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CELL BIOLOGY PROGRAM
Program Director: Dr. Victor Fried
Training in the broad areas of Cell Biology and Neuroscience leading to the
M.S. and Ph.D. degrees is available to prepare students for research and
teaching careers in universities, medical schools and private industry.
Ongoing projects include studies of oncogene expression and cytokines,
apoptosis in glaucoma, the role of astrocytes in cerebral ischemia, modulation
of neuronal and astrocytic signaling, growth control in skeletal muscle, signal
transduction in a variety of tissues including platelets, retina, muscle cells,
and the leech nervous system, intracellular protein degradation, cytoskeletal
and receptor function, the development and regeneration of the visual system,
extracellular matrices and limb development, spinal cord injury, and molecular
mechanisms of Alzheimer’s disease. The department has state-of-the-art
facilities for the techniques used in these studies, which include tissue
culture, subcellular fractionation, protein sequencing, mass spectroscopy
protein chemistry, recombinant DNA, fluorescent digital image analysis, electron
microscopy, electrophysiological recording, and confocal and 2-photon
microscopy.
Master of Science Program
Specific Program Requirements (Hegis Code 0412)
A minimum of 30 credits is required including certain specific core courses.
A 3.00 GPA (B average) must be maintained in the required core curriculum.
Electives may be chosen from didactic courses in cell biology and other basic
sciences (biochemistry, physiology, etc.), in consultation with the graduate
program director.
| Plan A: |
|
| Required Core Courses |
|
| Lectures in Histology (CELL 1320) |
3 credits |
| Laboratory in Histology (CELL 1330) |
2 credits |
| Cell Biology (CELL 1360) |
3 credits |
| General Biochemistry I and II (BIOC 1010, 1020) |
8 credits |
| Biochemistry of Gene Expression (BIOC 1250) |
4 credits |
| Master’s Literature Review (CELL 9750) |
1 credit |
Electives |
9 credits |
TOTAL |
30 credits |
| Plan B: |
|
| Required Core Courses |
|
| Lectures in Histology (CELL 1320) |
3 credits |
| Laboratory in Histology (CELL 1330) |
2 credits |
| Cell Biology (CELL 1360) |
3 credits |
| General Biochemistry I and II (BIOC 1010, 1020) |
8 credits |
| Biochemistry of Gene Expression (BIOC 1250) |
4 credits |
| Master’s Thesis Research (CELL 9800) |
up to 5 credits |
| Master’s Thesis (CELL 9850) |
1 credit |
Electives |
4 - 9 credits |
TOTAL |
30 credits |
Doctor of Philosophy
Specific Program Requirements (Hegis Code 0412)
An average grade of “B” (GPA = 3.00 or better) must be maintained in the
required core curriculum. Elective courses are selected, based upon the
student’s interests, in consultation with the graduate program director and
research sponsor. For example, Neural Science (BMS 1410) is usually taken by
students interested in pursuing research in this field. To gain teaching
experience, students must assist in teaching for one semester in a departmental
course.
To become familiar with on-going research projects, students attend “Work in
Progress” seminars given by faculty, postdoctoral fellows and graduate students.
Participation in weekly Journal Club (CELL 8010) and Research Seminar (CELL
8020) sessions is also required in all years of residence, but only 2 credits
for each course may be counted toward the degree requirements. During their
first year, students undertake at least two research rotations in different
laboratories to gain an appreciation of different areas and strategies of
investigation and to determine a suitable dissertation advisor. Research
activity is an important component of the program throughout the student’s
tenure.
| Required Core Courses |
|
| Histology Cell Biology (CELL 1420) OR Neural Science (BMS 1410) |
6 - 8 credits |
| Cell Biology (CELL 1360) |
3 credits |
| General Biochemistry I and II (BIOC 1010, 1020) |
8 credits |
| Biochemistry of Gene Expression (BIOC 1250) |
4 credits |
Other Required Courses |
|
| Introduction to Research in Cell Biology & Neurosciences (CELL 9110)
|
4 credits |
| Statistics for Basic Medical Sciences (BMS 1200) |
2 credits |
| Journal Club (CELL 8010) |
2 credits |
| Research Seminar (CELL 8020) |
2 credits |
| Teaching Assistance (CELL 8310, 8320 or 8330) |
2 credits |
Electives |
10 - 12 credits |
Subtotal, course credits |
45 credits |
| Doctoral Dissertation Research (CELL 9900) |
15 research credits |
TOTAL |
60 credits |
M.D./Ph.D. Candidates
Students in the M.D./Ph.D. program seeking their Ph.D. in Cell Biology are
required to pass, as core courses, both Cell Biology (CELL 1360) and
Biochemistry of Gene Expression (BIOC 1250). Journal Club (CELL 8010) and
Research Seminar (CELL 8020) are required during each year of enrollment in the
Ph.D. program. Students may elect to take additional courses offered in the
department or other departments. A “B” average (GPA = 3.00 or better) must be
maintained for the specified core courses as well as for all graduate courses.
