| Faculty Personal Information |
Key Words |
Brief Research Description |
|
Bioengineering
Cell Biology
Lipids
Macromolecular Interactions
Membrane Proteins
Molecular Biophysics
Molecular Biology
Structural Biology |
Atomic Force Microscopy (AFM)
and light microscopy for biomedical imaging |
Alfonzo,
Juan D.
Microbiology -
alfonzo.1@osu.edu |
Cell Biology
Gene Regulation
Macromolecular Interactions
Membrane Proteins
Membrane Transport
Molecular Biology
Molecular Genetics
RNA |
Editing
and Modification of tRNA: Roles in Mitochondrial Biogenesis
and Disease |
|
|
Dr.
Anderson is interested in how IgG antibodies work; specifically,
how they mediate inflammatory and protective effects, how they
are degraded, and how they are transported across the fetus
from maternal to fetal circulation |
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Light regulation of plant development,
plastid differentiation and pigment biosynthesis; mechanisms
of plant protection against photooxidative damage |
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Chromosomes & Chromatin
Gene Regulation
Macromolecular Interactions
Molecular Biology
Molecular Genetics
Protein Folding
RNA
Structural Biology
Transcription
|
Molecular
mechanisms of transcription elongation, elongation
control of virulence genes in proteobacteria |
|
Human Disease
Macromolecular Interactions
Membrane Proteins
Molecular Biophysics
Molecular Biology
Molecular Genetics
Signal Transduction
Structural Biology
|
Ion channels in synaptic plasticity
and sensory transduction: Acid-sensing ion channel (ASIC)
function, structure, and role in synaptic physiology. |
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DNA Repair
Recombination
Structural Biology |
Research in the Bell Lab is focused on the structural
biology of homologous recombination, an important mechanism in all
cells for repairing double- stranded DNA breaks. |
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Molecular
biology of geminiviruses; including regulation of viral DNA
replication and gene expression, and mechanisms of viral pathogenesis |
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Exploration of molecular recognition-guided
membrane fusion mechanisms, peptide beta strand recognition
and formation of biomimetic nanoscale lattices. |
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Bioinformatics
Cancer
Cell Biology
Gene Regulation
Human Disease
Molecular Biophysics
Molecular Biology
Molecular Genetics
Molecular Medicine
RNA
Structural Biology
Translation
Virology
|
Genetic,
biochemical and genomic approaches are being used to understand
post-transcriptional control mechanisms used by retroviruses
and their host cells to modulate viral infection and control
cellular growth. |
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Structure
and function of genes encoding protein synthesis factors. |
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Membrane Proteins
Macromolecular Interactions
Molecular Biophysics
Post-translational modification
Protein Engineering
|
Protein chemistry and endocrinology. |
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The role of steroids in the
growth of breast cancer and in the development of drugs that
interfere with hormone action or
hormone biosynthesis, aromatase inhibitors |
|
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The main focus of the laboratory is the molecular
understanding of genetic neuromuscular disorders. In particular,
the laboratory focuses on unraveling the molecular biology of Spinal
Muscular Atrophy (SMA). |
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Bioengineering
Bioinformatics
Cancer |
My research is in the area of bioengineering. I have current
interest/projects in the broad areas of cell culture, ranging
from the study of human stem and cancer cells to industrially
relevant cells. |
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Structural Biology
Membrane Proteins
Membrane Transport
Chemical Biology
Bioinformatics
|
The Chan laboratory focuses on problems at the interface of
chemistry and biology requiring the use of techniques spanning
a wide range of disciplines including macromolecular crystallography,
organic and inorganic synthesis, molecular cloning, protein
overexpression and purification, and spectroscopy. |
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Cancer
Cell Biology
Development
