Curriculum Vitae
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Behavioral Neuroscience Uab Graduate Handbook
Behavioral Neuroscience Ph.D. Program Policies, Guidelines, & Procedures Student Handbook 2021-2022 University of Alabama at Birmingham Table of Contents Mission Statement __________________________________________ 3 History of the Program _______________________________________ 3 Policies and Procedures ______________________________________ 4 Overview of Student Career ___________________________________ 5 Typical Courses ____________________________________________ 5 Progress Reports ___________________________________________ 6 2nd Year Research Project __________________________________ 7 Qualifying Examination _______________________________________ 8 Dissertation ________________________________________________ 10 Behavioral Neuroscience Student Checklist _______________________ 13 Master’s Degree ____________________________________________ 15 Policies Regarding Adequate Progress __________________________ 16 Policies on Remunerated Activities _____________________________ 16 Vacation, Leave, Holiday Guidelines ____________________________ 17 Degree Requirements and Associated Procedures ________________ 18 2 BEHAVIORAL NEUROSCIENCE PROGRAM Mission Statement and History of the Program Mission Statement Behavioral neuroscience is represented by scientists with interests in the physiological and neural substrates of behavior. The mission of the Behavioral Neuroscience Ph.D. program is to produce outstanding young scientists capable of pursuing independent research careers in the field of behavioral neuroscience by providing graduate -
Are Systems Neuroscience Explanations Mechanistic?
Are Systems Neuroscience Explanations Mechanistic? Carlos Zednik [email protected] Institute of Cognitive Science, University of Osnabrück 49069 Osnabrück, Germany Paper to be presented at: Philosophy of Science Association 24th Biennial Meeting (Chicago, IL), November 2014 Abstract Whereas most branches of neuroscience are thought to provide mechanistic explanations, systems neuroscience is not. Two reasons are traditionally cited in support of this conclusion. First, systems neuroscientists rarely, if ever, rely on the dual strategies of decomposition and localization. Second, they typically emphasize organizational properties over the properties of individual components. In this paper, I argue that neither reason is conclusive: researchers might rely on alternative strategies for mechanism discovery, and focusing on organization is often appropriate and consistent with the norms of mechanistic explanation. Thus, many explanations in systems neuroscience can also be viewed as mechanistic explanations. 1 1. Introduction There is a widespread consensus in philosophy of science that neuroscientists provide mechanistic explanations. That is, they seek the discovery and description of the mechanisms responsible for the behavioral and neurological phenomena being explained. This consensus is supported by a growing philosophical literature on past and present examples from various branches of neuroscience, including molecular (Craver 2007; Machamer, Darden, and Craver 2000), cognitive (Bechtel 2008; Kaplan and Craver 2011), and computational -
Joan Y. Chiao
JOAN Y. CHIAO Department of Psychology Northwestern University 2029 Sheridan Rd, Evanston, IL 60208 Email: [email protected] Phone: 847.467.0481 ACADEMIC POSITIONS 2006-present Assistant Professor, Department of Psychology, Northwestern University Affiliated Faculty, Neuroscience Institute (NUIN) Affiliated Faculty, Cognitive Science Program Affiliated Faculty, Asian American Studies Program Affiliated Faculty, Cognitive Neurology and Alzheimer’s Disease Center Affiliated Faculty, Multidisciplinary Program in Educational Science Affiliated Faculty, Technology and Social Behavior Program Faculty Associate, Institute for Policy Research EDUCATION Ph.D. Harvard University in Psychology, 2001-2006 B.S. Stanford University in Symbolic Systems with Honors, 1996-2000 RESEARCH INTERESTS • Social affective and cultural neuroscience • Race and its influence on perception, cognition and emotion • Psychological and neural mechanisms underlying social status and dominance • Integration of psychology and neuroscience research to public policy and population health issues HONORS, AWARDS and FELLOWSHIPS 2011 Association for Psychological Science Rising Star Award 2011 NIMH Early Career International Travel Award 2006-07 Japan Society for the Promotion of Science Research Fellow 2003-06 National Science Foundation Graduate Research Fellowship 2005 John Merck Summer Institute: Biology of Developmental Disabilities Allport Travel Funds, Harvard George W. Goethals Teaching Prizes, Harvard Cognitive Neuroscience Society Graduate Student Presenter Award -
