INS 2017 Mid-Year Congress Programme
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Brainnovations Mobiliser
Converge. Discover. Deliver Brainnovations Mobiliser. Découvrir. Produire Funding provided, in part, by the Government of Ontario March 2014 - Volume 4 86 billion: that is the number of neurons, or cells, estimated to OBI Founders make up the human brain. Lawrence and Frances Bloomberg - Mount Sinai Hospital Within each cell there is a universe of complexity and activity. Sydney and Florence Cooper But the remarkable abilities of the brain to think, remember, - Baycrest respond, and feel, cannot be explained by just scaling up the Gerald and Geraldine Heffernan individual actions of each cell. - University of Toronto It comes down to the connections. No neuron works in William and Susanne Holland - Holland Bloorview isolation, in fact each cell is thought to make up to 10,000 Richard M. Ivey connections with other cells; the outcome of this - Western University interconnectivity, some 100 trillion connections, is the network Dr. Donald Stuss Robert and Linda Krembil of the human brain. - University Health Network President and Scientific Director Like the brain itself, the Ontario Brain Institute’s strength is its Arthur and Sonia Labatt - The Hospital for Sick Children Ontario Brain Institute ability to create connections. Joseph and Sandra Rotman Learn More - Ontario Brain Institute Lawrence and Judith Tanenbaum - Brain Canada Eli Lilly Canada Inc. Peering Into Dementia GE Healthcare Canada GlaxoSmithKline Inc. IBM Canada Ltd. The eyes are said to be the ‘windows into Medtronic of Canada Ltd. the soul’. Now a novel technique is allowing Nestlé Health Science, Canada researchers to take this romantic thought to a Pfizer Canada Ltd. new level and use the eye as a ‘window into the Valeant Canada LP brain’- to better understand and diagnose brain disorders. -
Curriculum Vitae
CURRICULUM VITAE STEFAN KÖHLER, PH.D. CURRENT ADDRESS The Brain and Mind Institute Western International Research Building University of Western Ontario London, Ontario, Canada N6A 5B7 phone: (519) 661-2111 ext. 86364 email: [email protected] CURRENT AND PAST POSITIONS 2014 – present Professor, Dept. of Psychology, Brain and Mind Institute & Graduate Program in Neuroscience, University of Western Ontario 2006 – 2014 Associate Professor, Dept. of Psychology, Brain and Mind Institute & Graduate Program in Neuroscience, University of Western Ontario 2008 – present Associate Scientist, Rotman Research Institute, Baycrest Centre, Toronto 2000 – 2006: Assistant Professor, Dept. of Psychology & Graduate Program in Neuroscience, University of Western Ontario 1998 – 2000: Research Associate, Cognitive Neuroscience Unit, Montreal Neurological Institute, McGill University 1995 – 1998: Post-Doctoral Research Fellow, Rotman Research Institute, University of Toronto UNIVERSITY EDUCATION 1991 – 1995: Ph.D., Psychology, University of Toronto in addition: Completion of the Collaborative Program in Neuroscience at the Ph.D. level, University of Toronto Thesis: Visual long-term memory for spatial location and object identity in humans: Neural correlates and cognitive processes Supervisor: Morris Moscovitch 1985 – 1991: Diplom, Psychology, Universität Bielefeld, Germany Thesis: Memory deficits in patients with Alzheimer's disease Supervisor: Wolfgang Hartje 2 AREAS OF RESEARCH INTEREST General: Cognitive neuroscience Specific: Memory & amnesia Visual cognition -
5/14/19 1 PATRICIA ANN REUTER-LORENZ Chair and Professor of Psychology University of Michigan Department of Psychology 53
5/14/19 PATRICIA ANN REUTER-LORENZ Chair and Professor of Psychology University of Michigan Department of Psychology 530 Church Street Ann Arbor, Michigan 48109-1043 Phone: (764) 764-7429 Fax: (764) 763-7480 Email Address: [email protected] PARL Lab Web Site Education: Ph.D. 1987 University of Toronto (Psychology) M.A. 1981 University of Toronto (Psychology) B.A. 1979 State University of New YorK, Purchase (Psychology, with Honors) Professional Experience: 2016-present Michael I. Posner Collegiate Professor of Cognitive Neuroscience 2015-present Chair, Department of Psychology, University of Michigan 2002-present Professor, Department of Psychology, University of Michigan 2012-present Faculty Associate, Survey Research Center, Institute for Social Research 2008-present