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American Studies 050
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Computational Biology 197
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English 350 (Includes American Literature 352)
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Integrative Neuroscience 546
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  Graduate School-Newark 2008-2010 Programs, Faculty, and Courses Integrative Neuroscience 546 Graduate Courses  

Graduate Courses

26:546:501 Neuroanatomy (3) Mammalian neuroanatomy, covering the gross anatomy of the brain, the ascending sensory systems, descending motor systems, cranial nerves, the higher motor systems, the thalamus, hypothalamus, and cerebral cortex. Includes dissection and slide viewing. Morrell
26:546:509,510 Statistics in Neuroscience (3,3) Introduction to statistics and data analysis. Fundamental statistical methods necessary for conducting research; analysis and interpretation of data using statistical computer software. Topics include hypothesis testing, correlation and regression, validity and reliability, research design, report writing, MANOVA, factor analysis, and meta-analysis. INS faculty
26:546:511,512 Research in Neuroscience (3,3) Research rotation. INS faculty
26:546:532 Cellular Neurophysiology (3) Advanced topics in cellular neurophysiology. Topics include membrane biophysics, synaptic transmission, and an overview of systems neurophysiology. Tepper. Prerequisites: 26:546:565,566; or permission of instructor.
26:546:565,566 Foundations of Neuroscience I,II (4,4) Broad overview of basic tenets, philosophy, history, techniques, and research advances in behavioral and neural sciences. INS faculty
26:546:589 Introduction to Neuropharmacology (3) Basic neurochemistry and neuropharmacology relating to synaptic transmission. Chemistry and pharmacology of neurotransmitters. Experimental approaches. Abercrombie
26:546:597 Neurophysiology and Behavior (3) Structure and function of the mammalian nervous system; neuroanatomy, neurophysiology, neuropharmacology; functions of spinal cord, autonomic nervous system, limbic system, higher brain mechanisms, reproductive behavior, pain modulation, sensorimotor and viscerosomatic integration. Komisaruk
26:546:605 Quantitative Neuroscience (3) Quantitative approaches to nervous system function.  Topics include large-scale studies of neural circuit function and data-intensive experimental approaches. K. Harris
26:546:607 Windows on The Brain (3) What you see is not always what you get. Our brain is easily tricked into perceiving something that isn't real. Sensory illusions are a timeless source of entertainment but a nuisance when accurate perception is required. However, rather than being a failing of our sensory systems, illusions are often peculiar side effects of desirable neural computations. As such, illusions offer neuroscientists a unique window on the brain. In this course, we will investigate a range of illusions from this perspective. Each session will use published scientific data to describe the behavioral phenomenology, the neural mechanisms that are purported to underlie the illusion, and the computational analysis that has been used to link the two. Some illusions that will be discussed are: rotating snakes, waterfall illusion, Hermann grid, Thatcher illusion, glash-lag effect. Krekelberg
26:546:610 Neural Bases of Cognitive Development (3) Broad overview of emerging field of developmental cognitive neuroscience. Behavioral and biological approaches to study of relations between early brain development and developing language and cognition. Major focus on neural bases of cognition in children (i.e., links between brain development and cognitive development). Research in cellular and animal literatures used to provide framework for understanding links between biological processes occurring during central nervous system (CNS) development and behavioral capacities in the mature organism. Weighs the contributions of processes intrinsic to CNS development against influences from such external sources as behavioral experience, trauma, nutrition, and hormonal states. Topics include historical and theoretical backgrounds for studying the developing brain, embryonic and fetal brain development, perceptual development, language and cognitive development, brain plasticity, and brain-based disorders of language and cognition. Benasich
26:546:618 Neurobiology of Emotions (3) This course will review research and concepts on the nature, functions, and neural basis of emotions. Evolutionary, psychological, and neurological approaches to the study of emotions will also be considered. Paré
26:546:625 Basal Forebrain: An Anatomy to Function (3) Lectures on current ideas about the anatomy of the basal forebrain cholinergic system, as well as its involvement in different functions, such as sensory processing, attention, and learning and memory. Role of the basal forebrain in certain neurodegenerative diseases, such as Alzheimer's disease and Parkinson's disease. Zaborszky. Prerequisites: 26:546:565,566; or permission of instructor.
26:546:627,628 Colloquium in Neuroscience (1,1) Neuroscience topics of current interest discussed by a series of experts in the field. Critical issues in modern neuroscience, including structure/function of ion channels, visual processing, storage and recall of memories, and brain activation studies covered in depth. Continues training in various advanced topics in neuroscience begun in 26:546:651. INS faculty. Prerequisite: 26:546:651.
26:546:629 Human Neuroanatomy (3) Human brain and spinal cord covered in detail. Development of the nervous system and brain dissection. Sensory and motor systems, including motor disorders. Overview of complex functions and special systems, including the basal forebrain cholinergic systems, the anatomical basis of neuroendocrine and central autonomic regulations. Anatomical organization of motivation, emotion, learning, and memory. Central nervous system vasculature and cerebrovascular diseases. Brain imaging techniques and the comparison of such images with brain sections. Zaborszky. Prerequisite: Advanced training in psychology or neuroscience.
26:546:631 Neural Plasticity (3) Lectures on cellular and systems level neuronal mechanisms underlying learning and memory and recovery of function following neuronal injury. Buzsaki. Prerequisites: 26:546:565,566; or permission of instructor.
26:546:632 Cerebral Cortex (3) Basic processes of sensory and perceptual mechanisms as performed in subcortical and cortical structures beginning with the sensory epithelium and concluding with the associational cortices. Major topics are (1) five senses, (2) subcortical processes, (3) analysis by early cortical processes, (4) cortical hierarchies, (5) specialization by secondary cortical regions, (6) integration in associational cortex, and (7) theoretical aspects. R. Siegel
26:546:633 Learning and Memory (3) Cognitive neuroscience approaches to the study of human learning and memory. Major focus on the role of the hippocampal region in learning and memory, including discussion of human global amnesia, animal models of amnesia, stimulus representation, hippocampal function in specific learning tasks, and computational models of the hippocampus. Gluck. Prerequisite: Permission of instructor.
26:546:651 Critical Thinking in Neuroscience (2) The ability to read and analyze research papers and seminars is critical to the development of a researcher in neuroscience. This course provides training in these skills, with specific focus on classical papers as well as more recent "breakthrough papers." The role of technical as well as conceptual developments discussed. Part of the course entails attendance and discussion of seminars presented by experts in various disciplines of neuroscience. Buzsaki. Prerequisite: 21&62:830:484.
26:546:706,707 Research in Neuroscience (BA,BA) INS faculty
26:546:708,709 Individual Studies in Neuroscience (BA,BA) Reading, discussion, and papers supervised by faculty members of the graduate program for individual students. Students make arrangements with a faculty member before registering for this course. INS faculty
26:546:800 Matriculation Continued (E1) Prerequisites: Open only to students not on campus. By permission of graduate program director only.
 
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