The Problem of Pancomputationalism: Focusing on Three Related Arguments
2
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
Pancomputationalism is the view that everything is a computer. This, if true, poses some difficulties to the computational theory of cognition. In particular, the strongest version of it suggested by John Searle seems enough to trivialize computational cognitivists’ core idea on which our cognitive system is a computing system. The aim of this paper is to argue against Searle’s pancomputationalism. To achieve this, I will draw a line between realized computers and unrealized computers. Through this distinction, I expect that it will become evident that Searle’s pancomputationalism should be understood in terms of unrealized computers, while the computational theory of cognition is concerned with realized computers.
Abstract
Pancomputationalism is the view that everything is a computer. This, if true, poses some difficulties to the computational theory of cognition. In particular, the strongest version of it suggested by John Searle seems enough to trivialize computational cognitivists’ core idea on which our cognitive system is a computing system. The aim of this paper is to argue against Searle’s pancomputationalism. To achieve this, I will draw a line between realized computers and unrealized computers. Through this distinction, I expect that it will become evident that Searle’s pancomputationalism should be understood in terms of unrealized computers, while the computational theory of cognition is concerned with realized computers.
참고문헌 (23)
- Blackmon, J., "Searle’s Wall", Erkenntnis, 78, pp.109~117 (2013)
- Block, N., "Views into the Chinese Room", pp.70~79 (2002), Oxford University Press
- Chalmers, D., "On Implementing a Computation", Mind and Machines, 4, pp.391~402 (1994)
- Edelman, S., "Computing the mind: How the mind really works" (2008), Oxford University Press
- Fodor, J., "Psychological Explanation" (1968), Random House
- Horgan, T., "Folk Psychology is Here to Stay", Philosophical Review, 94, pp.197~226 (1985)
- Kurzweil, R., "Are We Spiritual Machines: Ray Kurzweil vs. the Critics of Strong AI", pp.128~171 (2002), Discovery Institution
- McCulloch, W. S., "A Logical Calculus of the Ideas Immanent in Nervous Activity", Bulletin of Mathematical Biophysics, 7, pp.115~133 (1943)
- Newell, A., "Computer science as an empirical enquiry : Symbols and search", Communications of the Association for Computing Machinery, 19, pp.113~126 (1976)
- Piccinini, G., "Stanford Encyclopedia of Philosophy" (2010)
- Putnam, H., "Minds and Machines", Dimensions of Mind: A Symposium, pp.138~164 (1960)
- Putnam, H., "Models and Reality", Journal of Symbolic Logic, 45, pp.464~482 (1980)
- Pylyshyn, Z., "Computation and Cognition" (1985), MIT Press
- Rescorla, M., "Stanford Encyclopedia of Philosophy" (2015)
- Rey, G., "What’s Really Going on in Searle’s Chinese Room", Philosophical Studies, 50, pp.169~185 (1986)
- Rey, G., "Views into the Chinese Room", pp.201~225 (2002), Oxford University Press
- Schneider, S., "Language of thought : A new philosophical direction" (2011), MIT Press
- Scheutz, M., "Causal versus Computational Complexity", Minds and Machines, 11, pp.534~566 (2001)
- Searle, J, "Is the Brain a Digital Computer?", Proceedings and Addresses of the American Philosophical Association, 64, pp.21~37 (1990)
- Searle, J., "The MIT Encyclopedia of the Cognitive Sciences" (1999), MIT Press
- Searle, J., "The Problem of Consciousness", Consciousness and Cognition, 2, pp.310~319 (2002)
- Smart, J. J. C., "Sensations and Brain Processes", Philosophical Review, 68, pp.141~156 (1959)
- Turing, A. M., "On Computable Numbers, with an Application to the Entscheidungsproblem", Proceeding of the London Mathematical Society, 42, pp.230~265 (1936)
