Department of Cell and Molecular Physiology
CAROL A. OTEY, Interim Chair
Eva Anton (76) Molecular Analysis of Neuronal Migration and Development of the Cerebral Cortex
William J. Arendshorst (25) Cell and Integrative Biology of Vascular and Nephron Function, Interactions of Endothelial and Vascular Smooth Muscle Cells, Receptors and Signal Transduction, Regulation of Cytosolic Calcium Concentration, Pathogenic Mechanisms of Hypertension
Richard E. Cheney (69) Motor Proteins, Cytoskeleton, Neuronal Cell Biology
James E. Faber (49) Vascular Physiology, Signal Transduction of Vascular Smooth Muscle and Fibroblast Cells, Atherosclerosis, Adrenergic Receptors
Michael F. Goy (60) Biochemistry and Physiology of Excitable Cells, Second Messenger Mechanisms in Signal Transduction, Epithelial Biology, Natriuretic Peptides
Susan J. Henning (98), Intestinal Stem Cells—Biological Properties and Potential for Therapeutic Application
Pauline K. Lund (50) Growth Factors, Cytokines, Gastrointestinal Growth, Molecular Biology, Signal Transduction, Aging and Memory Loss
Paul Manis (81) Cellular Mechanisms of Auditory Information Processing, Synaptic Plasticity, Ion Channels
Gerhard W. D. Meissner (26) Mechanisms in Excitation-Contraction Coupling in Muscle, Ion Channels
Roy C. Orlando (99) Ion Transport and Barrier Function as Mucosal Defense in Esophageal and Barrett’s Epithelium; Mechanisms by Which Acid/Pepsin Injures Squamous Epithelium Leading to Esophagitis and Alters Barrett’s Epithelium, Promoting Dysplasia and Malignancy
Carol A. Otey (72) Mechanisms of Cell Adhesion, Cell Migration and Cytoskeletal Organization, and Neuronal Cell Biology
Daniel N. Pomp (89) Genetics of Growth, Obesity, and Body Weight Regulation in Animal Models
Lola M. Reid (67) Hepatic Stem Cell and Maturational Lineage Biology, Synergies between Extracellular Matrix and Hormones in the Regulation of Gene Expression
Aldo Rustioni (30) Somatosensory System; Connections, Neurotransmitters, and Interneuronal Integration
Robert Sealock (32) Cell Biology and Biochemistry of the Neuromuscular Junction, Proteins Involved in Duchenne Muscular Dystrophy
William Snider (74) Developmental Regulation by Neuronal Growth Factors
Barry L. Whitsel (23) Neuronal Mechanisms of Somatic Sensation
Kathleen Caron (80) Gene Targeted Models of Human Disease, Reproductive Biology, Cardiovascular Biology, G-Protein Coupled Receptor Signaling
Benjamin Philpot (82) Mechanisms of Experience-Dependent Synaptic Plasticity in Visual Cortex
Scott Randell (75) Airway Epithelial Cell Biology-Stem Cells, Host Defense and Response to Injury
Nobuyuki Takahashi (84) Mechanism of Hypertension, Diabetic Complications, and Obesity Using Genetically Engineered Animals
Eleni Tzima (88) Mechanisms of Vascular Endothelial Cell Signaling and Angiogenesis in Response to Hemodynamic Stimuli
Mark J. Zylka (90) Molecules and Mechanisms for Pain
Andrew C. Dudley (103) Tumor Microenvironment, Tumor Angiogenesis, Vascular Stem Cells
Flavio Frohlich (106) Cortical Neurophysiology, Computational Neuroscience, Brain Stimulation, Epilepsy
John F. Rawls (91) Molecular and Genetic Analysis of Host-Microbial Interactions in the Vertebrate Digestive Tract
Spencer Smith (105) Neuroscience and Neuroengineering
C. William Davis (51) Airway Epithelial Cell Physiology
Research Associate Professor
Nicholas G. Moss (94) Biological Signal Transduction
Research Assistant Professor
Scott Magness (104) Stem Cells/Bioengineered Tissue Scaffolds
Andrea Azcárate Peril (102) Defining Fundamental Mechanisms of Probiosis
Sarah Street (107) Molecules and Mechanisms for Pain
Robert Tarran (87) Regulation of Airway Epithelial Ion and Mucus Transport
Hua Zhang (108) Collateral Vascular Biology: Effects of Aging on Collaterals, Assessing Collateral Endothelial Phenotype, Role of Primary Cilia
Robert G. Faust
Paul B. Farel
Enid R. Kafer
David L. McIlwain
Edward R. Perl
Ann E. Stuart
Lloyd R. Yonce
Physiology is the study of the biological, chemical, and physical processes that underlie the functions of living cells and organs. Research in physiology uses tools from chemistry, mathematics, molecular biology, and physics to identify regulatory mechanisms that operate at levels of complexity ranging from the subcellular to the organismic.
