Part of NSF's Recovering MIT's AI Film History Project. "Here you will find a rough chronology of some of AI's most influential projects. It is intended for both non-scientists and those ready to continue experimentation and research tomorrow. Included is a taste of who the main players have been, concepts they and their projects have explored and how the goals of AI have evolved and changed over time. Many will be surprised that some of what we now consider obvious tools like search engines, spell check and spam filters are all outcroppings of AI research."
With McCulloch, Pitts had laid the foundations for cybernetics and artificial intelligence. They had steered psychiatry away from Freudian analysis and toward a mechanistic understanding of thought. They had shown that the brain computes and that mentation is the processing of information. In doing so, they had also shown how a machine could compute, providing the key inspiration for the architecture of modern computers
Computer scientist Brian Randell was the man who started uncovering the history of Colossus.That history had to be prised out of the archives because official efforts to cover up its success worked so well. Thousands of people worked in the huts at Bletchley Park during WWII on code-cracking but only a handful were involved with Colossus and fewer still knew everything about it.
Computer scientist Brian Randell was the man who started uncovering the history of Colossus.
That history had to be prised out of the archives because official efforts to cover up its success worked so well. Thousands of people worked in the huts at Bletchley Park during WWII on code-cracking but only a handful were involved with Colossus and fewer still knew everything about it.
Turing's genius was to compare machines with humans. To any outsider it was an unlikely place, but the modern era of computers began on May 28, 1936, when the editors of the Proceedings of the London Mathematical Society received a paper with the rather cumbersome title, "On Computable Numbers, With an Application to the Entscheidungsproblem" by Alan M. Turing. Turing's 1936 paper on computable numbers hit that rare bull's eye where philosophy and discovery overlap. But unlike Church, who used the standard abstractions of pure mathematics in his argument, Turing wrote of machines, algorithms, ink, paper tape, and computation. (Before Turing, a "computer" referred not to a machine, but to a human being who calculated with paper and pencil.)
She is a Regents' Professor of Cognitive Science at the Georgia Institute of Technology with joint appointments in the Ivan Allen College of Liberal Arts School of Public Policy and the College of Computing School of Interactive Computing. Nersessian is one of the pioneers of the interdisciplinary field of cognitive studies of science and technology, which comprises psychologists, philosophers of science, artificial intelligence researchers and cognitive anthropologists. So, I was inspired to study math and physics, but in retrospect this was the beginning of my life as a philosopher and cognitive scientist. I was hooked I changed to a double major in physics and philosophy, and headed to graduate school to study the philosophy of physics.
An internationally recognized pioneer in the field is Judea Pearl, a professor at UCLA, who on March 29 will add to his string of honors and awards the Harvey Prize in Science and Technology from the Technion-Israel Institute of Technology. In 2008, on receiving the Benjamin Franklin Medal in Computer and Cognitive Science from the Franklin Institute, Pearl was credited with research that changed the face of computer science, and his three books recognized as being among the most influential works in shaping the theory and practice of knowledge-based systems.
Since receiving her doctorate in 1992, Manuela Veloso's research interests in artificial intelligence have focused on duplicating the success with which humans plan, learn and execute tasks. Founding a robot soccer dynasty was purely coincidental. By David Hart. NSF Discovery (March 24, 2004).
See Appendix A (p.69) "Computer Science Department Theses" for Ph.D. dissertations.
See Appendix B (p.77) "Artificial Intelligence Memos" for technical reports from the the Stanford AI Lab.
Stuart C. Shapiro, A net structure for semantic information storage, deduction and retrieval. In Proceedings of the Second International Joint Conference on Artificial Intelligence (IJCAI-71), Morgan Kaufmann, Inc., Los Altos, CA, 1971, 512-523.
D. P. McKay and S. C. Shapiro. Using active connection graphs for reasoning with recursive rules. In Proceedings of the Seventh International Joint Conference on Artificial Intelligence (IJCAI-81), pages 368-374, Los Altos, CA, 1981. Morgan Kaufmann.
Anthony S. Maida and Stuart C. Shapiro, Intensional concepts in propositional semantic networks. Cognitive Science, 6(4):291-330, 1982. Reprinted in R. J. Brachman and H. J. Levesque, eds. Readings in Knowledge Representation, Morgan Kaufmann, Los Altos, CA, 1985, 170-189.
Stuart C. Shapiro and William J. Rapaport, SNePS considered as a fully intensional propositional semantic network. In N. Cercone and G. McCalla, editors, The Knowledge Frontier, Springer-Verlag, New York, 1987, 263-315.
João P. Martins and Stuart C. Shapiro. A model for belief revision. Artificial Intelligence, 35(1):25-79, 1988.
"The materials primarily concern his work in artificial intelligence at Stanford University and includes administrative files, correspondence, project files, trip files, proposals, reports, reprints, Artificial Intelligence Lab memos, audio tapes, video tapes, and files on computer programs, mainly DENDRAL, MOLGEN, ARPA, EPAM, and SUMEX."
Tips for searching/browsing the site:
See also: Feigenbaum, E.A.: A Companion Site to the Edward A. Feigenbaum Collection.