Systems Neuroscience of Mathematical Cognition and Learning
CHAPTER 15 Systems Neuroscience of Mathematical Cognition and Learning: Basic Organization and Neural Sources of Heterogeneity in Typical and Atypical Development Teresa Iuculano, Aarthi Padmanabhan, Vinod Menon Stanford University, Stanford, CA, United States OUTLINE Introduction 288 Ventral and Dorsal Visual Streams: Neural Building Blocks of Mathematical Cognition 292 Basic Organization 292 Heterogeneity in Typical and Atypical Development 295 Parietal-Frontal Systems: Short-Term and Working Memory 296 Basic Organization 296 Heterogeneity in Typical and Atypical Development 299 Lateral Frontotemporal Cortices: Language-Mediated Systems 302 Basic Organization 302 Heterogeneity in Typical and Atypical Development 302 Heterogeneity of Function in Numerical Cognition 287 https://doi.org/10.1016/B978-0-12-811529-9.00015-7 © 2018 Elsevier Inc. All rights reserved. 288 15. SYSTEMS NEUROSCIENCE OF MATHEMATICAL COGNITION AND LEARNING The Medial Temporal Lobe: Declarative Memory 306 Basic Organization 306 Heterogeneity in Typical and Atypical Development 306 The Circuit View: Attention and Control Processes and Dynamic Circuits Orchestrating Mathematical Learning 310 Basic Organization 310 Heterogeneity in Typical and Atypical Development 312 Plasticity in Multiple Brain Systems: Relation to Learning 314 Basic Organization 314 Heterogeneity in Typical and Atypical Development 315 Conclusions and Future Directions 320 References 324 INTRODUCTION Mathematical skill acquisition is hierarchical in nature, and each iteration of increased proficiency builds on knowledge of a lower-level primitive. For example, learning to solve arithmetical operations such as “3 + 4” requires first an understanding of what numbers mean and rep- resent (e.g., the symbol “3” refers to the quantity of three items, which derives from the ability to attend to discrete items in the environment). -
A Meta-Analysis of Functional MRI Results
RESEARCH Cooperating yet distinct brain networks engaged during naturalistic paradigms: A meta-analysis of functional MRI results 1 1 1 2 Katherine L. Bottenhorn , Jessica S. Flannery , Emily R. Boeving , Michael C. Riedel , 3,4 1 2 Simon B. Eickhoff , Matthew T. Sutherland , and Angela R. Laird 1Department of Psychology, Florida International University, Miami, FL, USA 2Department of Physics, Florida International University, Miami, FL, USA 3Institute of Systems Neuroscience, Medical Faculty, Heinrich Heine University Düsseldorf, Düsseldorf, Germany Downloaded from http://direct.mit.edu/netn/article-pdf/3/1/27/1092290/netn_a_00050.pdf by guest on 01 October 2021 4Institute of Neuroscience and Medicine, Brain & Behaviour (INM-7), Research Centre Jülich, Jülich, Germany an open access journal Keywords: Neuroimaging meta-analysis, Naturalistic paradigms, Clustering analysis, Neuro- informatics ABSTRACT Cognitive processes do not occur by pure insertion and instead depend on the full complement of co-occurring mental processes, including perceptual and motor functions. As such, there is limited ecological validity to human neuroimaging experiments that use Citation: Bottenhorn, K. L., Flannery, highly controlled tasks to isolate mental processes of interest. However, a growing literature J. S., Boeving, E. R., Riedel, M. C., Eickhoff, S. B., Sutherland, M. T., & shows how dynamic, interactive tasks have allowed researchers to study cognition as it more Laird, A. R. (2019). Cooperating yet naturally occurs. Collective analysis across such neuroimaging experiments may answer distinct brain networks engaged during naturalistic paradigms: broader questions regarding how naturalistic cognition is biologically distributed throughout A meta-analysis of functional MRI k results. Network Neuroscience, the brain. We applied an unbiased, data-driven, meta-analytic approach that uses -means 3(1), 27–48. -