Gene Regulation
Human Disease
Molecular Biology
Molecular Genetics
Molecular Medicine
Signal Transduction |
Regulation
and functions of the retinoblastoma-family suppressor genes; neural
specific serotonin 5-HT2C receptor expression; DNA polymerase and
DNA replication; erythrocyte protein 4.2 expression; transgenic
mice for animal models |
|
Gene Regulation
Molecular Biology
Molecular Genetics
RNA
Systems Biology
Transcription
Translation |
Yeast
RNA helicases involved in nuclear pre-mRNA splicing, mRNA export & translation |
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Cancer
Chemical Biology
Human Disease
Molecular Medicine
Post-translational Modification
Protein Degradation
Signal Transduction |
Dr. Chen¹s research focuses on exploring
signaling pathways that govern cancer cell survival as targets for
drug discovery and design. |
|
Cancer
Cell Biology
Chromosomes & Chromatin
Development
Epigenetics
Gene Regulation
Human Disease
Molecular Medicine
Transcription |
Controlling mechanism of gene expression of fibroblast growth
factor 1 in cancer and in atherosclerosis. |
|
Cancer
Chemical Biology
Molecular Medicine |
The
Coleman group is interested in the study of naturally occurring
antitumor agents. A current focus is the antitumor agents azinomycins
A and B, which have biological activity in vitro and in vivo
in experimental tumor systems, and whichcovalently cross-link
duplex DNA. |
|
Chemical Biology
Enzymology
Glycobiology
Macromolecular Interactions
Membrane Proteins
Membrane Transport
Molecular Biophysics
Molecular Biology
Molecular Genetics
Molecular Medicine
Protein Engineering
RNA
Structural Biology |
Our
research seeks to understand the critical roles of metal ions
in biology with a focus on some of the most important problems
in bioinorganic chemistry. Of particular interest is the chemistry
of cellular iron, the proteins that transport, store, and use
iron in redox and catalytic roles. |
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Cancer
Chemical Biology
Structural Biology
Metabolism
|
Our primary research interests lie
in the area of the medicinal chemistry and biochemistry of important
vitamin A metabolites with potential to function as cancer chemopreventive
agents. |
Dalbey,
Ross E.
Chemistry -
dalbey@chemistry.ohio-state.edu |
Cell Biology
Enzymology
Membrane Proteins
Membrane Transport
Molecular Biophysics
Molecular Biology
Molecular Genetics
Protein Degradation
Protein Engineering
Protein Folding
Structural Biology |
Our
lab's central interest is the determination of how proteins
are transported and inserted into membranes to obtain their
membrane topology. We are employing biochemical approaches to
begin purifying proteins that catalyze the membrane assembly
of proteins. |
|
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Molecular Biology of the archaea: archaeal SNO-RNAs. |
Davis, Jonathan
Physiology & Cell Biology
davis.812@osu.edu |
Enzymology
Human Disease
Macromolecular Interactions
Molecular Biophysics
Muscle Biochemistry
Muscle Physiology
Protein Engineering
Signal Transduction |
Elucidate the biochemical and physiological mechanisms that determine the kinetics of cardiac and skeletal muscle contraction and relaxation in health and disease through the engineering of proteins |
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Protein engineering and biophysical analysis of insecticidal toxins
is the major research interest in my laboratory. |
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Molecular Mechanisms of Growth Regulation. |
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Cancer
Cell Biology
Molecular Biology
Molecular Genetics |
Centrosome duplication, cell cycle regulation,
mitotic spindle assembly. |
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DNA Repair
Enzymology
Gene Regulation
Macromolecular Interactions
Molecular Biophysics
Molecular Biology
Protein Folding
Recombination RNA
Signal Transduction
Structural Biology
Transcription
Translation
|
Protein and nucleic acid structure and dynamics, molecular recognition,
signal transduction, enzyme catalysis, computational methods,
NMR methodology. |
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Translation
RNA
Gene Regulation |
Understanding the relationship between ribosome structure and function. |
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Human Disease
Molecular Medicine
