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Molecular Neuroscience and Neuropharmacology (3 Credit Hours) GMS6023 Spring 2021 Delivery Format: in Person

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Molecular Neuroscience and Neuropharmacology (3 Credit Hours) GMS6023 Spring 2021 Delivery Format: in Person UNIVERSITY OF FLORIDA COLLEGE OF MEDICINE SYLLABUS NEUROSCIENCE Neuropharmacology and its Clinical Application (3 credit hours) NEW TITLE: Molecular Neuroscience and Neuropharmacology (3 credit hours) GMS6023 Spring 2021 Delivery Format: In person. DeWeese Auditorium – MBI, LG-101A Mondays 9:00am-12:00pm. Instructors: Dr. Habibeh Khoshbouei and Dr. Eduardo Candelario-Jalil Room Number: DeWeese Auditorium – MBI, LG-101A Phone Number: 352-273-8115 (Dr. Khoshbouei) and 352-273-7116 (Dr. Candelario-Jalil) Email Addresses: [email protected] and [email protected] Office Hours: Mondays 1-3pm and Wednesdays 9-11am (Office: L1-100J) Graduate Assistant: None Preferred Course Communications: Email Prerequisites: Doctoral students. You are expected to be familiar with basic Neuroscience concepts before starting this course series. If you are uncertain about the sufficiency of your background, you are encouraged to read through chapters one through ten in Neuroscience Online – an electronic textbook (Open Access) http://nba.uth.tmc.edu/neuroscience/ Purpose and Outcome This is one of the required courses for the Neuroscience concentration. It is intended for all PhD students interested in learning about the neurochemical basis for drug action. Course Overview This course surveys the basic principles of neuropharmacology with an emphasis on the molecular pharmacology of drugs used to treat CNS disorders. The specific focus of this course will be to provide a description of the cellular and molecular actions of drugs on synaptic transmission with in-depth discussion of drug-induced changes in functioning of the nervous system. We will examine how the neurotransmitter systems influence nervous system function as well as therapeutic targets affecting these neurotransmitter systems. Issues surrounding drug entry into the central nervous system will be addressed. Clinical applications of neuropharmacology, the link between neuropharmacology and behavior, and current research investigating the development of drugs for neuronal targets will be addressed. This course is 1 designed to provide a foundation for advanced knowledge in behavioral neuroscience and neuro- psychopharmacology, and to provide an introduction to the pharmacological treatment of CNS pathologies. The ultimate goal is to understand how molecular neuroscience can guide the direction of basic medical science and therapeutic approaches. Course Objectives and/or Goals: Upon successful completion of this course, students will obtain basic knowledge of the neurochemical mechanisms underlying the action of drugs acting on the central nervous system. We will focus on the effects of drugs on synaptic transmission at the cellular and molecular levels. Students will gain an appreciation and new knowledge of drug-induced changes in CNS function in health and disease. Students will have the opportunity to explore several brain disorders associated with alterations in the function of specific neurotransmitter systems and gain a basic understanding of current and future neuropharmacological treatments for these neurological diseases. Instructional Methods: Course materials will be delivered using traditional lectures and online platforms. Student projects will be created and delivered using VoiceThread, an asynchronous communication learning platform. Student projects: Learning projects will provide opportunities to review course material and explore topics of interest in more depth. Students will select a recent paper related to one of the lectures and write an essay of ~1,000 words that would include a summary of the main findings of the study, significance of the results, and a critical evaluation of the data based on a literature review of other published work. Blended Learning: What is blended learning and why is it important? A Blended Learning class uses a mixture of technology and face-to-face instruction to help you maximize your learning. Knowledge content that, as the instructor, I would have traditionally presented during a live class lecture is instead provided online before the live class takes place. This lets me focus my face-to-face teaching on course activities designed to help you strengthen higher order thinking skills such as critical thinking, problem solving, and collaboration. Competency in these skills is critical for today’s health professional. What is expected of you? You are expected to actively engage in the course throughout the semester. You must come to class prepared by completing all out-of-class assignments. This preparation gives you the 2 knowledge or practice needed to engage in higher levels of learning