Graduate Program in Molecular & Cellular Pharmacology

What is Molecular & Cellular Pharmacology?

Many drugs act on cellular signaling pathways. The molecular basis of cellular signaling and its control by various drugs and hormones is a major aspect of modern pharmacology and this aspect is emphasized in the Graduate Program in Molecular and Cellular Pharmacology. The objective of the Graduate Program in Molecular and Cellular Pharmacology is to equip students with the skills required to conduct state-of-the-art biomolecular, biomedical, and pharmacological basic research. The Program assists students in becoming independent investigators in these research areas.

Advances in biomedical sciences are often based on the development of new drugs which improve and save the lives of millions of patients. Drugs with specific biochemical actions are also powerful research tools. They provide pharmacologists and other biomedical scientists unique research opportunities which help to elucidate cellular signaling cascades. Students of the Graduate Program will develop expertise in the fundamentals of Molecular and Cellular Pharmacology. They will be able to solve a variety of problems in basic biomedical sciences involving the design of research strategies for the discovery of novel drugs or gene therapy approaches to regulate aberrant signal transduction cascades.

The Program

The Molecular and Cellular Pharmacology Graduate Program at the University of Wisconsin-Madison has been ranked in the top Pharmacology programs nationwide, reflecting the outstanding teaching and research quality of its members. The program is one of the Basic Science Programs of the University of Wisconsin Medical School.

The objective of the Graduate Program in Molecular and Cellular Pharmacology is to equip the students with skills required to conduct state-of-the-art biomolecular, biomedical, and pharmacological basic and translational research. The Program assists the students in becoming independent investigators in these research areas.

Application & Pre-requisites

The Graduate Program in Molecular and Cellular Pharmacology requires an undergraduate major in biomedical science (e.g. Biochemistry, Molecular Biology, and Cell Biology), chemistry, physics, or engineering. http://molpharm.wisc.edu Accepted graduate applicants commonly have strong scientific backgrounds, a passion for research, and significant laboratory experience.

All applicants are required to take the Graduate Record Examination (GRE), preferably by October of the year preceding admission to ensure the scores will be available by December 1st. The GRE subject test is not required. Application deadline is December 1st: https://www.gradsch.wisc.edu/eapp/eapp.pl


Grants & Financial Support

Faculty trainers are required to maintain extramural funding. Students are paid a competitive stipend, and tuition is covered. All MCP graduate students receive a stipend (the recommended level for biological sciences graduate students is $25,000 for 2013-14), full tuition remission, and low cost options for individual or family comprehensive health insuranceContact

Theresa M. Duello, PhD

Diversity Initiatives

Collaborative Recruitment

5240 Medical Sciences Center

University of Wisconsin-Madison

1300 University Avenue

Madison, WI 53706

608-262-7456

Graduate Program in Molecular & Cellular Pharmacology Faculty

Elaine Alarid

Molecular mechanisms of steroid hormone action.

Kurt Amann

A molecular understanding of the mechanisms underlying cell structure and motility.

Richard A. Anderson

Molecular mechanisms regulating cell migration, proliferation, and differentiation; implications for cancer.

Anjon Audhya

Molecular mechanisms that regulate membrane trafficking during development.

Ravi Balijepalli

Trafficking and regulation of voltage-activated cardiac ion channels.

David Beebe

Exploring a variety of engineered in vitro microenvironments to probe the nature of cell interactions that regulate cell behavior.

William Bement

Cytoskeleton controls over cell division and wound healing.

Emery H. Bresnick

Stem Cell Biology, Molecular Hematology, and Vascular Biology: From Fundamental Mechanisms to Translational Medicine.

Mark Burkard

Targeted therapy directed at protein kinases.

Baron Chanda

Mechanisms of modulation of voltage-dependent gating in ion channels.

Edwin R. Chapman

Molecular mechanisms that underlie neuronal exocytosis.

Lara Collier

Genetics of tumorinitiation, progression, and therapy resistance.

Vincent Cryns

Abnormalities in cell death contributing to the pathogenesis of cancer and obesity, and translating these insights into improved therapies.

Cynthia Czajkowski

Structure and function of neurotransmitter receptors.

John Denu

Mechanism and biological function of reversible protein modifications involved in modulating signal transduction, chromatin dynamics, and gene activation.

Ying Ge

Cardiac Systems Biology; Molecular and Cellular Mechanisms in Heart Failure; Cardiac Regenerative Biology and Medicine

Michael N. Gould

Basic and translational research in breast cancer.

Daniel S. Greenspan

Modulation of BMP signaling and formation of the extracellular matrix scaffolding in development and tissue remodeling.

Jeffrey D. Hardin

Epithelial migration and embryonic development.

Melissa Harrison

Molecular mechanisms driving the initial wave of gene expression in the totipotent cells of the early embryo.