Signal Transduction
Immunology
Neuroscience
|
We are interested in delineating how elevated
and prolonged exposure to inflammatory cytokines in the aged
brain impairs neurotransmitter and neurotrophic signaling pathways
to promote these neurobehavioral deficits. |
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Gene Regulation
Macromolecular Interactions
Membrane Proteins
Molecular Biology
Plant Biochemistry
RNA
Translation
|
Structure
and function of ribonuclease P, an enzyme which has both RNA
and protein moieties. A major goal of our work is to understand
how the protein cofactor facilitates RNA catalysis |
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Molecular Pathogenesis of Human T-cell Leukemia Virus (HTLV)
Molecular Biology of Retrovirus Replication
T-cell Activation/Transformation |
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Computational Biology
Gene Regulation
Plant Biochemistry
Development |
Regulation of gene expression;
function and evolution of Myb proteins; plant metabolic engineering;
regulatory networks; computational biology. |
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Human Disease
Membrane Proteins
Membrane Transport
Molecular Biology
Molecular Genetics
Molecular Medicine |
Mechanism of drug addition using
tools from molecular biology to cell culture, genetically
modified animal models,
and animal behaviors. |
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Cell Biology
Chromosomes & Chromatin
Gene Regulation
Glycobiology
Human Disease
Lipids
Macromolecular Interactions
Membrane Proteins
Molecular Biology
Molecular Genetics
Molecular Medicine
Post-translationsl Modification
Signal Transduction
Structural Biology
Transcription
|
Dr. Gunn's laboratory
is primarily interested in the molecular mechanisms used by
Salmonella spp. to survive harsh conditions it encounters
within the human host. |
|
Cancer
Cell Biology
Gene Regulation
Human Disease
Molecular Biology
Molecular Genetics
Molecular Medicine
Post-translational Modification
Signal Transduction
Transcription
|
Cancer and many diseases are manifestations
of over expression or under expression of a gene or a group
of genes. Although there are many regulatory steps in the process
of gene expression, many lines of evidence indicate that transcriptional
control is the focal point of regulation. My laboratory is investigating
the transcriptional regulation in eukaryotes. |
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Maturation
of c-type cytochromes in organelles, redox components and
heme delivery systems in yeast mitochondria and green alga
plastids. |
Harrison, Earl
Human Nutrition
harrison.304@osu.edu |
Cell Biology
Enzymology
Human Disease
Lipids
Membrane Transport
Metabolism
|
Our laboratory studies the basic mechanisms involved in the intestinal absorption, transport, and metabolism of dietary vitamin A and carotenoids using cell culture and animal models and investigations in human subjects |
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gene regulation
molecular biology
molecular genetics
RNA
transcription
translation |
Transcription termination control
in Gram-positive bacteria; RNA structure/function. |
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Cancer
Cell Biology
Gene Regulation
Macromolecular Interactions
Membrane Transport
Metabolism
Post-translational Modification
Protein Phosphorylation
Signal Transduction
Transcription
Translation
|
Research in my lab is focused on developing a better
understanding of the mechanisms controlling cell growth and proliferation
in eukaryotic cells. Our long term goals are to identify novel proteins
important for proliferative control and to investigate whether these
proteins might be useful targets for cancer therapy. |
Hopper, James
Biochemistry -
hopper.65@osu.edu
|
Gene Regulation
Transcription
Molecular Biology
Molecular Genetics |
Many disease states are known to be due to defective gene switches. A gene switch that is under investigation in my laboratory is the genetically well-characterized multi-component gene switch that regulates 10 genes (GAL genes) that specify galactose utilization functions in the yeast, S. cerevisiae. |
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Chemical Biology
Enzymology
Macromolecular Interactions
Molecular Biophysics
Molecular Biology
Molecular Genetics
RNA
Translation
|
Protein synthesis in bacteria and archaea.