The Department of Cell and Molecular Physiology offers a program of study leading to the Ph.D. or M.D./Ph.D. degree. The M.S. degree is offered only under special circumstances. Research opportunities cover molecular, cellular, and systems physiology with an emphasis on mechanisms of disease. Faculty specialties include neurophysiology, endocrinology, and gastrointestinal, cardiovascular, and renal physiology. The Ph.D. program typically requires four to five years of study. The first two years of graduate study include core and elective course work, laboratory rotations, seminar courses, and research. The curriculum is individualized to develop the analytical, research, and communication skills necessary to carry out successful dissertation research. All students typically take the following courses: a foundational course in physiology (PHYI 702, 703), a presentation skills class (PHYI 705, 706), and electives in year two. Requirements may be waived for students with previous graduate-level course work.
Journal clubs, a class in oral and written communication, the seminar program, and a research-in-progress series provide mechanisms for students to develop research and analytical skills. Teaching experience is available in preprofessional courses, graduate school, and medical school courses. The qualifying examination is scheduled during the second year. Students submit the dissertation proposal in year three and complete research and writing in years four and five.
The department is located in the Medical Biomolecular Research Building and the adjoining Neuroscience Research Building. Faculty laboratories are equipped for research and training in all methods of biological research, including biophysics, molecular biology, biochemistry, immunochemistry, and whole-animal studies. UNC–Chapel Hill has outstanding centers for the development and breeding of transgenic and gene-knockout mice for molecular biology/recombinant DNA-related research, cardiovascular biology, and cystic fibrosis and pulmonary medicine as well as resources such as the microbiome core and the zebrafish acquaculture core facilities. Researchers in the department routinely collaborate with members of other School of Medicine departments and centers, with laboratories at Duke University, and with researchers at NIEHS in nearby Research Triangle Park.
All students in good academic standing receive a stipend, tuition scholarship, and health insurance. Many students compete successfully for individual predoctoral fellowships from the AHA, NIH, and NSF, and for competitive awards from The Graduate School. Interdisciplinary training grants in vascular biology, nutrition, cell and molecular biology, and integrative medicine support students across the campus. In addition, the department and individual labs provide funds for students to attend national and international research meetings and specialty courses on- and off-campus.
Placement of Graduates
Recent graduates are working as postdoctoral fellows and faculty members at colleges and universities, as bench scientists in the biotechnology and pharmaceutical sectors, and as scientific advisers in both clinical and basic research settings.
Requirements for Admission
Applications for all 12 School of Medicine basic science graduate programs are processed through the Biomedical and Biological Sciences Program (BBSP), and students spend their first year in that program before transferring to a degree program. Majors in cell and molecular physiology typically have an undergraduate record that includes course work in organic chemistry and biochemistry, two semesters of calculus and physics, and appropriate course work in the biological sciences, typically including zoology, genetics, cell biology, and molecular biology. All applicants are required to submit scores on the GRE aptitude test, a written statement, transcripts, and a minimum of three letters of recommendation. Application details can be found on the BBSP website at www.med.unc.edu/bbsp and The Graduate School website at gradschool.unc.edu/admissions.
Courses for Graduate and Advanced Undergraduate Students
643 Cell Structure, Function, and Growth Control I (BIOC 643, CBIO 643, MCRO 643, PHCO 643) (3). See CBIO 643 for description.
644 Cell Structure, Function, and Growth Control II (BIOC 644, CBIO 644, MCRO 644, PHCO 644) (3). See CBIO 644 for description.
Courses for Graduate Students
701 Physiology Laboratory Rotation (1–6). Permission of the director of graduate studies. Rotations in faculty laboratories introduce methods and techniques in physiology. Individual projects provide an opportunity to explore potential dissertation topics.
702 Experimental Physiology of Human Health and Disease (4). Principles of cell, organ, and systems physiology and pathophysiology required to identify important areas of biomedical research, using model systems, common disease examples (schizophrenia, hypertension, diabetes), and current research opportunities.
703 Experimental Physiology of Human Health and Disease (4). Permission of the instructor. Molecular and cellular basis of organ system function; integration of systems to maintain the normal state. Understanding of normal physiology is amplified by examples from human disease and mouse models. Principles of cell, organ, and integrative physiology and how these principles apply to translational research.
705 Communicating Scientific Results (1). Practice in oral and written communication evaluated by peers and faculty. Includes delivery of coached presentations on topics in physiology and preparation of writing assignments typically encountered in scientific life.
706 Communicating Scientific Results (1). Practice in oral and written communication evaluated by peers and faculty. Includes delivery of coached presentations on topics in physiology and preparation of writing assignments typically encountered in scientific life.
710 Medical Neurobiology (NBIO 710) (1–3). Permission of the instructor. A special section (for physiology graduate students only) of the neurobiology course for medical students. Structural and functional organization is analyzed at the level of the cell membrane, the neuron, and integrated neuronal systems.
712A Special Topics in Physiology (NBIO 891) (1–5). Permission of the instructor. Individually arranged in-depth programs of study of selected topics such as membrane function, transport physiology, renal physiology, etc.