M.D./Ph.D. candidates must also pass the Ph.D. Qualifying Examination.
Qualifying Examination
Following completion of the required core courses, laboratory rotations and
the teaching requirement, students take the Qualifying Examination. Usually,
these requirements are completed by the end of the second year of the program,
by which time the student has chosen a sponsor.
The Qualifying Examination consists of two parts. Part I (Preliminary Exam)
consists of essay questions on topics related to the student's projected
research interests. In Part II, which usually occurs 6-8 weeks following the
successful completion of Part I, the student prepares a research proposal in
grant application format on a topic different from the projected thesis research
and presents the topic in a seminar to members of the examining committee and
the department. The examining committee is made up of three to four members of
the Cell Biology and Anatomy faculty and one faculty member from another
program.
Candidacy
The student is eligible to enter doctoral candidacy after successful
completion of both parts of the Qualifying Exam, the accumulation of at least 30
didactic credits including all the core and other required courses, and the
recommendation of the program faculty. M.D./Ph.D. students are eligible for
candidacy under the same conditions except that the credit requirement consists
only of the required core graduate courses.
Dissertation Committee
The dissertation committee consists of at least five individuals including
the student’s sponsor, at least three members of the Cell Biology and Anatomy
faculty, a faculty member from another program, and a member from another
academic institution. The Committee is chaired by a member other than the
student’s sponsor
Course Descriptions
| CELL 1320 Lectures in Histology |
(3 credits) |
Dr. Drakontides and Staff (Fall) |
| (Previously offered as 132A.3) |
| This course involves the study of individual
cells and the organization in tissues and organ systems. Emphasis is on the
correlation of structure and function at all levels of organization.
Lectures: 3hrs/wk. Letter-graded. Students cannot apply credit for both CELL
1320 and CELL 1420 to their degree requirements.
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| CELL 1330 Laboratory in Histology |
(2 credits) |
Dr. Drakontides and Staff (Fall) |
| (Previously offered as 132B.2) |
| Laboratory sessions involving microscopic
analysis of slides consisting of human and animal tissues and organs.
Laboratory: 4 hrs/wk. Co-requisite: CELL 1330. Letter-graded. Enrollment is
limited. Microscopes are required with a limited number available for
rental.
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| CELL 1360 Cell Biology |
(3 credits) |
Dr. Lerea and Staff (Spring) |
| (Previously offered as 136.3) |
| This course is concerned primarily with
eukaryotic cells. Lectures are devoted to structural details and the
molecular functions of the different parts of the cell. Lectures will
introduce topics such as endocytosis, intramembrane transport, protein
targeting, organelle biosynthesis, protein sorting, exocytosis, cell shape,
motility, and cell-to-cell interaction. Lectures also deal with signal
transduction processes and cellular functions that are required for cell
growth and programmed cell death. By its completion, students should have a
comprehensive understanding of the architecture and function of living
cells. In addition, emphasis is placed on experimental approaches taken to
elucidate certain biology principles, including “paper review sessions” with
active participation by students. Prerequisite: General Biochemistry I (BIOC
1010) or equivalent. Lectures: 3 hrs/wk. Letter-graded.
|
| CELL 1410 Gross and Developmental Anatomy |
(9 credits) |
Dr. Pravetz and Staff (Fall) |
| (Previously offered as 141.9) |
| This course is designed to provide the student
with a working knowledge of the gross anatomical structures of the human
body, their functional relationships and their development. Emphasis is
placed on the regional dissection of the entire cadaver. Laboratory sessions
begin with a discussion of the structures to be dissected. Lectures
introduce regions or systems, supplemented with TV tapes of prosections and
demonstrations. Lectures by faculty from the Department of Surgery emphasize
the relevance of anatomical principles to clinical application. Conferences
conducted by members of the Radiology Department reinforce anatomical
principles with radiographs, computerized tomography and magnetic resonance
images. Small group sessions and a problem-solving approach to the material
is favored throughout the course. Human development is presented by a
combination of lectures and conferences outlining the embryogenesis of
specific organ systems, small-group problem-solving sessions and lectures
emphasizing the clinical application of embryology to neonatology and
pediatrics. Open to Ph.D. students only. Laboratory 90 hrs.