Aminoacyl-tRNA synthetase cell biology and biochemistry. |
Jackman, Jane
Biochemistry
jackman.14@osu.edu |
Enzymology
RNA
RNA processing and modification
|
The Jackman laboratory utilizes the principles and techniques of mechanistic enzymology and enzyme kinetics to elucidate the molecular mechanisms of tRNA processing enzymes. |
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Cancer
Chromosomes & Chromatin
Epigenetics
Gene Regulation
Human Disease
Molecular Genetics
Molecular Medicine
RNA
Transcription |
transcriptional regulation in normal and
cancel cells, DNA methylation and gene silencing in disease
processes. |
Jaroniec, Christopher
Chemistry
jaroniec@chemistry.ohio-state.edu |
Macromolecular Interactions
Membrane Proteins
Molecular Biophysics
Protein Folding
Structural Biology
|
Biophysical Chemistry, Nuclear Magnetic Resonance Spectroscopy, Protein Structure, Folding and Misfolding |
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Cancer
Cell Biology
Chemical Biology
Gene Regulation
Human Disease
Macromolecular Interactions
Membrane Proteins
Membrane Transport
Molecular Biology
Molecular Medicine
Post-translational Modification
Protein Degradation
Protein Engineering
Signal Transduction
|
Tyrosine
kinase signal transduction, transgenic mouse animal model for
human diseases, gene regulation and functional analysis of sodium/iodide
symporter, gene transfer of sodium/iodide symporter for radioiodide
therapy in human cancers |
|
Bioengineering
Cell Biology
Development
Epigenetics
Human Disease
Molecular Medicine |
Dr. Kaspar's
research is concentrated on the developing and adult central
nervous system with emphasis on neurodegenerative and neurological
disorders that occur throughout the lifespan of all mammals. |
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Peptide
and protein design; protein antigenic and immunogenic determinant;
protein folding and synthetic vaccines; cancer vaccines. |
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Chemical Biology
Enzymology
Metabolism
Molecular Biology
Molecular Genetics
RNA
Translation |
Biochemistry and molecular biology of methanogenic Archaea.
Pyrrolysine, the "22nd amino acid". |
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Chemical biology
Human disease
Enzymology
Macromolecular interactions
Molecular biology
Molecular medicine
Post-translational modification |
This laboratory investigates pathogenic pathways that lead
to the appearance of granulovacuolar and neurofibrillary lesions
found in Alzheimer's Disease and other dementias. |
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Cancer
Cell Biology
DNA Repair
Human Disease
Molecular Biology
Post-translational Modification
Signal Transduction
Transcription |
Molecular Pathogenesis of Human T-Lymphotropic Virus (HTLV) Infection
Transcriptional Regulation of HTLV
Evaluation of Immunodominant Epitopes of HTLV |
|
Cell Biology
Cytoskeleton
Gene Regulation
Molecular Biology
RNA
Transcription
Translation
|
Gene
regulation, RNA and protein targeting, and membrane dynamics
with a current project concerning the regulation and targeting
of the vacuolar H+-ATPase (V-ATPase, the membrane-bound enzyme
that acidifies endosomal compartment of eukaryotic cells).
A second project concerns the regulation of motility and cell
shape by actin-binding proteins in osteoclasts. |
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|
Dr. Lee's interest
is in molecular therapeutic devices (for cancer and cardiovascular
disease) and technologies that support their realization. |
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Cancer
Cell Biology
Development
Gene Regulation
Molecular Biology
Molecular Genetics
Signal Transduction
Transcription
|
-
Dr. Leone's lab is currently studying the role of the Ras pathway
in coordinating cell growth and cell death signals elicited by
the E2F and Myc transcription programs
|
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Bioinformatics
Cancer
Chromosomes & Chromatin
Computational Biology
Drug Design and Discovery
Enzymology
Epigenetics
Human Disease
Macromolecular Interactions
Membrane Proteins
Metabolism
Molecular Biophysics
Molecular Biology
Molecular Simulation
Post-translational Modification
Protein Degradation
Protein Engineering
Protein Folding
Signal Transduction
Structural Biology
Systems Biology |
My long-standing scientific interest is
to understand the structure and dynamics of matter at the
atomic/molecular level (“the jigglings and wigglings of atoms”
from the wonderful Feynman Lectures on Physics), and their
relationship to the functions and properties of our physical
and biological macro-world (the spatial-temporal collective
behavior). |
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Human Disease
Molecular Biology
Molecular Medicine
RNA |
Molecular mechanisms underlying neurodegenerative diseases -
RNA oxidation, glutamate transporter alterations; molecular
biology and biochemistry of glutamate transporters |
|
Cancer
Cell Biology
Molecular Biology
Signal Transduction
Transcription
|
Regulation of signal transduction and
tyrosine kinase pathways in human cancers and molecular target
therapy of
cancers. |
|
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We are studying
the Transmissible Spongiform Encephalopathies (TSEs), also
known as prion disease. This is a group of unique neurodegenerative
disorders that can be manifested as sporadic, dominantly inheritable,
or infectious diseases. |
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Bioinformatics
Chemical Biology
Macromolecular Interactions
Molecular Biophysics,
Protein Engineering
Protein Folding
|
Combinatorial and statistical approaches to protein stability,
structure and function; unnatural amino acid mutagenesis |
Marketon, Jeanette
Internal Medicine -
marketon.1@osu.edu |
Nucler Hormone Receptors
Gene Regulation
Signal Transduction
Steroid Receptors
|
Mechanisms of modulation of nuclear hormone receptor signaling by environmental agents and disease
|
|
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Investigation of biochemical
pathways in human blood monocytes that mediate survival and
activation of the cells; studies related to the effects of treatment
of monocytes with the growth factor macrophage colony-stimulating
factor and intracellular signaling pathways that are affected
by stimulation of human monocytes and macrophages with this
growth factor. |
|
Cell Biology
Development
Gene Regulation
Glycobiology
Human Disease
Membrane Proteins
Molecular Medicine
|
Dr. Martin's research is focused on the role of glycoslation
in synapse formations and muscular dystrophy. |
Means,
Gary E.