Troy Hornberger

Skeletal muscles sense mechanical information and convert this stimulus into the molecular events that regulate changes in muscle mass.

Anna Huttenlocher

Cellular and molecular mechanisms that regulate cell migration; implications to tumor invasion and metastasis and inflammation.

Meyer B. Jackson

Synaptic transmission in the central nervous systems.

Colin R. Jefcoate

Physiological mechanisms associated with P450 cytochromes.

Jeffrey Johnson

Molecular Neuropharmacology/Neurotoxicology.

Joan Jorgensen

Identify genes that are sexually dimorphic during sexual differentiation, characterize their functional significance, and understand how they are regulated.

Robert Kalejta

Mechanisms of human cytomegalovirus (HCMV) replication and pathogenesis.

Ned Kalin

Neurobiological basis of fear, anxiety, and depression at preclinical and clinical levels.

Timothy J. Kamp

Cardiac ion channels and embryonic stem cell-derived cardiomyoctyes.

Patricia J. Keely

Integrin and small GTPase signaling events in differentiation and transformation.

Judith Kimble

Germline stemcells (GSCs) and their regulation in the nematode C. elegans

Michelle Kimple

Guanine Nucleotide Binding Proteins, pancreatic beta-cell biology, insulin secretion, diabetes pathophysiology

Pamela Kreeger

Systems biology to identify treatment approaches for ovarian cancer and endometriosis.

Youngsook Lee

Molecular mechanisms regulating cardiovascular development and disease.

Bo Liu

Molecular mechanism underlying vascular inflammation; molecular mechanism underlying occlusive vascular diseases; development of new materials for biomedical applications.

Xuelin Lou

Development and function of central nerve terminals and neural circuits.

Thomas F.J. Martin

Molecular approach to exocytosis of neurotransmitters.

Kristyn Masters

Issues in cell-material interactions to create 'smarter', bioactive materials that are capable of directing cell function.

Shigeki Miyamoto

Rel/NF-kB transcription factors.

Deane F. Mosher

Biochemistry of cell adhesion and movement.

William F. Murphy

Bio-inspired non-covalent assembly of materials.

David Pagliarini

Mitochondrial biogenesis and metabolism; cell signaling; proteomics.

J. Wesley Pike

Transcriptional mechanisms of steroid hormone action in the skeleton.

Luigi Puglielli

Lipid signaling in the aging brain and molecular pathogenesis of Alzheimer's disease.

Ron Raines

Chemical biology; protein design and engineering; enzymology.

Alan C. Rapraeger

Syndecan regulation of cell adhesion and growth factor signaling.

Avtar Roopra

Understand the epigenetic mechanisms behind transcriptional regulation and chromatin structure.

Lixin Rui

The mechanisms of the JAK-STAT signaling pathway in lymphomagenesis, investigation of the F-box protein FBX010

Krishanu Saha

Using human stem cells together with emerging engineering methods in material science and synthetic biology.

Linda Schuler

Physiologic growth, differentiation, and functional activity of the breast.

Nathan Sherer

HIV-1 assembly and spread; host-pathogen interactions; retroviral gene regulation; virus trafficking; cell-cell communication; live cell imaging.

Vladimir Spiegelman

Molecular mechanism of cancer development and progression.

Rupa Sridharan

Epigenetics of cell fate change

Robert Striker

Working on naturally occurring and lab generated mutants in the polymerase affects fidelity, replication, and processivity.

John Svaren

Role of EGR and NAB proteins in peripheral nerve myelination.

James A. Thomson

Focusing on understanding how a cell can maintain or change identity, how a cell chooses between self-renewal and the initial decision to differentiate, among other cell related potentials.

Randal S. Tibbetts

Genome surveillance; DNA damage-induced signal transduction.

David A. Wassarman

Transcriptional regulation by histone modifying complexes in Drosophila.

Beth A. Weaver

Regulation of chromosome segregation during mitosis.

Deric Wheeler

Mechanisms of resistance to targeted therapies.

Yongna Xing

Cell signaling pathways related to cancer.

Wei Xu

Transcriptional regulation of estrogen receptor (ER) signaling pathways.

Jay Yang

Basic mechanisms of clinically relevant problems such as pathological pain, heart failure (diabetic cardiomyopathy), and sepsis using cellular, molecular, and electrophysiological techniques.

Jerry Yin

Molecular genetics of learning and memory formation in Drosophila and mice (molecular neurobiology, nervous system function and dysfunction).

Su-Chun Zhang

Working on how functionally diversified neuronal and glial subtypes are born in the making of our human brain.

Xinyu Zhao

Focusing on understanding the molecular mechanisms that regulate neural stem cells and neurodevelopment, with the goal of applying this knowledge in the treatment of neurological disorders and injuries.