A. Newell, H. Simon (1956)
The logic theory machine-A complex information processing systemIRE Trans. Inf. Theory, 2
H. Simon (1970)
The Sciences of the Artificial
N. Rochester, J. Holland, L. Haibt, W. Duda (1956)
Tests on a cell assembly theory of the action of the brain, using a large digital computerIRE Trans. Inf. Theory, 2
G. Miller (1956)
The magical number seven plus or minus two: some limits on our capacity for processing information.Psychological review, 63 2
J. Sammet (1976)
ACM president's letter: on the importance of ACM being scientific and educationalCommunications of The ACM, 19
Newell Newell, Simon Simon (Sept. 1956)
The logic theory machineIRE Transactions on Information Theory, 1
Chomsky Chomsky (Sept. 1956)
Three models of the description of languageProceedings of a Symposium on Information Theory. IRE Transactions on Information Theory, 3
(1978)
A computer program that learns algebraic procedures by examining examples and by working test problems in a textbook
Raymond Bandlow (1976)
Theories of Learning, 4th Edition. By Ernest R. Hilgard and Gordon H. Bower. Englewood Cliffs, N.J.: Prentice-Hall, Inc., 1975NASSP Bulletin, 60
Gordon Bower, E. Hilgard (1981)
Theories of LearningAmerican Journal of Psychology, 94
H. Simon (1978)
Rational Decision Making in Business OrganizationsThe American Economic Review, 69
N. Nilsson (1971)
Problem-solving methods in artificial intelligence
L. Gregg (1974)
Knowledge and cognition
Noam Chomsky (1956)
Three models for the description of languageIRE Trans. Inf. Theory, 2
D. Waterman (1975)
Adaptive Production Systems
H. Simon (1979)
Models of Thought
B. Buchanan, Tom Mitchell (1978)
MODEL-DIRECTED LEARNING OF PRODUCTION RULES1
(1963)
Steps toward artificial intelligence Cornpaters and thought
William Hamilton, E. Wilson (1975)
Sociobiology. The New SynthesisJournal of Animal Ecology, 46
William Smith, J. Bruner, J. Goodnow, G. Austin (1956)
A Study of ThinkingAmerican Journal of Psychology, 71
A. Newell, H. Simon (1976)
Computer science as empirical inquiry: symbols and searchCommun. ACM, 19
B. Buchanan, Tom Mitchell (1977)
Model-directed learning of production rulesSIGART Newsl., 63
P. Langley (1979)
Rediscovering Physics with BACON.3
J. Hayes, H. Simon (1974)
Understanding written problem instructions.
Miller Miller (1956)
The magical number sevenPsychological Review, 63
Cognitive science is, of course, not really a new discipline, but a recognition of a fundamental set of common concerns shared by the disciplines of psychology, computer science, linguistics, economics, epistemology, and the social sciences generally. All of these disciplines are concerned with information processing systems, and all of them are concerned with systems that are adaptive—that are what they are from being ground between the nether millstone of their physiology or hardware, as the case may be, and the upper millstone of a complex environment in which they exist. Systems that are adaptive may equally well be described as “artificial,” for as environments change, they can be expected to change too, as though they were deliberately designed to fit those environments (as indeed they sometimes are). The task of empirical science is to discover and verify invariants in the phenomena under study. The artificiality of information processing systems creates a subtle problem in defining empirical invariants in such systems. For observed regularities are very likely invariant only within a limited range of variation in their environments, and any accurate statement of the laws of such systems must contain reference to their relativity to environmental features. It is a common experience in experimental psychology, for example, to discover that we are studying sociology—the effects of the past histories of our subjects—when we think we are studying physiology—the effects of properties of the human nervous system. Similarly, business cycle economists are only now becoming aware of the extent to which the parameters of the system they are studying are dependent on the experiences of a population with economic events over the previous generation. In artificial sciences, the descriptive and the normative are never far apart. Thus, in economics, the “principle of rationality” is sometimes asserted as a descriptive invariant, sometimes as advice to decision makers. Similarly, in psychology, the processes of adaptation (learning) have always been a central topic, at one time a topic that dominated the whole field of research. Linguistics, too, has suffered its confusions between descriptive and normative attitudes towards its subject. But we must avoid the error, in studying information processing systems, of thinking that the adaptive processes themselves must be invariant; and we must be prepared to face the complexities of regression in the possibility that they themselves may be subject to improvement and adaptation. It might have been necessary a decade ago to argue for the commonality of the information processes that are employed by such disparate systems as computers and human nervous systems. The evidence for that commonality is now overwhelming, and the remaining questions about the boundaries of cognitive science have more to do with whether there also exist nontrivial commonalities with information processing in genetic systems than with whether men and machines both think.
Cognitive Science - A Multidisciplinary Journal – Wiley
Published: Jan 1, 1980
Read and print from thousands of top scholarly journals.
Already have an account? Log in
Bookmark this article. You can see your Bookmarks on your DeepDyve Library.
To save an article, log in first, or sign up for a DeepDyve account if you don’t already have one.
Copy and paste the desired citation format or use the link below to download a file formatted for EndNote
All DeepDyve websites use cookies to improve your online experience. They were placed on your computer when you launched this website. You can change your cookie settings through your browser.