Biochemistry -
means.1@osu.edu |
|
Protein
chemistry, modification, structure-function relationships, enzyme
immobilization, multienzyme reactors, effects of nitric oxide,
nitrovasodilators and other nitrosating agents on proteins. |
Mehta,
Kemal
Molecular and Cellular
Biochemistry -
mehta.80@osu.edu |
Signal Transduction |
My laboratory is interested in understanding
the signaling cascades and the mechanisms regulating transcription
of lipoprotein receptors involved in the pathogenesis of cardiovascular
diseases. |
Montanaro,
Federica
Columbus Children’s Research
Institute and Pediatrics -
montanaf@pediatrics.ohio-state.edu
|
Cell Biology
Human Disease
Molecular Biology
Stem Cells
Development |
My research focus is muscular dystrophy with a particular emphasis
on Duchenne muscular dystrophy. We study the molecular mechanisms
by which disruption of the dystrophin-associated complex leads
to muscle cell death and we identify populations of stem cells
that can be used to develop a long term cell-based treatment for
muscular dystrophy. |
Musier-Forsyth, Karin
Chemistry and Biochemistry
musier-forsyth.1@osu.edu |
Chemical Biology
Enzymology
Human Disease
Macromolecular Interactions
Molecular Biophysics
Molecular Biology
|
Substrate Recognition by Aminoacyl-tRNA Synthetases, RNA-Protein Interactions in HIV
|
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Development
Gene Regulation
Human Disease
Transription
|
Gene
expression in the brain; mRNA transport; motor learning and
memory |
Osmani, Stephen
Molecular Genetics - |
Cell Biology
Cell Cycle Regulation
Nuclear Transport
Nuclear Structure
Nucleolus
Mitosis
Protein phosphorylation |
Elucidating how the cell cycle is regulated utilizing the model filamentous fungus Aspergillus nidulans |
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Cancer
Development
Epigenetics
Gene Regulation
Molecular Biology
Molecular Genetics
Post-translational Modification
Signal Transduction
Systems Biology
Transcription |
The Ostrowski lab has a long-standing interest in understanding
how signaling pathways elicit selective, persistent changes in gene
transcription in mammalian cells. |
|
Chemical Biology
Molecular Biophysics
Macromolecular Interactions
Chromosomes & Chromatin |
Research in the Ottesen laboratory
utilizes peptide and protein chemistry to address biological
problems. The Ottesen group is developing improved techniques
for solid phase chemical ligation, which allows the rapid
recombination of peptide elements into larger macromolecules. |
Palmer, Andre
Chemical and Biomolecular Engineering
palmer.351@osu.edu
|
Bioengineering |
research interests in Hemoglobin-based oxygen carriers for transfusion and cell culture applications, Self-assembled therapeutic delivery systems, Protein and tissue engineering. |
Park,
Hay-Oak
Molecular Genetics -
park.294@osu.edu |
Cancer
Cell Biology
Enzymology
Gene Regulation
Human Disease
Macromolecular Interactions
Membrane Proteins
Membrane Transport
Molecular Biology
Molecular Genetics
Post-translational Modification
Protein Degradation
Signal Transduction |
Our lab is interested in understanding the molecular mechanisms
by which GTPases control various cellular processes in response
to intra- and extra-cellular signals. |
Parris, Deborah
MVIMG and Molecular Genetics -
parris.1@osu.edu |
DNA Replication
DNA Repair
Enzymology
Human Disease
Macromolecular InteractionsMolecular Biology
Molecular Medicine
Recombination
RNA
Virology |
Herpes simplex virus (HSV) is one of the most complex of the animal viruses encoding more than 80 different genes. Despite its complexity, it is the easiest member of the herpes virus family with which to work and has proven to be a good model system to study functions related to viral replication. |
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Chromosomes & Chromatin
DNA Repair
Epigenetics
Gene Regulation
Post-translational Modification
Transcription
|
Chromatin structure |
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Computational Biology
Macromolecular Interactions
Molecular Biophysics
Nanobiotechnology |
Molecular simulations and modeling of weak protein-protein interactions;
the role of hydration in biological organization and self-assembly