during the live class sessions. If you are not prepared for the face-to-face sessions, you may struggle to keep pace with the activities occurring in the live sessions, and it is unlikely that you will reach the higher learning goals of the course. Similarly, you are expected to actively participate in the live class. Your participation fosters a rich course experience for you and your peers that facilitates overall mastery of the course objectives. Description of Course Content: Topical Outline/Course Schedule This course will take place every Monday from 9:00am-12:00pm during the Spring semester. In the table below, we have provided the specific dates for each class. Week Date(s) Topic(s) Lecturer Readings 1 01/11/2021 Introduction to Neuropharmacology. Khoshbouei Chapter 1. Molecular History of Drug Discovery Past to Present Neuropharmacology (Nestler et Theoretical and practical analysis of al). Receptor Occupancy (Part I). 2 01/25/2021 Theoretical and practical analysis of Chapter 1, 2 and 3. Molecular Receptor Occupancy (Part II). Neuropharmacology (Nestler et Cellular and Molecular Identity of the Khoshbouei al). Cells of the Central Nervous System (CNS). Neurons and circuits. Cellular Responses to drug action. 3 02/01/2021 Principles of Nervous System Physiology Candelario- Chapters 4, 7 and 9. Principles & Pharmacology Jalil of Pharmacology (Golan et al) Sites of Drug Action & Signal Transduction Mechanisms Pharmacogenomics 4 02/08/2021 Glutamatergic Neurotransmission – Candelario- Chapter 17. Basic NMDA, AMPA, Kainate, and Jalil Neurochemistry (Brady et al). Metabotropic Receptors Chapter 13. Principles of Pharmacology (Golan et al) Pathophysiology & Pharmacology of Glutamatergic Neurotransmission 5 02/15/2021 GABA & Glycine Neurotransmission Chapter 13. Principles of Pharmacology (Golan et al) Pathophysiology & Pharmacology of Candelario- Chapter 18. Basic GABAergic & glycinergic Jalil Neurochemistry (Brady et al). Neurotransmission 3 6 02/22/2021 Neuropharmacology of Acetylcholine- Chapter 13. Basic Candelario- General Aspects Neurochemistry (Brady et al). Jalil Drugs acting on Muscarinic Receptors 7 03/01/2021 Neurophysiology of Nicotinic Chapter 13. Basic Acetylcholine Receptor System Candelario- Neurochemistry (Brady et al). Nicotinic Acetylcholine Receptor System Jalil Chapter 10. Principles of (Neuropharmacology) Pharmacology (Golan et al) 8 03/08/2021 Midterm Exam 9 03/15/2021 Neurophysiology of anesthesia Chapter 17. Principles of Martynyuk Pharmacology (Golan et al) Anesthetics – Neuropharmacology 10 03/22/2021 Neurophysiology of the Dopaminergic Chapter 14. Principles of System and its Pathology. Dopaminergic Pharmacology (Golan et al) Khoshbouei Receptor System. Therapeutic Chapter 14. Basic Approaches (Neuropharmacology) Neurochemistry (Brady et al). 11 03/29/2021 Neurophysiology & Pathology of the Chapter 15. Principles of Pharmacology (Golan et al) Adrenergic System Khoshbouei Chapter 14. Basic Adrenergic System Neuropharmacology Neurochemistry (Brady et al ). 12 04/05/2021 Chapter 15. Principles of Serotoninergic Receptor System. Pharmacology (Golan et al) Therapeutic Approaches Khoshbouei Chapter 15. Basic (Neuropharmacology) Neurochemistry (Brady et al). 13 04/12/2021 Neuropeptides (Somatostatin, Chapter 20. Basic neurokinins, Neuropeptide Y, endorphins, Neurochemistry (Brady et al). enkephalins, tachykinins). Khoshbouei Chapter 19. Principles of Opioids Pharmacology (Golan et al) Alcohol Dependence Cannabinoids 14 04/19/2021 Basic Principles of Neuroendocrine Chapters 27, 43, and 44. Control. Oxytocin, vasopressin, hormones Principles of Pharmacology of the anterior pituitary gland, Leptin, (Golan et al) melanocortin. Candelario- Chapter 16 and 20. Basic Jalil Neurochemistry (Brady et al). Other mediators acting on the CNS: Histamine, Melatonin, Eicosanoids, Nitric oxide, Purines. 4 15 04/26/2021 Final Comprehensive Exam Disclaimer: This syllabus represents our current plans and objectives. As we go through the semester, those plans may need to change to enhance the class learning opportunity. Such changes, communicated clearly, are not unusual and should be expected. Course Materials and Technology: One of the following Textbooks is recommended for this course: • Basic Neurochemistry: Principles of Molecular, Cellular, and Medical Neurobiology Scott T. Brady, George J. Siegel, R. Wayne Albers, Donald L. Price -- 8th Ed. Oxford, UK: Academic Press, 2012. ISBN: 978-0-12-374947-5 • Molecular Neuropharmacology: A Foundation for Clinical Neuroscience Eric Nestler, Paul J. Kenny, Scott J. Russo, Anne Schaeffer -- 4th Ed., New York, NY: McGraw-Hill, 2020. ISBN: 978-1-260-45690-5 • Principles of Pharmacology: The Pathophysiologic Basis of Drug Therapy. David E. Golan, Ehrin J. Armstrong, April W. Armstrong. – 4th Ed. Philadelphia: Wolters Kluwer, 2017. ISBN: 978-1451191004 Reference books available at the library (on hold) •
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