Lectures-Conferences: 75 hrs. Letter-graded.
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| CELL 1420 Histology Cell Biology |
(6 credits) |
Dr. Drakontides and Staff (Fall) |
| (Previously offered as 142.6) |
| This course presents the structural
organization and correlated function of the microanatomy of the human body.
Since the cell is the basic element of all tissues, particular attention is
paid to aspects of molecular and cell biology. New methods for studying
structure and function are discussed. Lectures incorporate aspects of gross
anatomy, embryology, histophysiology and histopathology to establish a
foundation of integrated knowledge. In the laboratory, students study
structural aspects by viewing prepared microscope slides and related
electron micrographs. Several lectures are devoted to the clinical aspects
of special topics in Cell Biology and Histology. Open to Ph.D. students
only. Lectures: 52 hrs, Laboratory-Conference: 70 hrs. Letter-graded.
Students cannot apply credit for both CELL 1420 and CELL 1320, 1330 to their
degree requirements.
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| CELL 2110 Developmental Neurobiology |
(3 credits) |
Dr. Sharma |
| (Previously offered as 175.3) |
| This course is intended to present up-to-date
information on various aspects of the developing nervous system. Specific
lectures will review the historical aspects followed by the recent status of
each problem. The 3rd hour will be devoted to the discussion of one or two
specific papers in the subject. Lectures: 3 hrs/wk. Letter-graded.
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| CELL 2120 Developmental Biology |
(2 credits) |
Dr. Newman and Staff |
| (Previously offered as 184.2) |
| Topics in molecular and cell biology of
developing and regenerating systems. Subjects include fertilization, cell
differentiation, chromatin structure and function, molecular control of gene
expression, cellular pattern formation, neuronal specificity, the
extracellular matrix, and the cellular basis of morphogenetic movements.
Lectures: 2 hrs/wk. Letter-graded.
|
| CELL 3110 Cytokines |
(2 credits) |
Dr. Sehgal (Spring in alternate years) |
| (Previously offered as 185.2) |
| This course covers the structure and function
of cytokines such as the interleukins, interferons, and cellular growth
factors. Emphasis will be on a consideration of cytokines involved in the
host reaction to infection and injury, in B and T cell proliferation and in
hematopoictic cell differentiation. Lectures: 2 hrs/wk. Letter-graded.
Prerequisites: CELL 1360 and BIOC 1250.
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| CELL 8010 Journal Club |
(1 credit) |
Dr. Drakontides |
| (Previously offered as 191.1) |
| Students present and critically discuss current
papers in a selected area. Seminar: 1hr/wk. Pass/Fail. May be taken multiple
times.
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| CELL 8020 Research Seminar |
(1 credit) |
Dr. Drakontides |
| (Previously offered as 190.1) |
| The student presents a seminar in his/her own
field of interest and attends the weekly seminars presented by invited
guests, faculty members and students. Seminar: 1 hr/wk. Pass/Fail. May be
taken multiple times.
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| CELL 8100 Current Topics in Cell Biology and
Neuroscience |
(2 credits) |
|
| Dr. Etlinger and Staff (Fall and Spring) |
| (Previously offered as 194.2) |
| Areas at the "cutting edge" of modern biology
are studied at an advanced level through lectures, students’ presentations
and critical discussions. Two to four topics are covered each semester.
Topics include but are not limited to the following: Receptor mediated
endocytosis, growth factors and ocogenes, ubiquitin and cellular function,
interaction of extracellular matrix with normal and transformed cells,
regeneration of muscle and nerve, neuronal plasticity in visual systems,
neurobiology of learning, molecular basis of cell cycle, molecular basis of
signal transduction, programmed cell death. Seminar: 2hrs/wk. Letter-graded.