phenomena; multiscale modeling of biological interactions. |
|
Bioinformatics
Chemical Biology
Enzymology
Macromolecular Interactions
Signal Transduction
Systems Biology |
Enzyme
mechanisms, protein-protein
interactions, bacterial quorum sensing, eukaryotic cell signaling |
|
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Genetic
engineering of the heart, genes that determine cardiac structure
and function, molecular basis of heart failure and gene |
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Our research programs are in the areas of
bioenergetics, transport, and membrane biophysics. A general
diffusion pore of the inner mitochondrial membrane is under
investigation, as a structure that is central to mechanisms
of cell death under conditions which promote necrosis and apoptosis. |
|
Chromosomes & Chromatin
Post-translational Modification
Transcription
Molecular Biophysics
Single Molecule |
My lab uses biophysical and biochemical approaches
to understand chromatin structure and dynamics and how it is
modulated to regulate gene expression. |
|
Molecular Genetics
Cell Biology
Human Disease
Animal Models |
The long-term goals of my laboratory are
to delineate the pathogenic mechanisms of neuromuscular diseases
in order to design rational approaches for treatments. Our lab
focuses on two different basic science projects: 1) The roles
of the PDZ domain proteins Dlg and CASK at the mammalian neuromuscular
junction and in neuromuscular disease. 2) Delineation of the
pathways leading to cardiomyopathy and skeletal muscle fiber-type
abnormalities in a mouse model of Duchenne muscular dystrophy
(DMD). |
Ringel, Matthew
Internal Medicine -
Matthew.Ringel@osumc.edu |
Cancer
Cell Biology
Molecular Medicine
Signal Transduction |
Dr. Ringel’s research is aimed at understanding the molecular mechanisms involved in thyroid cancer invasion and metastasis. He also has an active interest in new drug testing for thyroid cancer therapy. |
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Bioinformatics |
Bioinformatics and computational biology
approaches to the analysis of genes coding for neural signal
transduction molecules. |
|
Bioengineering
Membrane Proteins
Membrane Transport
Metabolism
Molecular Biophysics
Plant Biochemistry
Protein Engineering
|
There are three major research programs in our
lab including; 1) nutrient bio-fortification and metabolic engineering
of cyanogenesis in the tropical root crop cassava, 2) molecular
studies on primary photochemical processes in photosystem II
complexes of chloroplasts, and 3) biotechnological applications
of microalgae |
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Cancer
Cell Biology
Gene Regulation
Molecular Biology
RNA
Signal Transduction
Translation |
The overall theme of research in the Schoenberg
lab is how extracellular stimuli alter gene expression through
changes in the processing and metabolism of mRNAs. |
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My laboratory is interested in studying
transcription factor interactions with DNA in a chromatin context,
and also in examining the effects of the Brg1 and hBrm-based
human SWI/SNF chromatin remodeling complexes on nucleosomal
DNA. My laboratory is also interested in studying the mechanisms
that regulate the activity of the Brg1 and hBrm complexes, and
understanding how phosphorylation affects their activity and
interaction with transcription factors during different stages
of cell growth and development. |
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Cancer
Cell Biology
Chemical Biology
Chromosomes & Chromatin
DNA Replication
DNA Repair
Macromolecular Interactions
Molecular Medicine
Protein Degradation |
Multiple
approaches to understanding mechanisms of anti-cancer drugs,
particularly those targeting DNA replication; molecular-level
cell- killing mechanisms; drug resistance, gene amplification,
drug discovery |
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Circadian Biology
Cell Biology
Development
Molecular Biology
Molecular Genetics
Plant Biochemistry
Post-translational Modification
Protein Degradation
Protein Folding
Signal Transduction |
My lab studies two aspects of the circadian clock in plants. The