Co-Director, International Max PlancK Research School on the LIFE course 2012 (Winter) Visiting Scientist, Center for Vital Longevity, UT Dallas 2009 (Spring) Visiting Scholar, Wales Institute of Cognitive Neuroscience & University of Wales, Bangor 2002-2005 Chair, Cognition and Cognitive Neuroscience Area, University of Michigan 1997-2002 Associate Professor, Department of Psychology, University of Michigan 1992-1997 Assistant Professor, Department of Psychology, University of Michigan 1988-1991 Research Assistant Professor, Program in Cognitive Neuroscience, Department of Psychiatry, Dartmouth Medical School, Hanover, NH 1989-1991 Adjunct Assistant Professor, Dept. of Psychology, Dartmouth College, Hanover, NH 1986-1988 Postdoctoral Fellow, Cognitive Neuroscience, Cornell -
Self-Therapy for Traumatic Brain Injury
SELF-THERAPY FOR TRAUMATIC BRAIN INJURY: TEACHING YOURSELF TO PREVENT HEAD-INJURED MOMENTS Release 3.3 Larry E. Schutz, Ph.D., ABPP copyright 2006, 2008 TABLE OF CONTENTS page chapter The Basic Program 1 Introduction: Start Here! 3 1. Step One : Learning About the Injury 4 2. Head-Injured Moments 5 3. Learning How to Recognize Head-Injured Moments 7 4. Learning Where to Look to Find Head-Injured Moments 8 5. Figuring Out What Went Wrong 9 6. Memory Issues 10 7. Figuring Out How Big the Problem Is 12 8. At the Crossroads of Recovery 13 Cheat sheet for watching for head-injured moments 14 9. Step Two : Taking Control of My Life--The Action Window 15 10. Keeping Appointments and Arrangements Yourself—The Appointment Book 16 11. Structure and Productivity—The Activity Routine 17. 12. Memory for Daily Events—The Activity Diary 18 13 Using Your Daily Schedule as a Planning Technique 20 A sample daily schedule blank 22 14. Step Three : Controlling Overstimulation 24 15. Step Four : Increasing Mental Effort 26 16. Step Five : Better Living Habits to Help My Brain Work Better 27 17. Booze, Dope, Caffeine, Nicotine, and Other Drugs 28 18. Dealing With Sleep Problems 29 19. Step Six : Full Analysis of Your Head-Injured Moments 31 The Analysis Form 32 20. Summary of How You Fix Your Brain 33 21. Home Therapies for Basic Cognitive Control 34 Newspaper Search 35 Number Search 36 Search A 37 Advanced Number Search 38 Key to Advanced Number Search A 39 Word Searches 40 Mind Control Jigsaw Exercise 41 Therapeutic Video Games 42 Slapjack 43 Twenty Questions 44 Therapeutic Taboo 45 Room Search 46 Therapeutic Jackstraws and Jenga 47 Memory Challenges 48 22. -
Corteza Prefrontal, Funciones Ejecutivas Y Regulación De La Conducta
Corteza prefrontal, funciones ejecutivas y regulación de la conducta J. Tirapu Ustárroz A. García Molina P. Luna Lario A. Verdejo García M. Ríos Lago Corteza prefrontal, funciones ejecutivas y regulación de la conducta J. Tirapu Ustárroz A. García Molina P. Luna Lario A. Verdejo García M. Ríos Lago Introducción ciones, al escoger para la supervivencia a los portadores de los comportamientos mejor adaptados. Como señala Ralph Adolphs: ‘Los organismos complejos han El segundo nivel o escalafón lo constituyen las criaturas desarrollado cerebros que construyen modelos internos del skinnerianas, llamadas así en honor al psicólogo conductista mundo para interaccionar de manera flexible con un entorno estadounidense Burrhus F. Skinner. Las criaturas skinnerianas cambiante’ [1]. Para Daniel Dennett [2], los organismos vivos presentan la novedad de poseer cierta flexibilidad en su com- que pueblan la Tierra se pueden dividir en tres tipos de criatu- portamiento. Ante un problema dado, pueden ir probando a ras: darwinianas, skinnerianas y popperianas. Las criaturas ciegas las distintas variantes de conducta que son capaces de darwinianas son los organismos más sencillos desde el punto generar (es como disponer de un juego de llaves e ir introdu- de vista del comportamiento. Su gama de conductas se reduce ciendo una tras otra en la cerradura), hasta que por casualidad a estímulo-respuesta, es decir, respuestas simples y extremada- dan con una que funciona y dispara el efecto deseado. Esto por mente rígidas, pero si sirven, entonces sobreviven; en caso con- sí solo ya constituye cierta ventaja, pero es que además las cria- trario, mueren. Estas respuestas estarían grabadas en los genes turas skinnerianas cuentan con un sistema de refuerzo que de los individuos de esa especie. -