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Teaching Assistance in Departmental Courses
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CELL 8310 Gross Anatomy
CELL 8320 Histology-Cell Biology
CELL 8330 Neural Science |
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(2 credits) |
Dr. Pravetz
Dr. Drakontides
Dr. Sharma |
| (Previously offered as 196A Gross Anatomy, 196B
Histology-Cell Biology, 196C Neural Science.) |
| Students assist the faculty in teaching
departmental courses to medical students. Hours to be arranged. Pass/Fail.
Open to Ph.D. students only.
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| CELL 9110 Introduction to Research in Cell Biology and
Neuroscience |
(2 credits) |
Dr. Etlinger and Staff |
| (Previously offered as 193.2) |
| Training in experimental design and
interpretation of data as well as hands-on experience with various
state-of-the-art techniques used in modern research. Individualized
interaction is provided in a faculty laboratory for approximately one
semester. Within the context of an experimental question, students have the
opportunity to learn diverse techniques including tissue culture,
electrophysiology, confocal microscopy, recombinant DNA, digital imaging,
protein chemistry and FPLC, immunohistochemistry, etc. Students present a
“work in progress” seminar at the conclusion of each rotation. Research:
Hours to be arranged. Pass/Fail. Open to Ph.D. students only, who must take
this course twice.
|
| CELL 9750 Master’s Literature Review |
(1 credit) |
Dr. Drakontides and Staff |
| (Previously offered as 197.1) |
| Candidates for the Master of Science degree in
Cell Biology and Anatomy may elect a Library project to satisfy, in part,
the degree requirement. A research review topic is chosen after consultation
between the student and faculty advisor and this serves the basis of a
literature review with submission of a satisfactory final written report.
Required for the Master’s degree, Plan A. Independent study. Pass/Fail. Open
to Master’s students only.
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| CELL 9800 Master's Thesis Research |
(1 - 5 credits) |
Dr. Drakontides and Staff |
| (Previously offered as 198.1-5) |
| Candidates for the Master of Science degree in
Cell Biology and Anatomy may elect to conduct a research project under the
supervision of a faculty member. Submission of an acceptable final report
summarizing results is required (CELL 9850). Thesis Research. Pass/Fail. May
be taken multiple times, for one to five credits per term, but only five
credits can be applied towards program requirements. Open to Master’s
students only.
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| CELL 9850 Master’s Thesis |
(1 credit) |
Dr. Drakontides and Staff |
| (Previously offered as 195.1) |
| The candidate writes a scholarly thesis
describing his/her original research in cell biology or anatomy (CELL 9800).
The thesis must be approved by a graduate faculty committee. Open to
Master’s students only. Required for the Master’s Degree, Plan B.
Independent study. Pass /Fail.
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| CELL 9900 Doctoral Dissertation Research |
|
Dr. Drakontides and Staff |
| (Previously offered as 199.1-15) |
| Candidates for the doctoral degree elect this
course while performing research under the guidance of a faculty member.
Thesis Research. Pass/Fail. May be taken multiple times for an overall total
of 15 credits. Open to Ph.D. students only.
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| BMS 1410 Neural Science |
(8 credits) |
Dr. Sharma and Staff (Spring) |
| (Previously offered as 922.8) |
| Fine structure and gross anatomy of the nervous
system, including pathways, are emphasized together with the fundamentals of
membrane physiology, neuropharmacology and experimental evidence elucidating
conduction of nervous impulses. Reflex activity and integration of function
by the central nervous system are dealt with on a theoretical basis and from
a clinical point of view. Lectures and conferences: 100 hrs., laboratory
demonstrations and clinical sessions: 100 hrs. Letter-graded. Open to Ph.D.
students only.
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| BIOC 2630 Cell Signaling |
(2 credits) |
Drs. Olson and Lerea |
| (Previously offered as 263.2) |
| An advanced topic course that covers major
signaling components such as phospholipases, GTP binding proteins, protein
kinases, and protein phosphatases. Format includes lectures by the
instructors and presentations of original literature by the students.
Prerequisite: BIOC-1010 or CELL-1360. Lectures: 2 hrs/wk. Letter-graded.
Enrollment is limited. |
Graduate Faculty and Research Interests
Anna B. Drakontides, Ph.D.
Professor of Cell Biology and Anatomy
B.S. 1955, Hunter College; M.S. 1968, Ph.D. 1971, Cornell University Medical
College
Research/Interests - Pathogenesis of early and late changes at
neuromuscular junction and muscle induced by chemical irritants.
Joseph D. Etlinger, Ph.D.