first is to understand the components and processes involved in
the transduction of the daily environmental light/dark cycle to
the central oscillator of the clock. My second interest is to
understand the molecular nature of the central clock oscillator
and how it is coupled to the light input pathway. |
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Cell Biology
Chromosomes & Chromatin
Development
Gene Regulation
Human Disease
Macromolecular Interactions
Molecular Biology
Molecular Genetics
Molecular Medicine
Signal Transduction
Transcription
|
Cardiovascular
cellular and molecular biology, actin gene expression, muscle
development, cardiac transplantation |
Sun, Duxin
Pharmaceutics -
sun.176@osu.edu |
Molecular Medicine
Chemical Biology
Human Disease
Macromolecular Interactions
Membrane Transport
Molecular Biology
Cancer |
(A) An integrated system for both tumor imaging and targeted drug therapy for colorectal cancer, (B) A novel Hsp90 inhibitor to disrupt Hsp90-Cdc37 interaction for pancreatic cancer therapy, (C) Chemical biology and micro RNA to overcome multidrug resistance in leukemia, (D) transporters in cancer imaging, pharmacokinetics/pharmacodynamics (PK/PD) modeling. |
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Cancer
DNA Replication
DNA Repair
Enzymology
Structural Biology
|
The research in my laboratory has three major directions: one
is to elucidate kinetic mechanisms of enzymes involved in DNA/RNA
replication, repair, and lesion bypass; the second is to understand
Hepatitis C (HCV) replication and regulation of innate immunity;
the third is to develop antiviral and anti-cancer molecules
based on rational drug design. |
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Enzymology
Macromolecular Interactions
Protein Engineering
Molecular Biophysics
Structural Biology
|
our research is focused primarily on the study of a family
of proteins that use derivatives of riboflavin (vitamin B2)
as essential cofactors or coenzymes for their biological activity.
Our emphasis is the investigation of the structure of the
protein, its influence on the chemical and oxidation-reduction
and other chemical properties of the bound flavin cofactor,
and the role of the cofactor in catalysis and/or electron
transfer. |
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Bioengineering
Chemical Biology
Enzymology
Gene Regulation
Metabolism
Molecular Biology
Protein Engineering
Structural Biology
Transcription
|
Biochemistry, molecular biology, molecular
ecology, archaea. My laboratory is concerned with the molecular
regulation, biochemistry,and enzymology of carbon dioxide assimilation. |
|
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Regulation of Signal Transduction
Processes Involved in Immune-Complex (IC) Clearance and the
Associated Inflammation. |
|
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Inorganic
Photochemistry, Excited State Processes, DNA Interactions
The Turro group is interested in understanding and utilizing
reactions of metal complexes that can be initiated with light. |
|
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Research in my laboratory focuses on the question how cell proliferation
and terminal differentiation is regulated during neurogenesis (and
later in adult life). |
|
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Our general interest is to identify and
characterize autocrine and paracrine signaling mechanisms in
skeletal muscle. |
|
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Mechanisms
of Cell Plate Formation and Stress Regulation in Plant Cells |
Walsh,
Scott
Molecular and Cellular Biochemistry -
walsh.220@osu.edu |
Bioengineering
Bioinformatics
Cancer
Chemical Biology
Glycobiology
Human Disease
Lipids
Macromolecular Interactions
Membrane Proteins
Molecular Biophysics
Molecular Biology
Post-translational Modification
Protein Degradation
Protein Engineering
Protein Folding
Signal Transduction
Structural Biology |
Our research
focuses on understanding the roles of structure, dynamics
and energetics in molecular recognition among different classes
of cytokines and their receptors. |
|
Chemical Biology
Glycobiology
Macromolecular Interactions |
