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NEUX 6000
Special Topics
Study
of special topics in neuroscience. Topics are selected and study
programs arranged on an individual basis with staff members.
1–3 credits
Prerequisite: Consent of instructor
Term offered: Open
Year offered: Open
Hours per week: Variable, format to be arranged
Instructor: Staff
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NEUR 6042
Laboratory Rotations
The objectives of this required course
are to provide students an opportunity to become familiar with the
faculty and their research efforts in the Neuroscience Program by
participating in the activities of the laboratory (gaining supervised,
hands-on experience with techniques and experimental protocols) and by
becoming acquainted with the laboratory staff and the goals of the
research project. Students will be taught by discussions with the
instructor, by reading relevant literature and by active participation
in laboratory procedures. The long-term goal of this course is to
provide exposure to a variety of experimental approaches and to help in
the identification of a supervisory professor and dissertation project.
Neuroscience Program students are required to spend at least 3 credit
hours in each of three different laboratories (that is, do three
different rotations), and must complete the three rotations before the
end of their fifth term in the program. Grading is A, B, C, F and based
on participation in lab discussions and experiments.
3–8 credits
Term offered: I, II, III
Year offered: Annually
Hours per week: Laboratory, 9–24 (variable)
Instructors: Staff
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NEUR
6097
Research
Formal
research directed toward development of the dissertation research for
the Doctor of
Philosophy degree. Grading will be based upon the student’s level of
performance as reported by the student’s research supervisor and will
be assigned as satisfactory or unsatisfactory.
1–8 credits
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NEUR
6099
Dissertation
Formal research and writing leading to
the preparation and completion of the dissertation for the Doctor of
Philosophy degree under the direction of the student’s supervisory
committee. Grading will be based upon the student’s level of performance
as reported by the chairperson of the student’s supervisory committee
and will be assigned as satisfactory or unsatisfactory.
3-9 credits
Prerequisite: Admission to candidacy for the Ph.D. degree
Term offered: I, II, III
Year offered: Annually
Students registering for Dissertation are expected to register
for a full-time course load.
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NEUR
6121
Proteomics in Neuroscience
This course will cover the
basic knowledge and concepts of proteomics, the currently available technologies
for isolating and characterizing proteins, including protein extraction,
purification, separation, mass spectrometry and bioinformatics, and applications
of proteomics in neuroscience research. Proteins are the functional units of
cells, therefore discoveries of abnormalities in them will provide the most
relevant information for therapeutic treatment. However, it is much more
complicated to characterize proteins than genes because of their much greater
numbers, changes in three dimensional structure, and post-translational
modifications. The progress in high-resolution 2-dimensional gel electrophoresis
(2-DE) separation, capillary HPLC and capillary electrophoresis or their
combination, mass spectrometry analysis at femtomole-to-attomole levels, and
rapidly growing protein and DNA databases have paved the way for high-throughput
proteomics. This will greatly speed the search for proteins important in CNS
injury and neurological disorders. The course material will be covered mainly
through lectures with some discussion of papers from the literature; the course
will meet once per week for 1.5 hours during the final 10 weeks of the fall
term. Grades will be based on a combination of class participation and a written
examination.
1 credit
Prerequisite: Biochemistry in college, or
BBSC 6401 (or equivalent) in
graduate school, or permission of instructor
Term offered: I
Year offered: Annually
Hours per week: Lecture, 1; Conference and discussion, 0.5;
Instructor: Danxia Liu
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NEUR
6103
Spinal Cord Injury: A Course in Critical Reading
The
course objective of this elective is to examine and critique current
manuscripts that present data addressing cellular and molecular
mechanisms of spinal cord injury. Readings will be selected by the
course director or by mutual agreement of students and director. All
enrolled students will be asked to summarize each article into one or
two written sentences (40% of grade). In addition each student will
present 3 manuscripts and identify the hypothesis to be tested, followed
by oral critiques on the experimental design, the data collected, the
interpretation of the data and whether or not the stated hypothesis was
supported (60% of grade).
1 credit
Prerequisite:
None
Term offered: I, II and III
Year offered: Annually
Hours per week: Conference or discussion, 1
Instructor:
Hulsebosch
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NEUR
6195
Seminar
The
objectives of this course are to: 1) expose the students to a wide range
of current topics in neuroscience and 2) provide the students with
experience in organizing and presenting seminars. Exposure to current
topics in neuroscience will be accomplished by required attendance at
seminars presented by local and visiting scientists. Experience in
organizing and presenting seminars will be obtained by requiring the
students to organize and present a seminar each year until students are
admitted to candidacy. Their performance will be evaluated by the
program faculty. Entry-level students present seminars based on original
literature in a selected topic area. Advanced students will be expected
to present literature and experimental data related to their research
experiences. Grading when enrolled for attendance only will be S/U.
Grading when presenting will be A, B, C, F based on performance and
continued attendance at other seminars.
1 credit
Term offered: I, II, III
Year offered: Annually
Hours per week: Seminar, 1
Instructor: Staff
(organized and administered by program Advisory Committee)
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NEUR
6201
History of Neuroscience
An
elective readings course on the history of neuroscience. The class will
meet two hours per week to discuss assigned readings from the book
Origins of Neuroscience, by Stanley Finger. Students will write a paper
on a historical theme chosen by the student and based on reading
original works and background material. Grading based on classroom
participation
(50%) and on written paper (50%).
