Elnezest a technikai bejelentesert:
Szerver hibak miatt az a 2008 augusztus 30-an megrendezento 14.
Magyar Latas Konferencia web oldalat at kenyszerultunk helyezni a
http://kognit.pszich.u-szeged.hu/latasszimpozium/
cimre.
A hibak miatt elnezest kerunk, az uj szerver remelhetoleg
megbizhatoan fog mukodni.
Koszonettel:
A Szervezok
Kedves Kollegak, fogadjatok szeretettel,
udv kgy
Kampis Gyorgy
Kedves Érdeklődők!
A Magyar Kognitív Tudományi Alapítvány a Kelet-Nyugat Kutatóintézettel karöltve,és a Tan Kapuja Buddhista Főiskola, mint házigazda védnöksége alatt meghirdette a XVI. Magyar Kognitív Tudományok Konferenciát "Szubjektív Tudás - Objektív Tudomány" témakörben.
http://makogxvi.com
Kogtarsak,
ma 15 eves a koglist. Eljen soka.
Amikor 10 evesek voltunk, kerestem onkent vallalkozokat a
listamenedzser szerepere, de egy se akadt. Most ismet megkerdezem: nem
volna valaki, aki ezt a feladatot atvenne tolem?
Udv,
Csibra Gergely
The CEU Department of Philosophy cordially invites you to a talk
by
Katalin Balog (Yale University)
on
Physicalism and Conceivability Arguments
Thursday, 17 July, 5.30 PM, in Zrinyi str. 14/ room 412
ABSTRACT
In this paper I want to take a new look at the history and wider
landscape of recent arguments against physicalism and physicalist
responses to them. These arguments - I will call them conceivability
arguments after Descartes’ famous conceivability argument for the
distinctness of mind and body - start from conceivability
considerations, or more generally, from a premise about an epistemic or
explanatory gap between physical and phenomenal descriptions and
conclude from this that physicalism is false.
The main goal of this paper is to defend what I believe to be the
most powerful physicalist response to these arguments, recently dubbed
the “Phenomenal Concept Strategy”. The Phenomenal Concept Strategy
explains the epistemic or explanatory gap between phenomenal and
physical descriptions by appeal to certain unique features of phenomenal
concepts in a manner consistent with physicalism.
This strategy can be viewed as an important part of a general
physicalist answer to the dualist arguments. The physicalist can answer
the a priori concerns of the dualist by asserting the conceivability of
“qualia-heads”, i.e., purely physical beings that are our physical
duplicates and have phenomenal experiences. I will show in detail that
such beings are (at least) conceivable, in spite of the epistemic gaps
the dualists are drawing attention to, and that their conceivability is
enough to rebut the anti-physicalist arguments. This argument, let’s
call it Counter Conceivability Argument, is the Master Argument that
physicalists who admit to the epistemic gaps can rely on to rebut any
conceivability argument.
Kriszta Biber
Department Coordinator
Philosophy Department
Tel: 36-1-327-3806
Fax: 36-1-327-3072
E-mail: biberk(a)ceu.hu
Department of Philosophy
Central European University
UPCOMING EVENT:
Katalin Balog (Yale University)
Physicalism and Conceivability Arguments
Thursday, 17 July, 17:30
Room 412, 14 Zrinyi street
The event is open to the public. Note that visitors to CEU may be asked
to register at the reception when entering the building. If you are
coming to the lecture, please just tell the receptionist which event
you are visiting. Thank you for your understanding.
Contact: Hanoch Ben-Yami <benyamih(a)ceu.hu>
--
L a s z l o E. S z a b o
Department of Logic, Institute of Philosophy
Faculty of Humanities, Eotvos University, Budapest
http://phil.elte.hu/leszabo
The CEU Department of Philosophy cordially invites you to a talk
by
Katalin Balog (Yale University)
on
Physicalism and Conceivability Arguments
Thursday, 17 July, 5.30 PM, in Zrinyi str. 14/ room 412
Kriszta Biber
Department Coordinator
Philosophy Department
Tel: 36-1-327-3806
Fax: 36-1-327-3072
E-mail: biberk(a)ceu.hu
The Cambridge Handbook of Computational Psychology
edited by Ron Sun
published by Cambridge U. Press
see: http://www.cambridge.org/catalogue/catalogue.asp?
isbn=9780521857413
This book is a definitive reference source for the growing,
increasingly more important, and interdisciplinary field of
computational cognitive modeling, that is, computational psychology.