712B Special Topics in Physiology (NBIO 892) (1–5). See NBIO 892 for description.
712C Organ System Physiology in Health and Disease: Respiratory Physiology (1). The course begins with the basic physiology of respiration and gas transport, then applies that understanding to in-depth discussions of common respiratory diseases. Format is lecture plus journal club.
714 Physiology (DENT 114) (4). This basic physiology course introduces students to the functions of and interactions between the various systems of the body. Particular emphasis is placed on those concepts of specific relevance for students and practitioners of dentistry. The course also provides students with a solid physiological background for subsequent courses within the dentistry curriculum.
720 Human Physiology (1–5). Permission of the instructor. A special section (for physiology graduate students only) of the course for medical students. The course provides a general consideration of cell function and systemic physiology. Six lecture hours per week.
721 Stem Cells and Maturational Lineage Biology (4). Prerequisites, BIOL 111; CHEM 101, 102, and 241. All tissues are organized with stem cell compartments giving rise to maturational cell lines with lineage-dependent phenotypic characteristics. Investigators discuss research in stem cell biology and regenerative medicine.
722 Cellular and Molecular Neurobiology I (PHCO 722) (2–6). See PHCO 722 for description.
722A Cellular and Molecular Neurobiology: Introduction (BIOC 722A, NBIO 722A, PHCO 722A) (2). See NBIO 722A for description.
722B Cellular and Molecular Neurobiology: Postsynaptic Mechanisms-Receptors (BIOC 722B, NBIO 722B, PHCO 722B) (2). See NBIO 722B for description.
722C Cellular and Molecular Neurobiology: Electrical Signaling (BIOC 722C, NBIO 722C, PHCO 722C) (2). See NBIO 722C for description.
723 Cellular and Molecular Neurobiology II (PHCO 723) (2–6). Lecture/discussion course on the physiology, pharmacology, biochemistry, and molecular biology of the nervous system. Topics include function and structure of ion channels, neurotransmitter biosynthesis and release mechanisms, neurotransmitter receptors and intracellular signaling pathways.
723A Synaptic Mechanisms and Intracellular Signaling (BIOC 723A, NBIO 723A, PHCO 723A) (3). See NBIO 723A for description.
723B Anatomy and Function of Sensory and Motor Systems (BIOC 723B, NBIO 723B, PHCO 723B) (3). See NBIO 723B for description.
724 Developmental Neurobiology (NBIO 724) (3). Prerequisite, NBIO 722. Permission of the instructor. A survey of nervous system development emphasizing detailed analysis of selected research topics such as neuronal induction, neural crest development, neuronal differentiation, synapse formation, neurotrophic factors, glial development, and the effects of experience.
751 Seminar in Physiology (1). Permission of the director of graduate studies.
752 Seminar in Physiology (1). Permission of the director of graduate studies.
800 Teaching Physiology (1–3). Permission of the instructor. Introduces the principles of teaching physiology. Provides students the opportunity to plan instruction and to teach with increasing degrees of responsibility. The teaching internship is under the direct supervision of a faculty mentor
832 Respiratory Physiology: Defense Mechanisms in the Airways (1–4). Prerequisite, PHYI 703. The integrated defense mechanisms that protect the airways and lung from inhaled allergens, irritants, particulates, and pathogens. Topics include transepithelial ion transport, mucociliary clearance, and innate immune responses.
833 Gastrointestinal Physiology: Growth, Cancer, Inflammation, and the Microbiome (1–3). Prerequisite, PHYI 703. Roles of growth factor and cytokine signaling, and the intestinal microbiome in normal intestinal growth, inflammation, or colon cancer. Molecular, cellular, genomic, model organisms and translational medicine approaches.
834 Pain and Somatic Sensation (NBIO 824) (1–21). Prerequisite, PHYI 720. Permission of the instructor. Consideration of peripheral and central neural mechanisms for somatic sensation with particular emphasis on pain.
835 CNS Organization (1). Primary literature explores how the nervous system is organized, integrates information, and adapts.
836 Excitable Membranes, Receptors, Channels and Synapses (1–4). Basic neurophysiology of excitable membranes, channels, and synapse as the basis of neuronal communication.
839 Endothelial Cells in Health and Disease (1). Prerequisite, PHYI 703. Literature-based survey of endothelial cell biology including development, angiogenesis, environmental influences, and disease models.
840 Renal/Cardiovascular Systems (1–4). Prerequisite, PHYI 703. Permission of the instructor. Blood pressure control in normal, diseased, and genetically modified animals. Physiology and pathophysiology of the renal and cardiovascular systems.
850 Seminar in Neurobiology (BIOL 850, NBIO 850, PHCO 850) (3). See NBIO 850 for description.
901 Research in Physiology (3–10).
902 Research in Physiology (3–10).
903 Research in Physiology (3–10).
951 Research in Neurobiology (BIOL 951, NBIO 951, PHCO 951) (3–12). See NBIO 951 for description.
993 Master’s Thesis (3–21).
994 Doctoral Dissertation (3–21).