2 credits
Prerequisite: None
Term offered: III
Year offered: Annually
Hours per week: Discussion, 2
Instructor:
Willis
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NEUR
6202
Biochemical and Molecular Neuroscience
The
biochemical and molecular bases of neuronal and glial function at the
molecular and cellular levels will be introduced in this course. Through
lectures and readings in texts and original literature, the following
topics will be covered: cellular phenotypes of the nervous system, axon
transport and neural repair, neuronal guidance, transmitter release,
developmental neuroscience, amino acid metabolism and transport,
oxidative processes, neuroimmunology and neuroinflammation,
neurodegeneration, gene delivery, and genomics. Grading will be
determined from a midterm exam and a final exam.
2 credits
Prerequisite:
Term offered: III
Year offered: Annually
Hours per week: Laboratory: 1, Lecture 1
Instructor:
Perez-Polo
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NEUR
6203
Advanced Electrophysiology: Potential and Channel Physiology
This
is an 8-week course that begins at the start of the fall term annually.
The content of the course will include theory, instrumentation,
methodologies and experimental applications of intracellular (sharp
microelectrodes), whole-cell patch current- and voltage-clamp, and
single-channel patch-clamp analysis of gated channels.
There will be three hours of lecture in each of the first two
weeks. In each of the successive 5 weeks, students will spend 9
hours per week in a different laboratory, observing and participating in
experiments utilizing these techniques as they apply to slice
preparations of brain and spinal cord, to dissociated cells, or to
channel expression in oocytes or cultured cells.
Grading will be based on either a written examination or a
research paper.
2 credits
Prerequisite:
BBSC 6107 or consent of
instructor
Term offered: I
Year offered: Annually
Hours per week: Laboratory, 1;
Lecture 1
Instructor:
Hamill
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NEUR
6220
Teaching in Neuro
The
objectives of this course are to provide students with an opportunity to
gain experience in how to teach and to enhance their knowledge of
neuroscience. Students will
participate in teaching and discussion in the laboratories of the
Neuroscience and Human Behavior
course (NEUR 6503), which is offered to graduate students and
medical students. The students have two one-hour discussion session with
faculty lab instructors each week to review the material to be covered
in lab and to practice teaching skills. They will then assist in two
two-hour laboratory sessions each week. Students will be expected to
review material in a group session in the lab, answer questions, point
out and explain structures and functional relationships of laboratory
specimens, assist with demonstrations and examinations, and assist in
setting up and organizing lab materials. Grading will be based on
knowledge of material (20%), ability to present reviews to class clearly
(40%), ability to interact effectively with small groups in lab (20%),
and participation in preparatory sessions and demonstrations (20%).
2 credits
Prerequisite:
NEUR 6503,
NEUR
6403,
or consent of instructor
Term offered: II
Year offered: Annually
Hours per week: Conference or discussion, 1, Laboratory, 4
Instructor:
Blankenship
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NEUR
6325
Behavioral Neuroscience
Lectures
and discussion in this required course will cover ecological, organismal,
circuit and cellular levels of fixed and plastic behaviors of both
invertebrates and vertebrates. A conceptual framework will be developed
for understanding the “why” and “how” of the evolution, development,
causation and function of behavior. Mechanisms will be described for
obtaining environmental information, for integrating and coordinating
this information, and for locomotion, feeding, reproduction and defense.
Grades will be based on two essay-type examinations (mid-term 35%, final
35%), one take-home conceptual framework essay question (15%) and
classroom participation (15%).
3 credits
Prerequisite:
None
Term offered: II
Year offered: Annually
Hours per week: Lecture, 3
Instructor:
Budelmann
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NEUR
6403
Systems Neuroscience
This
required course will form a basis for understanding the anatomical and
functional organization of the nervous system. We will study the
organization and physiology of major sensory systems, motor systems and
the limbic system. The format will be three small-group discussion
sessions and one 3-hour laboratory session each week.
Discussions will cover assigned readings from a comprehensive
neuroscience text and focus on critical features of the systems under
study: organizational principles, functional anatomy and physiological
characteristics of the system, similarities and differences between
systems, and integration among systems.
Grades will be based on class participation and on midterm and
final written and lab examinations.
4 credits
Prerequisites:
Standard first-year
BBSC curriculum proscribed for Neuroscience Program students or consent
of instructor
Term offered: I
Year offered: Annually
Hours per week:
Discussion, 3, and Lab, 3
Instructor:
Leonard, G.
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NEUR
6503
Neuroscience and Human Behavior
The
objectives of this elective course are to provide an opportunity for
students to learn the basic principles of neuroanatomy and
neurophysiology, to learn basic anatomy and functional organization of
the human central nervous system, and to be introduced to the
biochemical and physiological processes underlying nerve cell function
and behavior. The content includes the major pathways and structures of
the CNS; basic electrophysiology of nerve cells and the function of
major CNS components, such as motor system, sensory systems, cortical
organization and function, and integrative centers; and the effects of
disease or injury on nervous system function. Performance is evaluated
by written exams, laboratory practical exams and performance in
small-group problem-solving sessions.
5 credits
Prerequisite: None
Term offered: II
Year offered: Annually
Hours per week: Lecture, 3; Conference and
discussion, 2; Laboratory, 2
Instructor:
Chung
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