The focus of Professor Wang’s
research is on synthetic organic chemistry, bioorganic chemistry
and biochemistry. Combining modern organic synthesis with the latest
discoveries in biology, we have been undertaking research programs
on natural product synthesis, on reactive nitrogen species, on synthetic
methodology development, and on biosynthetic pathway engineering. |
|
Cancer
Cell Biology
Chromosomes & Chromatin
DNA Repair
Enzymology
Epigenetics
Gene Regulation
Human Disease
Macromolecular Interactions
Membrane Proteins
Molecular Biology
Molecular Genetics
Molecular Medicine
Post-translational ModificationProtein DegradationSignal TransductionTranscription |
Molecular
carcinogenesis-analysis, fine mapping and cellular processing
of specific genotoxic base lesions, mutagenesis, apoptosis and
other DNA damage responses |
WU,
Justin
Biochemistry -
wu.473@osu.edu |
Gene Regulation
Macromolecular Interactions
Membrane Proteins
Protein Folding
Signal Transduction
Structural Biology |
Characterization of macromolecules, including
protein-protein, protein-nucleic acid complexes, membrane proteins
and glycosylated proteins by means of modern NMR spectroscopy;
dynamic studies of macromolecules for understanding their functional
mechanism; drug development based on structural studies of drug-target
complexes |
Wu,
Lai-Chu
Molecular and Cellular
Biochemistry -
wu.39@osu.edu |
Cancer
Cell Biology
Development
Epigenetics
Gene Regulation
Molecular Biology
Molecular Genetics
Protein Degradation
Signal Transduction
Transcription |
Mammalian immunogenetics, somatic
V(D)J recombination, gene expression and regulation, cancer |
|
Bioengineering
Bioinformatics
Cell Biology
Chemical Biology
Enzymology
Epigenetics
Gene Regulation
Human Disease
Lipids
Macromolecular Interactions
Membrane Proteins
Metabolism
Molecular Biophysics
Molecular Biology
Molecular Medicine
Post-translational Modifiation
Protein Degradation
Protein Engineering
Protein Folding
Recombination
RNA
Signal Transduction
Systems Biology
Transcription
Translation
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Molecular cardiovascular biology,
biochemistry, nitric oxide biology, oxidative stress, signal
transduction, free radical biology. The overall research
interest of the Xia laboratory is in the molecular mechanisms
of cardiovascular regulation and diseases. |
Yang,
Shang-Tian
Chemical Engineering -
yang.15@osu.edu |
Bioengineering
Bioinformatics
Cancer
Cell Biology
Metabolism
Molecular Biology
Molecular Genetics
Recombination
Systems Biology |
Our current research program
covers two important areas in bioprocessing and bioengineering.
The first one is animal cell culture and tissue engineering;
the second one is bioprocessing for value-added products. |
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Bioinformatics
Cell Biology
Development
Gene Regulation
Human Disease
Membrane Proteins
Molecular Biology
Molecular Genetics
Post-translational Modification
Protein Degradation
Signal Transduction |
Intracellular signaling mechanisms
involved in cell survival and apoptosis. Receptor tyrosine
kinase signaling, cytokine receptor signaling, GTPases. The
research combines the in vitro biochemical analyses
and in vivo animal models using recombinant adenoviruses
and transgenic animal approaches |
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Gene expression during retinal development
and in response to glucucorticoid hormones |
Zhong,
Dongping
Physics -
dongping@mps.ohio-state.edu |
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Understanding the nature of elementary
processes in biological systems and relating dynamics and
structures to function in
real systems level, using state-of-the-art femtosecond lasers
and molecular biology methods. The laboratory ultimately will
have the
capability of time resolution millisecond; biological systems
can be prepared and studies at the single molecular level. We
are currently
focusing on studies of molecular recognition dynamics of several
important biological systems. |
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Molecular mechanism of calcium influx
mediated by store-operated plasma membrane calcium and cation
channels. |