Social Neuroscience and Psychopathology: Identifying the Relationship Between Neural Function, Social Cognition, and Social Beha
Hooker, C.I. (2014). Social Neuroscience and Psychopathology, Chapter to appear in Social Neuroscience: Mind, Brain, and Society Social Neuroscience and Psychopathology: Identifying the relationship between neural function, social cognition, and social behavior Christine I. Hooker, Ph.D. ***************************** Learning Goals: 1. Identify main categories of social and emotional processing and primary neural regions supporting each process. 2. Identify main methodological challenges of research on the neural basis of social behavior in psychopathology and strategies for addressing these challenges. 3. Identify how research in the three social processes discussed in detail – social learning, self-regulation, and theory of mind – inform our understanding of psychopathology. Summary Points: 1. Several psychiatric disorders, such as schizophrenia and autism, are characterized by social functioning deficits, but there are few interventions that effectively address social problems. 2. Treatment development is hindered by research challenges that limit knowledge about the neural systems that support social behavior, how those neural systems and associated social behaviors are compromised in psychopathology, and how the social environment influences neural function, social behavior, and symptoms of psychopathology. 3. These research challenges can be addressed by tailoring experimental design to optimize sensitivity of both neural and social measures as well as reduce confounds associated with psychopathology. 4. Investigations on the neural mechanisms of social learning, self-regulation, and Theory of Mind provide examples of methodological approaches that can inform our understanding of psychopathology. 5. High-levels of neuroticism, which is a vulnerability for anxiety disorders, is related to hypersensitivity of the amygdala during social fear learning. 6. High-levels of social anhedonia, which is a vulnerability for schizophrenia- spectrum disorders, is related to reduced lateral prefrontal cortex (LPFC) activity 1 Hooker, C.I. -
Dissociating Hippocampal Versus Basal Ganglia Contributions to Learning and Transfer
Dissociating Hippocampal versus Basal Ganglia Contributions to Learning and Transfer Catherine E. Myers1, Daphna Shohamy1, Mark A. Gluck1, Steven Grossman1, Alan Kluger2, Steven Ferris3, James Golomb3, 4 5 Geoffrey Schnirman , and Ronald Schwartz Downloaded from http://mitprc.silverchair.com/jocn/article-pdf/15/2/185/1757757/089892903321208123.pdf by guest on 18 May 2021 Abstract & Based on prior animal and computational models, we Parkinson’s disease, and healthy controls, using an ‘‘acquired propose a double dissociation between the associative learning equivalence’’ associative learning task. As predicted, Parkin- deficits observed in patients with medial temporal (hippo- son’s patients were slower on the initial learning but then campal) damage versus patients with Parkinson’s disease (basal transferred well, while the hippocampal atrophy group showed ganglia dysfunction). Specifically, we expect that basal ganglia the opposite pattern: good initial learning with impaired dysfunction may result in slowed learning, while individuals transfer. To our knowledge, this is the first time that a single with hippocampal damage may learn at normal speed. task has been used to demonstrate a double dissociation However, when challenged with a transfer task where between the associative learning impairments caused by previously learned information is presented in novel recombi- hippocampal versus basal ganglia damage/dysfunction. This nations, we expect that hippocampal damage will impair finding has implications for understanding the distinct -
Systems Processes and Pathologies: Creating an Integrated Framework for Systems Science