Professor and Chairman of Cell Biology and Anatomy
B.S. 1968, Rensselaer Polytechnic Institute; Ph.D. 1974, University of
Chicago
Research/Interests - Skeletal muscle growth and atrophy, molecular
mechanisms, and selectivity of intracellular proteolysis in erythroid and muscle
cells; role of proteasomes and ubiquitin; spinal cord injury.
Victor A. Fried, Ph.D.
Professor of Cell Biology and Anatomy and Graduate Program Director
B.S. 1965, University of Chicago; Ph.D. 1970, University of Oregon
Research/Interests - Role of ubiquitin in cytoskeletal and
cell-surface receptor function, posttranslational modifications, and protein
sequencing.
Jian
Kang, M.D., Ph.D.
Associate Professor of Cell Biology and Anatomy
M.D. 1982, China; Ph.D. 1993, University of Florida
Research/Interests - Interplay between excitatory and inhibitory
synapses; mechanisms underlying Epilepsy; roles of astrocytes in synaptic
plasticity; properties and functions. of K channel, Na channel, GABAA
channel and gap-junction hemichannel.
Anna L.
Kleinhaus, Ph.D.
Professor of Cell Biology and Anatomy
Lic. Science 1961, University of Geneva, Switzerland; Ph.D. 1968, SUNY
Downstate Medical Center
Research/Interests - Properties and modulation of ion channels
involved in neuronal function and behavior; chemosensory mechanisms; cellular
basis of behavior in simple systems.
Kenneth
M. Lerea, Ph.D.
Associate Professor of Cell Biology and Anatomy
B.S. 1980, SUNY at Binghamton; M.S. 1982, Ph.D. 1984, University of Rochester
Research/Interests - Mechanism of signal transduction; role of protein
seryl-threonyl and tyrosyl kinases and phosphatases in integrin functions and
platelet activation.
Stuart A. Newman, Ph.D.
Professor of Cell Biology and Anatomy
A.B. 1965, Columbia University; Ph.D. 1970, University of Chicago
Research/Interests - Physical and molecular mechanisms of development
and evolution; pattern formation in the vertebrate limb; collagen assembly.
Renato Rozental, MD, PhD
Associate Professor of Cell Biology and Anatomy; Associate Professor of
Obstetrics & Gynecology; Associate Professor of Anesthesiology
M.D. 1982, M.Sc. 1985, Ph.D. 1990, Federal University of Rio de Janeiro
Research/Interests - Role of connexins in nervous system development
and dysfunction in ischemia and perinatal seizures
Tamiko
Sato, M.D.
Associate Professor of Cell Biology and Anatomy
M.B. 1950, Nagoya City Women's Medical College; M.D. 1959, Nagoya University,
School of Medicine
Research/Interests - Regulation of intracellular calcium in muscular
dystrophy; digital imaging of fluorescent ion probes.
Pravin B. Sehgal, M.D., Ph.D.
Professor of Cell Biology and Anatomy and Medicine
M.D. (MBBS) 1973, University of Bombay; Ph.D. 1977, Rockefeller University
Research/Interests - Interleukin-6; interferons; gene expression;
signal transduction (STATs in membrane rafts)
Sansar C. Sharma, Ph.D.
Professor of Ophthalmology and Professor of Cell Biology and Anatomy
Ph.D. 1967, Edinburgh University Medical School, Scotland
Research/Interests - Development and regeneration in the visual system
and spinal cord.
Alan
D. Springer, Ph.D.
Professor of Cell Biology and Anatomy
B.S. 1969, Brooklyn College; Ph.D. 1973, City University of New York
Research/Interests - Virtual engineering simulations of the mechanisms
underlying retinal and foveal development; causes of retinal detachments in
premature infants; causes of strabismus.
Gerardo Suarez, M.D.
Research Associate Professor of Cell Biology and Anatomy
M.D., 1960, University of Chile
Research/Interests - Protein fructation and oxidative stress;
crystallin and collagen self-assembly; molecular mechanisms of diabetic
complications and generation of Alzheimer's β amyloid protein.
Richard J. Zeman, Ph.D.
Associate Professor of Cell Biology and Anatomy
B.S. 1969, Columbia University; M.S. 1977, Ph.D. 1979, New York University
Research/Interests - Role of B2
adrenoceptors in musculoskeletal growth; mechanisms of spinal cord injury;
regulation of intracellular calcium.
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