INTRODUCTION TO COGNITIVE SCIENCE
2007 Fall
Instructor: Péter Érdi,
Henry R. Luce Professor of Complex Systems Studies
Office:Olds/Upton 208B
Office hours: by appointment
Phone: (269)337-520
email: perdi@kzoo.edu
URL: http://cc.kzoo.edu/~perdi/
Topic:
Cognitive science is the interdisciplinary study of mind and the nature of intelligence. It is a rapidly evolving field that deals with information processing, intelligent systems, complex cognition, and large-scale computation. The scientific discipline encompasses the overlapping areas of neuroscience, psychology, computer science, linguistics and philosophy. Students will learn the basic physiological and psychological mechanisms and computational algorithms underlying different cognitive phenomena.
Goal:
The first goal is to teach WHY cognitive science became a popular and efficient discipline to investigate natural and artificial information processing devices. The second goal is to give an introduction to the historical development of the field. The third goal is to show HOW to analyze the performance of cognitive systems. The course is designed mostly for psychology and computer science students, but other students interested in interdisciplinary thinking might take the class.
Prerequisite:
PSYC 101 and COMP 105 or permission.
Course Structure:
Each week a topic will be discussed. There will be some weekly reading
assignments. During the term it will be possible to give reports on readings.
Exams:
There will be a sixty minute long written midterm and a final oral examination. Active participation in class activities are strongly encouraged. Class discussion is a vital part of learning in this style of course. Reports on readings and discussion forums might determine the grades up to 40%. Written and oral reports on a group project are a pre-requirement for taking the final examination. Active participation in events organized by the Center for Complex System Studies is encouraged, and will also be considered in assigning the final grade.
Special Excuse
I received and invitation to give a talk on conference on biological computation BIOCOMP2007 http://biocomp.unina.it/2007/index.html to be held in Southern Italy at the end of September. Since I could not resist to accept the invitation, classes will start on October 1st, Monday. Classes canceled will be rescheduled for some evenings.
Book required:
Paul Thagard: Mind : Introduction to Cognitive Science.
Cambridge, MIT Press. (MIT Press, 1996), (2nd edition, 2005). (I will refer to it as T:M)
Supporting literature:
Eichenbaum H: The Cognitive Neuroscience of Memory: An Introduction. Oxford University Press, 2002
Johnson-Laird, P.N.:Mental Models. Cambridge: Cambridge University Press. Cambridge, Mass.:Harvard University Press. 1983
Polk T. and Seifert., C.M., Cognitive
Modeling, Eds. MIT Press 2002
Ward LM: Dynamical Cognitive
Science. MIT Press , 2001
Mind Readings: Introductory Selections on Cognitive Science
by Paul Thagard (Editor) MIT Press, 1998)
[MIT Encyclopedia of Cognitive Science]
Cognitive Science Resources
http://cogsci.uwaterloo.ca/courses/resources.html
Weekly Topics:
1. Cognitive science: a true interdisciplinary field
A very good summary can be found at:
http://plato.stanford.edu/entries/cognitive-science/ or
http://www.science.uva.nl/~seop/entries/cognitive-science/
Disciplines:
Philosophy
Psychology
Computer science and AI
Neuroscience
Linguistics
Anthropology
Overview:
History
Methods
Representation and computation
Theoretical approaches
Philosophical relevance
Why we are NOT
using a single textbook?
Two different approaches exist:
I.
Assumptions about the representation of the knowledge in the mind
(logic, rules etc.)
II.
Cognitive
functions (learning, memory, emotions etc.)
Reading: T:M Chapter 1.
This class integrates the two approaches.
Key question: how can the different disciplines interact to undestand mind?
2. Knowledge Representation: Logic,
Rule-based systems and others
Mind might contain mental representations:
Formal
logic
Rules
Concepts
Analogies
Images
Connections
Formal logic
·
People have mental representations similar to
sentences in predicate logic.
·
People have deductive and inductive procedures that
operate on those sentences.
·
The deductive and inductive procedures, applied to the
sentences, produce the inferences.
(You certainly should know the most important
inferences:
Modus ponens: 1. If P, then Q . 2. P. Therefore, Q.
Modus tollens: 1. If P, then Q. 2. Q is false. Therefore, P is
false. (indirect proof)
Rips, L. J.:. Two kinds of reasoning. Psychological
Science, 12, 129-134, 2001
to be downloaded from
http://www.psych.northwestern.edu/~rips/
Readings: T:M Chapter 2 and 3.
Rules
·
People have mental rules.
·
People have procedures for using these rules to search
a space of possible solutions, and procedures for generating new rules.