IS13-SysProc&Path-Troncale.docx Page 1 of 24 Systems Processes and Pathologies: Creating An Integrated Framework for Systems Science Dr. Len Troncale Professor Emeritus and Past Chair, Biological Sciences Director, Institute for Advanced Systems Science California State Polytechnic University, Pomona, California, 91711 [email protected] Copyright © 2013 by Len Troncale. Published and used by INCOSE with permission Abstract. Among the several official projects of the INCOSE Systems Science Working Group, one focuses on integrating the plethora of systems theories, sources, approaches, and tools developed over the past half-century with the purpose of enabling a new and unified “science” of systems as a fundamental basis for SE. Another seeks to develop a much more SE-usable Systems Pathology also grounded in a “science” of systems. This paper introduces the wider SE community to the current status of this unique knowledge base produced over the past three years by an INCOSE-ISSS alliance summarizing the current output of 7 Workshops, 12 Papers, >24 Presentations or Webinars, and 5 Reports. It describes the need for integration of systems knowledge by demonstrating the extensive fragmentation of numerous contributing fields. It presents the current 12-step “protocol” used by the current group to guide its efforts at synthesis across systems domains, disciplines, tools, and scales asking for feedback to improve the approach. It introduces 15 Working Assumptions or Hypotheses that form the foundation for this attempt at unification citing why these could be used as working principles but why it may be undesirable to call them “principles” as others often do. The paper presents working frameworks for integration and criteria used to judge whether results are a “science” of systems or not with reminders that these early guidelines are being subjected to constant testing and revision. -
SYSTEMS NEUROSCIENCE (FALL 2018) [Neurobio 208 and Anat 210]
SYSTEMS NEUROSCIENCE (FALL 2018) [Neurobio 208 and Anat 210] Neurbio 208 is required for 1st year graduate students in Neurobiology and Behavior and serves as “S” area core courses for the INP. Anat 210 is open to all graduate students in Anatomy and Neurobiology. Graduate students from other departments may enroll in either Neurbio 208 or Anat 210 with permission from the course director, Dr. Ron Frostig. Time/place: 9:00-10:20AM, MWF in MH 2246 Text: Neuroscience, 6th Edition, Purves, D. et al. (Eds.) Sinauer, 2017. The instructors will distribute other readings. Exams and grading: The final grade will be based on performance on the midterm exams. The instructor for that section will announce the format of each exam. Exams will be predominately essay. There will be no cumulative final exam, and grades will be normalized to the number of lectures leading to the midterm. Final grade will be based on averaging of all midterms. Participating Faculty: Neurobiology & Behavior Anatomy & Neurobiology Ron Frostig, director Steve Cramer Steve Mahler Fall 2018 Date Topic Instructor Readings (in text unless noted) Fri Principles of Mahler https://my.rocketmix.com/enrollcourse.aspx?courseid=3087 9/28 Brain --Please enroll in this and look at it BEFORE CLASS Organization Other helpful resources: http://zoomablebrain.bio.uci.edu/ http://www.exploratorium.edu/memory/braindissection/ Mon Neuroanatomy- Mahler William James, 1890, chapter 2 (http://psychclassics.yorku.ca/ 10/1 Dissection James/Principles/prin2.htm) Wed Introduction to Frostig 10/3 sensory systems Fri The eye: Frostig Ch.11 10/5 structure and function Mon The eye: Frostig Ch.11 10/8 structure and function Wed Central visual Frostig Ch.12 10/10 pathways I Fri Central visual Frostig Ch. -
Social Cognitive Neuroscience: a Review of Core Systems
C HAPTER 2 2 SOCIAL COGNITIVE NEUROSCIENCE: A REVIEW OF CORE SYSTEMS Bruce P. Doré, Noam Zerubavel, and Kevin N. Ochsner Descartes famously argued that the mind is both SOCIAL COGNITIVE NEUROSCIENCE everlasting and indivisible (Descartes, 1988). If he APPROACH was right about the first part, he is probably pretty In the past decade, the field of social cognitive neuro- impressed with the advance of human knowledge science (SCN) has attempted to fill this gap, integrat- on the second. Although Descartes’ position on ing the theories and methods of two parent the indivisibility of the mind has been echoed at disciplines: social psychology and cognitive neurosci- times in the history of psychology and neurosci- ence. Stressing the interdependence of brain, mind, ence (Flourens & Meigs, 1846; Lashley, 1929; and social context, SCN seeks to explain psychological Uttal, 2003), the modern field has made steady phenomena at three levels of analysis: the neural level progress in demonstrating that subjective mental of brain systems, the cognitive level of information life can be understood as the product of distinct processing mechanisms, and the social level of the functional systems. Today, largely because of the experiences and actions of social agents (Ochsner & success of cognitive neuroscience models, Lieberman, 2001). In contrast to scientific approaches researchers understand that people’s intellectual that grant near exclusive focus to a single level of anal- faculties emerge from the operation of core ysis (e.g., behaviorism, artificial -