Development of Clinical Neuropsychology As A
Development of Clinical Neuropsychology as a Psychological Specialty: A Timeline of Major Events By Corwin Boake, Ph.D., ABPP (CN) Memorial Hermann/The Institute of Rehabilitation & Research, University of Texas-Houston Medical School and Linas A. Bieliauskas, Ph.D., ABPP (CL, CN) Department of Psychiatry, University of Michigan Health System first president was Harold sponsored by the Philadelphia he development of clinical Goodglass. Clinical Neuropsychology Group. neuropsychology as a psychological T 1980 Presentation of the first Division 1988 Formation of the Midwest specialty in North America is based on 40 programming during an APA Neuropsychology Consortium of the contributions of many persons and convention. Nelson Butters served Postdoctoral Program in Clinical organizations. With the anniversary of as program chair. Neuropsychology, a membership ABPP, it is timely to recognize some of organization of postdoctoral the major contributions. The timeline 1981 Report of the Division 40/INS residencies. The first president was below includes many of the major Joint Task Force on Education, Kerry Hamsher. milestones of clinical neuropsychology Accreditation and Credentialing in in the USA and Canada, leading to the Clinical Neuropsychology. 1988 Approval by Division 40 of the definition of a clinical formation of the American Board of 1981 Meeting in Minneapolis of the neuropsychologist (Journal of Clinical Neuropsychology (ABCN) and planning group for ABCN, Clinical Neuropsychology, 1989). the growth of specialty organizations that attended by Linas Bieliauskas, uphold standards for training and Louis Costa, Edith Kaplan, 1989 Designation by ABPP of ABCN as practice. The timeline is an extension of Muriel Lezak, Charles Matthews, the specialty council in clinical the one published by Yeates and Steven Mattis, Manfred Meier, neuropsychology. -
Slowing of Reaction Time in Parkinson|S Disease] the Involvement of the Frontal Lobes E[L[ Berryb\ \ R[I[ Nicolsonb\ J[K[ Fosterc\ M[ Behrmannd\ H[J[ Sagara
\ PERGAMON Neuropsychologia 26 "0888# 676Ð684 Slowing of reaction time in Parkinson|s disease] the involvement of the frontal lobes E[L[ Berryb\\ R[I[ Nicolsonb\ J[K[ Fosterc\ M[ Behrmannd\ H[J[ Sagara a Department of Clinical Neurolo`y\ University of Shef_eld\ Shef_eld\ UK b Department of Psycholo`y\ University of Shef_eld\ Shef_eld\ UK c Department of Psycholo`y\ University of Manchester\ Manchester\ UK d Department of Psycholo`y\ Carne`ie Mellon University\ Pittsbur`h\ PA\ USA Received 10 May 0886^ accepted 08 October 0887 Abstract This study investigated the possibility that the previously mixed _ndings relating to cognitive de_cits in Parkinson|s disease might be attributable to inhomogeneity within the patients sampled\ with attentional de_cits occurring only for those Parkinson|s patients who also have additional frontal lobe impairment[ Twenty!_ve patients with idiopathic Parkinson|s disease were classi_ed as showing frontal dysfunction\ or not\ on the basis of their performance on the Wisconsin Card Sorting Test and the picture arrangement subtest of the WAIS[ The two groups\ and a control group of normal elderly subjects matched for age and IQ\ undertook tests of visual attention designed to dissociate baseline response speed from central information processing speed[ Error rates did not di}er between the groups[ Performance of the non!frontally impaired Parkinson|s group was indistinguishable from that of the controls[ By contrast\ the {frontally impaired| Parkinson|s group responded signi_cantly more slowly than the controls[ -
The Neuropsychology of Attention
The Neuropsychology of Attention Ronald A. Cohen The Neuropsychology of Attention Second Edition Ronald A. Cohen, PhD, ABPP, ABCN Professor Departments of Neurology, Psychiatry and Aging Director, Center for Cognitive Aging and Memory University of Florida College of Medicine Gainesville , FL , USA Adjunct Professor Department of Psychiatry and Human Behavior Warren Alpert School of Medicine Brown University Providence , RI , USA ISBN 978-0-387-72638-0 ISBN 978-0-387-72639-7 (eBook) DOI 10.1007/978-0-387-72639-7 Springer New York Heidelberg Dordrecht London Library of Congress Control Number: 2013941376 © Springer Science+Business Media New York 2014 This work is subject to copyright. All rights are reserved by the