·
Procedures for using and forming rules produce the
behavior.
Rule-based systems:
manipulation and transformation of symbols
Rule-based programes for AI and cognitive science:
0. ELIZA http://en.wikipedia.org/wiki/ELIZA
1. Newell and Simon, GPS 1950s-60s
2. Expert systems, 1970s-90s. Most corporations.
3. ACT 1983. John Anderson.
4. SOAR, Newell and his students, 1980s, John E. Laird (Univ.
Michigan)
5.
Prolog: logic programming
Strength and weakness of the rule-based systems
Rules of Language: from Chomsky to Pinker
Noam Chomsky:
http://en.wikipedia.org/wiki/Noam_Chomsky
3.
Neural Networks and Connectionism
Logic and rules are the main forms of mental representations of the classical, symbolic approach. McCulloch-Pitts neurons connects logic
to networks. How to calculate with MCP neurons and networks?
http://www.mind.ilstu.edu/curriculum/modOverview.php?modGUI=212
The Perceptron.
Connectionism offered and alternative to this symbolic approach.
The most celebrated book of the connectionist alternative is:
A
first reading on connectionism:
http://en.wikipedia.org/wiki/Connectionism
Second reading:
Connectionism:
an introduction
http://www.mind.ilstu.edu/curriculum/modOverview.php?modGUI=76
Read also: T:M Chapter 7.
4. The Brain
Experimental methods and disciplines
Levels
Neural representation: cells, networks, modules
Neural computation versus computational neuroscience
Brain states, mental states and the effect of molecules
5. Memory and Learning: Concepts and Models
Cognitive neuroscience and memory
Where are memories stored?
Multiple memory systems
Declarative and non-declarative memory
systems
The role of the medial temporal lobe
Molecular and cellular basis of
memory and learning
Beyond molecules and cells: system
level approach
Milner B, Squire LR, & Kandel ER. (1998). Cognitive neuroscience and the study of memory. Neuron 20:445-468.
T-M: Chapter 9.
6. Language: Acquisition, Understanding
and Evolution
Read Pinker's paper: Language Acquisition
http://www.ecs.soton.ac.uk/~harnad/Papers/Py104/pinker.langacq.html
James Schwartz: Oh My Darwin! Who's the Fittest Evolutionary Thinker of Them All?
Lingua Franca, November 1999, Vol. 9, No.8.
http://www.arn.org/docs2/news/ohmydarwin1199.htm or
http://pinker.wjh.harvard.edu/about/media/1999_11_linguafranca.html
MIRROR NEURONS and imitation learning as the driving force behind
"the great leap forward" in human evolution byV.S.
Ramachandran
http://www.edge.org/3rd_culture/ramachandran/ramachandran_p1.html
7-8. Consciousness,
Emotions and Subconsciousness
Consciousness: from philosophy to experiments
Crick, F. and Koch, C A framework for consciousness. Nature Neuroscience (2003) 6, 119-126
http://www.klab.caltech.edu/cgibin/publication/reference.pl?refdbname=paper
CONSCIOUSNESS EXPLAINED By Daniel C. Dennett
read a review from the New York Times:
http://www.santafe.edu/~johnson/reviews.dennett.html
What are emotions?
How to represent emotions?
A useful website on emotion:
http://emotion.salk.edu/emotion.html
The
next two papers from from here:
http://emotion.bme.duke.edu/Publications.html#confs
Emotion
and Computational Neuroscience
Fellous J.M., Armony J.L., LeDoux
J.E.
In 'The handbook of brain theory and neural networks'
Second Edition. M.A. Arbib (editor), The MIT
Press.
Affective computing in the MIT:
Picard, R. W. (2003), "Affective Computing: Challenges," Int. Journal of Human-Computer Studies, Vol. 59, Issues 1-2, July 2003, pp. 55-64.
The neural basis of psychonalysis: from Sigmund Freud to Eric Kandel
J Neuropsychiatry Clin Neurosci 17:145-158, May
2005
T:M Chapter 10. and 11.
9. The Mind as a Dynamical System
- Cognitive agents are dynamical systems
–
Cognitive
agents can be understood by dynamical system theory
van Gelder, T. J.
(1998) The dynamical hypothesis in cognitive science. Behavioral and Brain Sciences, 21, 1-14
http://www.arts.unimelb.edu.au/~tgelder/Publications.html
Dynamical cognitive neuroscience: experiment and models
T:M
Chapter 12
10.
Summary and Outlook
Cognitive science is an interdisciplinary study of mind and intelligence.
Levels, methods, the need of integration.
Open problems
Institutions, graduate programs
T:M
Chapter 14.