roy, Sashwati | Primary focus is study of significance and mechanisms of resolution of inflammation in tissue repair and regeneration. Interested in the role of macrophages in resolution of inflammation during pathological tissue repair such as diabetic wound healing. Lab uses state of the art technologies such as laser capture microdissection and microarray expression (mRNA and miRNA) profiling to address these research questions. | |
| Sanders, Virginia |
Research focuses on the molecular mechanisms by which the neurotransmitter norepinephrine and stimulation of the beta2-adrenergic receptor on T and B lymphocytes mediates important changes in adaptive immunity. | |
| Schmittgen, Thomas |
Quantitative gene expression analysis, the role of small, noncoding (i.e. micro RNAs) in cancer. | |
| Schoenberg, Daniel | Regulation of mRNAstability; pre-mRNA processing and translation initiation; posttranscriptional control by estrogen | |
| Seeger, Mark | Molecular genetic analysis of axon pathfinding and synaptic target recognition mechanisms in Drosophila. | |
| Sen, Chandan (Laboratory) (Heart & Lung) |
microRNA biology, tissue injury and repair, regenerative medicine, nutrition, oxygen and hypoxia, wound healing, stroke and neurodegeneration, myocardial infarction | |
| Sif, Said | Effects of human chromatin remodeling complexes on gene expression, cell growth and development | |
| Simcox, Amanda | The role of oncogenes, tumor suppressors and Egfr signaling in growth control and development in Drosophila | |
| Slotkin, R. Keith | My laboratory aims to discover how potentially mutagenic “jumping genes” or transposable elements are epigenetically repressed from generation to generation, as well as how this system has been adopted over evolutionary time to regulate non-transposable element genes. | |
| Snapka, Robert | DNAreplication; DNAtopoisomerases; mechanisms of anticancer drugs | |
| Somers, David | Molecular genetic analysis of the plant circadian clock | |
| Strauch, Arthur Contact Information Only |
Myogenesis; vascular cell biology; smooth-muscle actin gene expression | |
| Suo, Zucai | Molecular mechanisms of enzymes involved in genome replication and natural product biosynthesis using a variety of techniques in enzymology, molecular biology, and synthetic chemistry | |
| Tabita,Robert | Molecular biology and genetic engineering of CO2 metabolism | |
| Toland, Amanda | Identification and characterization of low penetrance cancer susceptibility genes. | |
| Trgovcich, Joanne Contact Information Only |
Research focuses on the discovery and characterization of strategies by which herpes simplex type 1 and cytomegalo viruses evade host immune responses. Towards this end, we are investigating (1) the biology of these ancient viruses at a molecular/genetic level, (2) the mechanisms by which viral gene products subvert cellular functions, and (3) the pathogenesis of these virus infections. | |
| Tridandapani, Susheela | My lab is primarily interested in dissecting the signal transduction processes involved in a) immune-complex clearance by macrophages, and the associated inflammation, and b) the inflammatory response to bacterial lipopolysaccharide. | |
| Vaessin,
Harald Member, Graduate Studies Committee |
Neurogenesis; neuronal precursor formation and differentiation in Drosophila | |
| Vandré, Dale | Regulation of the microtubule cytoskeleton during cell-cycle progression and in Alzheimer's disease. | |
| Verma, Desh Pal | Vesicle trafficking and building of cell plate during cytokinesis in plants | |
| Viapiano, Mariano | Organization and functions of the extracellular matrix in central nervous system development and disease. | |
| Villamena, Frederick | Free radical detection; development of synthetic antioxidants and radical probes; mechanisms of cytoprotection and cardioprotection by anitoxidants. | |
| Waldman, James (CMIB) (Heart & Lung) |
Antiviral drug discovery and pre-clinical development, endothelium-targeted humoral autoimmune processes in pulmonary disease and neuro-opthalmic disorders, chemical and biological reactivity of airborne nano-particulates | |
| Wang, Qianben | Understanding the molecular pathological mechanisms underlying the development and progression of prostate cancer. Currently using chromatin immunoprecipitation (ChIP) combined with massively parallel sequencing (ChIP-seq) technique to study combinatorial transcriptional regulation by androgen receptor, collaborating transcription factors and histone modifications in prostate cancer cells. We will also apply the genome-wide ChIP technique to clinical samples obtained from different stages of prostate cancer, which would allow identification of critical cis-regulatory sequences contributing to prostate cancer progression. | |
| Weghorst, Christopher | Molecular mechanisms of human oral cancer; comparative molecular carcinogenesis; chemoprevention strategies. | |
| Weinstein, Michael | Analysis of mammalian development and disease using transgenic and knockout mouse models | |
| Wewers, Mark D. | Lung macrophages monitor the boundary between the environment and the blood stream by the means of intracellular and surface pathogen recognition receptors. We are currently interested in understanding how the intracellular pathogen sensors (NOD-like receptors) work to regulate cytokines (especially IL-1beta) and cell death (apoptosis) via modulation of caspase-1. | |
| Wharton, Robin P. | Post-transcriptional gene regulation in Drosophila; germ cell biology. | |
| Williams, Marshall | DNA replication and repair in eukaryotic cells and herpes viruses | |
| Wilson, Thomas | My laboratory investigates the molecular biology and genetics of juvenile hormone in Drosophila. This hormone is a major player in insect development, metamorphosis, and reproduction, and we are studying how the hormone works at the molecular level. | |
| Wold, Loren | Myocardial function and calcium signaling in disease | |
| Wu, Jian-Qiu | Roles of cytoskeletal and signaling proteins in cellular asymmetry and cell division in normal, cancer, and stem cells. | |
| Wu, Lai-Chu | V(D)J recombination; protein binding to recombination signal sequences | |
| Wu, Li | Research focuses on the molecular mechanisms by which immune cells disseminate HIV in order to facilitate the development of more effective interventions against HIV infection and transmission. | |
| Yang, Shang-Tian | ||
| Yoon, Sung OK | Cell signaling; neuronal apoptosis; transgenic mice; myelination; role of small GTPases in brain development; nerve injury | |
| Young, Tony | Regulation of gene expression in the CNS, with an emphasis on Glutamine synthetase and nitric oxide synthase - their roles in excitotoxic neuronal cell death. | |
| Yu, Chack-Yung | Molecular biology of the human major histocompatibility complex class III products and eukocyte antigen CD1. | |
| Zou, Xianghong | Long-term goal is to develop therapeutic strategies to target the cell cycle machinery, specifically in the aggressive cancer | |
| Zweier, Jay L. | Ischemic Heart Disease, Mechanisms of Postischemic Injury, Free Radicals and their role in Cellular Function and Disease, Magnetic Resonance Spectroscopy and Imaging. | |