Publisher, whether the whole or part of the material is concerned, speci fi cally the rights of translation, reprinting, reuse of illustrations, recitation, broadcasting, reproduction on micro fi lms or in any other physical way, and transmission or information storage and retrieval, electronic adaptation, computer software, or by similar or dissimilar methodology now known or hereafter developed. Exempted from this legal reservation are brief excerpts in connection with reviews or scholarly analysis or material supplied speci fi cally for the purpose of being entered and executed on a computer system, for exclusive use by the purchaser of the work. Duplication of this publication or parts thereof is permitted only under the provisions of the Copyright Law of the Publisher’s location, in its current version, and permission for use must always be obtained from Springer. Permissions for use may be obtained through RightsLink at the Copyright Clearance Center. -
The Influence of Prior Knowledge on the Formation of Detailed and Durable Memories
The influence of prior knowledge on the formation of detailed and durable memories. BELLANA, B.1,3, MANSOUR, R.2, LADYKA-WOJCIK, N.3, GRADY, C. L.3,4,5 & MOSCOVITCH, M.3,4 1Department of Psychological & Brain Sciences, Johns Hopkins University; 2Perelman School of Medicine, University of Pennsylvania; 3Department of Psychology, University of Toronto; 4Rotman Research Institute, Baycrest; 5Department of Psychiatry, University of Toronto Authors’ Note: Correspondence can be addressed to Buddhika Bellana ([email protected]), Cheryl Grady ([email protected]), or Morris Moscovitch ([email protected]). This research was supported by a Natural Sciences and Engineering Research Council (NSERC) grant to M.M. (no. A8347), a Canadian Institutes of Health Research (CIHR) grant to C.L.G. (no. MOP-143311), and scholarships awarded to B.B. from NSERC and the Ontario Graduate Scholarship program. Data are publicly available on the Open Science Framework (https://osf.io/fqrhj/). The influence of prior knowledge on the formation of detailed and durable memories. BELLANA, B.1,3, MANSOUR, R.2, LADYKA-WOJCIK, N.3, GRADY, C. L.3,4,5 & MOSCOVITCH, M.3,4 1Department of Psychological & Brain Sciences, Johns Hopkins University; 2Perelman School of Medicine, University of Pennsylvania; 3Department of Psychology, University of Toronto; 4Rotman Research Institute, Baycrest; 5Department of Psychiatry, University of Toronto Prior knowledge often improves recognition, but its relationship to the retrieval of memory detail is unclear. Resource-based accounts of recognition suggest that familiar stimuli are more efficiently encoded into memory, thus freeing attentional resources to encode additional details from a study episode. However, schema-based theories would predict that activating prior knowledge can lead to the formation of more generalized representations in memory. -
What Is Special About Face Recognition? Nineteen Experiments on a Person with Visual Object Agnosia and Dyslexia but Normal Face Recognition
What is special about face recognition? Nineteen experiments on a person with visual object agnosia and dyslexia but normal face recognition. Morris Moscovitch; Gordon Winocur; Marlene Behrmann. Author's Abstract: COPYRIGHT 1997 Massachusetts Institute of Technology In order to study face recognition in relative isolation from visual processes that may also contribute to object recognition and reading, we investigated CK, a man with normal face recognition but with object agnosia and dyslexia caused by a closed-head injury. We administered recognition tests of upright faces, of family resemblance, of age- transformed faces, of caricatures, of cartoons, of inverted faces, and of face features, of disguised faces, of perceptually degraded faces, of fractured faces, of faces parts, and of faces whose parts were made of objects. We compared CK's performance with that of at least 12 control participants. We found that CK performed as well as controls as long as the face was upright and retained the configurational integrity among the internal facial features, the eyes, nose, and mouth. This held regardless of whether the face was disguised or degraded and whether the face was represented as a photo, a caricature, a cartoon, or a face composed of objects. In the last case, CK perceived the face