Behavioral Neuroscience and Psychopharmacology
Behavioral Neuroscience and Psychopharmacology The Behavioral Neuroscience and Psychopharmacology area of concentration is designed to train students broadly in the general theoretical principles and technical approaches used to investigate the neurobehavioral mechanisms of alcohol and drug abuse. Psychopharmacological approaches to understanding basic principles of learning are also emphasized. Students receive a concentrated lab experience using either animal models (quail, mice or rats) or human subjects. Faculty in the program use different levels of analysis including cell culture models, neurochemical assays, developmental toxicology, classical conditioning of drug effects, operant conditioning, human behavioral pharmacology, and cognitive approaches to behavior. Students are expected to receive in depth training in at least one level of analysis although training that integrates more than one level of analysis is strongly encouraged. PROGRAM REQUIREMENTS COURSE REQUIREMENTS (1) Statistics sequence: PSY 610 - Experimental design PSY 611 - Correlational design (2) PSY 780 - Directed BNP studies PSY 780A - first year students only PSY 780B - first year and beyond (3) Any three proseminars selected from the following areas: Learning Cognitive processes Developmental Psychology Sensation & Perception Physiological Psychology (4) Four electives (a minimum of one of these must be outside of the Psychology Department) (see listing of some possible options on page **). (5) Additional course work as recommended by the advisory committee RESEARCH REQUIREMENTS It is expected that all students in the BNP area will be involved in research thorough out their course of study towards the Ph.D. The area has two formalized requirements that are designed to train the student in conducting research: (1) Master's thesis (2) Dissertation ALLIED AREA REQUIREMENT Each student is expected to develop an allied area to gain expertise in some area outside of the student's main research specialty. -
Systems Neuroscience of Natural Behaviors in Rodents
The Journal of Neuroscience, February 3, 2021 • 41(5):911–919 • 911 Symposium/Mini-Symposium Systems Neuroscience of Natural Behaviors in Rodents Emily Jane Dennis,1 Ahmed El Hady,1 Angie Michaiel,2 Ann Clemens,3 Dougal R. Gowan Tervo,4 Jakob Voigts,5 and Sandeep Robert Datta6 1Princeton University and Howard Hughes Medical Institute, Princeton, New Jersey, 08540, 2University of Oregon, Eugene, Oregon, 97403-1254, 3University of Edinburgh, Edinburgh, Scotland, EH8 9JZ, 4Janelia Research Campus, Ashburn, Virginia, 20147, 5Massachusetts Institute of Technology, Cambridge, Massachusets, 02139, and 6Harvard University, Cambridge, Massachusets, 02115 Animals evolved in complex environments, producing a wide range of behaviors, including navigation, foraging, prey capture, and conspecific interactions, which vary over timescales ranging from milliseconds to days. Historically, these behaviors have been the focus of study for ecology and ethology, while systems neuroscience has largely focused on short timescale behaviors that can be repeated thousands of times and occur in highly artificial environments. Thanks to recent advances in machine learning, miniaturization, and computation, it is newly possible to study freely moving animals in more natural conditions while applying systems techniques: performing temporally specific perturbations, modeling behavioral strategies, and record- ing from large numbers of neurons while animals are freely moving. The authors of this review are a group of scientists with deep appreciation for the common aims of systems neuroscience, ecology, and ethology. We believe it is an extremely exciting time to be a neuroscientist, as we have an opportunity to grow as a field, to embrace interdisciplinary, open, collaborative research to provide new insights and allow researchers to link knowledge across disciplines, species, and scales.