It combines breadth of coverage with definitive statements by leading
scientists in this field. Research in computational cognitive
modeling (or, simply, computational psychology) explores the essence
of cognition and various cognitive functionalities through developing
detailed, process-based understanding by specifying computational
mechanisms, structures, and processes. Given the complexity of the
human mind and its manifestation in behavioral flexibility, process-
based computational models may be necessary to explicate and
elucidate the intricate details of the mind. The key to understanding
cognitive processes is often in fine details. Computational models
provide algorithmic specificity: detailed, exactly specified, and
carefully thought-out steps, arranged in precise yet flexible
sequences. These models provide both conceptual clarity and precision
at the same time. This book substantiates this approach through
overviews and many examples.
Table of Contents
------------------------------------------
Part 1: Introduction
Chapter 1. Introduction to Computational Cognitive Modeling.
Ron Sun
Part 2: Cognitive Modeling Paradigms
Chapter 2. Connectionist Models of Cognition.
Michael Thomas and James McClelland
Chapter 3. Bayesian Models of Cognition.
Thomas Griffiths, Charles Kemp, and Joshua Tenenbaum
Chapter 4. Dynamical Systems Approaches to Cognition.
Gregor Schoener
Chapter 5. Declarative/Logic-Based Computational Cognitive Modeling.
Selmer Bringsjord
Chapter 6. Constraints in Cognitive Architectures.
Niels Taatgen and John Anderson
Part 3: Computational Modeling of Various Cognitive Functionalities
and Domains
Chapter 7. Computational Models of Episodic Memory.
Kenneth Norman, Greg Detre, and Sean Polyn
Chapter 8. Computational Models of Semantic Memory.
Timothy Rogers
Chapter 9. Models of Categorization.
John Kruschke
Chapter 10. Micro-Process Models of Decision Making.
Jerome Busemeyer and Joseph Johnson
Chapter 11. Models of Inductive Reasoning.
Evan Heit
Chapter 12. Mental Logic, Mental Models, and Simulations of Human
Deductive Reasoning.
Philip Johnson-Laird and Yingrui Yang
Chapter 13. Computational Models of Skill Acquisition.
Stellan Ohlsson
Chapter 14. Computational Models of Implicit Learning.
Axel Cleeremans and Zoltan Dienes
Chapter 15. Computational Models of Attention and Cognitive Control.
Nicola De Pisapia, Grega Repovs, Todd Braver
Chapter 16. Computational Models of Developmental Psychology.
Thomas Shultz and Sylvain Sirois
Chapter 17. Computational Models of Psycholinguistics.
Nick Chater and Morten Christiansen
Chapter 18. Computational Models in Personality and Social
Psychology.
Stephen Read and Brian Monroe
Chapter 19. Cognitive Social Simulation.
Ron Sun
Chapter 20. Models of Scientific Explanation.
Paul Thagard and Abninder Litt
Chapter 21. Cognitive Modeling for Cognitive Engineering.
Wayne Gray
Chapter 22. Models of Animal Learning and Their Relations to
Human Learning.
Francisco Lopez and David Shanks
Chapter 23. Computational Modeling of Visual Information Processing.
Pawan Sinha and Benjamin Balas
Chapter 24. Models of Motor Control.
Ferdinando Mussa-Ivaldi and Sara Solla
Part 4: Concluding Remarks
Chapter 25. An Evaluation of Computational Modeling in Cognitive
Science.
Margaret Boden
Chapter 26. Putting the Pieces Together Again.
Aaron Sloman
-----------------------------------------------------
To order, go to:
http://www.cambridge.org/catalogue/catalogue.asp?isbn=9780521857413
or
http://www.amazon.com/Cambridge-Handbook-Computational-Psychology/dp/
0521674107/ref=ed_oe_p
========================================================
Professor Ron Sun
Cognitive Science Department
Rensselaer Polytechnic Institute
110 Eighth Street, Carnegie 302A
Troy, NY 12180, USA
phone: 518-276-3409
fax: 518-276-3017
email: rsun(a)rpi.edu
web: http://www.cogsci.rpi.edu/~rsun
=======================================================