but, unlike controls, was rarely aware that it was composed of objects. When the face, or just the internal features, were inverted or when the configurational gestalt was broken by fracturing the face or misaligning the top and bottom halves, CK's performance suffered far more than that of controls. We conclude that face recognition normally depends on two systems: (1) a holistic, face-specific system that is dependent on orientation-specific coding of second-order relational features (internal), which is intact in CK and (2) a part- based object-recognition system, which is damaged in CK and which contributes to face recognition when the face stimulus does not satisfy the domain-specific conditions needed to activate the face system. -
A Component Process Model Based on Modules and Central Systems
Memory and Working-with-Memory: A Component Process Model Based on Modules and Central Systems Morris Moscovitch Department of Psychology Erindale College, University of Toronto and The Rotman Research Institute Downloaded from http://mitprc.silverchair.com/jocn/article-pdf/4/3/257/1755001/jocn.1992.4.3.257.pdf by guest on 18 May 2021 North York, Ontario Downloaded from http://direct.mit.edu/jocn/article-pdf/4/3/257/1932201/jocn.1992.4.3.257.pdf by guest on 02 October 2021 Abstract A neuropsychological model of memory is proposed that ory that are associativekue dependent, (3) a central system, incorporates Fodor’s (1983) idea of modules and central sys- frontal-lobe component that mediates performance on explicit tems. The model has four essential components: (1) a non- tests that are strategic and on procedural tests that are rule- frontal neocortical component that consists of perceptual (and bound, and (4) a basal ganglia component that mediates per- perhaps interpretative semantic) modules that mediate perfor- formance on sensorimotor, procedural tests of memory. The mance on item-specific, implicit tests of memory, (2)a modular usefulness of the modularkentral system construct is explored medial temporallhippocampal component that mediates en- and evidence from studies of normal, amnesic, agnosic, and coding, storage, and retrieval on explicit, episodic tests of mem- demented people is provided to support the model. LNTRODUCTION “works with memory” and mediates performance on ex- plicit tests that are strategic. Memory is not unitary but depends on the operation of MODULES AND CENTRAL SYSTEMS potentially independent, but typically interactive, com- ponents. -
CONFERENCE November 4 - 7, 2015 JW Marriot Austin, Texas
35th annual CONFERENCE November 4 - 7, 2015 JW Marriot Austin, Texas #NAN #NANAustin @NANneuropsych Assessments Tablet-based administration, scoring and reporting YOU Expanding test library includes: Depend On Visit HelloQ.com/home for a free trial! Psychologists around the world trust Pearson’s assessments to help them make informed decisions in their ongoing efforts to improve lives. Our innovative assessments are research-based and proven to be valid and reliable. Plus, Pearson’s Q-interactive® and Q-global® can help you transform test administration and reporting in your practice. Web-based administration, scoring, and reporting These convenient, easy-to-use digital systems allow you to Expanding test library includes: improve your workflow while better serving clients. For more information, please stop by to see us at our booth. Coming 2016 or visit PearsonClinical.com/NANConvention. 800.627.7271 PearsonClinical.com Copyright © 2015 Pearson Education, Inc. or its affiliate(s). All rights reserved. Always Learning, BASC, KTEA, NEPSY, WMS, WISC-IV, Q-global, Q-interactive, Pearson, design for Psi, and PsychCorp are trademarks, in the U.S. and/or other countries, of Pearson Education, Inc. or its affiliate(s). MCMI and Millon are registered trademarks of DICANDRIEN, INC. The following are registered trademarks of the Regents of the University of Minnesota: MMPI, MMPI-2-RF, Minnesota Multiphasic Personality Inventory, and Minnesota Multiphasic Personality Inventory-2-Restructured Form. The following are unregistered, common law trademarks of the University of Minnesota: MMPI-A, Minnesota Multiphasic Personality Inventory-Adolescent, MMPI-A-RF, Minnesota Multiphasic Personality Inventory-Adolescent-Restructured Form, MMPI-2, Minnesota Multiphasic Personality Inventory-2, and The Minnesota Report.