Interviews at the AAAI 2006 conference with 28 AAAI Fellows:
Bobrow, Brachman, Brooks, Buchanan, Buchanan-speech, Bundy, Doyle, Feigenbaum, Hendler, Kahn, Kautz, Kuipers, McDermott, Michalski, Minsky, Nilsson, Rich, Rissland, Selman, Sidner, Simmons, Sussman, Swartout, Szolovits, Veloso, Wilkins, Winston, Woolf
Papers by Russell online.
Erman, L. D., F. Hayes-Roth, et al. (1980). "The Hearsay-II Speech-understanding system: Integrating knowledge to resolve uncertainty." Computing Surveys 12(2).
Hayes-Roth, B. and F. Hayes-Roth (1979). "A cognitive model of planning." Cognitive Science 3: 275-310.
Hayes-Roth, F. (1983). Using proofs and refutations to learn from experience. Machine Learning. R. S. Michalski, J. G. Carbonell and T. M. Mitchell. Palo Alto, CA, Tioga Publishing: 221-240.
Hayes-Roth, F. (1997). "Artificial Intelligence: What works and what doesn't?" AI Magazine 18(2): 99-113.
Hayes-Roth, F., D. A. Waterman, et al., Eds. (1983). Building Expert Systems. Reading, MA, Addison-Wesley.
Hayes-Roth, F. and N. Jacobstein (1994). "The state of knowledge-based systems." Communications of the ACM 37(3 (March)): 27-39.
Hayes-Roth, F. (1993). "The evolution of commercial AI tools: The first decade." Intl. J. of Artificial Intelligence Tools 2(1): 1-15.
Stefik, M., J. S. Aikins, et al. (1993). "Retrospective on 'The organization of expert systems, a tutorial'." Artificial Intelligence 59: 221-224.
Hayes-Roth, F., J. E. Davidson, et al. (1991). "Frameworks for developing intelligent systems." IEEE Expert 6(3): 30-40.
Lark, J. S., L. D. Erman, et al. (1990). "Concepts, methods, and languages for building timely intelligent systems." Real-Time Systems 2(1/2): 127-148.
Fiksel, J. and F. Hayes-Roth (1989). "Knowledge systems for planning support." IEEE Expert 4(3): 16-24.
Hayes-Roth, F. (1989). "Towards benchmarks for knowledge systems and their implications for data engineering." IEEE Transactions on Knowledge and Data Engineering 1(1): 101-110.
Erman, L. D., J. S. Lark, et al. (1988). "ABE: An environment for engineering intelligent systems." IEEE Transactions on Software Engineering 14(12).
Hayes-Roth, F. (1985). "Knowledge-based systems -- The state of the art in the US." Knowledge Engineering Review 1(June): 18-27.
Hayes-Roth, F. (1985). "Rule-based systems." Communications of the ACM 28(Sept): 921-932.
Hayes-Roth, F. and P. London (1985). "Software tool speeds expert systems." Systems and Software 71(August): 71-75.
Hayes-Roth, F. (1984). "Knowledge-based expert systems." Computer 17(October): 263-273.
Hayes-Roth, F. (1984). "The knowledge-based expert system: A tutorial." Computer 17(9): 11-28.
Hayes-Roth, F. (1984). "The machine as partner of the new professional." Spectrum 21(June): 28-31.
"I became fascinated with the nature of scientific discovery as an undergraduate at TCU, and the interest has remained to this day. My dissertation work at CMU focused on Bacon, an AI system that rediscovered numeric laws from the history of physics. Herbert Simon served as my advisor and contributed many ideas to the effort. Gary Bradshaw and I extended the system to handle additional laws, including ones from the history of chemistry. After Jan Zytkow joined our group, we developed new systems (Stahl and Dalton) that dealt with the discovery of qualitative laws and structural models. This CMU work forms the basis of my early publications on scientific discovery...."
Extracting refined rules from knowledge-based neural networks, G. Towell & J. Shavlik, Machine Learning 13 (1), 71-101, 1993.
Knowledge-based artificial neural networks, G. Towell & J. Shavlik, Artificial Intelligence 70 (1-2), 119-165, 1994.
Creating advice-taking reinforcement learners, R. Maclin & J. Shavlik, Machine Learning 22 (1), 251-281, 1995.
Knowledge-based support vector machine classifiers, G. Fung, O. Mangasarian, & J. Shavlik, Advances in Neural Information Processing Systems 15, 521-528, 2002.
Historical note: "The idea of robots playing soccer was first mentioned by Professor Alan Mackworth (University of British Columbia, Canada) in a paper entitled 'On Seeing Robots' presented at VI-92, 1992. and later published in a book Computer Vision: System, Theory, and Applications, pages 1-13, World Scientific Press, Singapore, 1993. A series of papers on the Dynamo robot soccer project was published by his group. Independently, a group of Japanese researchers organized a Workshop on Grand Challenges in Artificial Intelligence in October, 1992 in Tokyo, discussing possible grand challenge problems. This workshop led to a serious discussions of using the game of soccer for promoting science and technology."---from A Brief History of RoboCup.
Computer scientist and AI pioneer EDWARD A. FEIGENBAUM has partnered with Stanford Libraries to make his personal papers available online, including more than 16,500 notes, scientific development documents, correspondence, Artificial Intelligence Lab memos, audio tapes and videos.
Marvin Minsky, who combined a scientist’s thirst for knowledge with a philosopher’s quest for truth as a pioneering explorer of artificial intelligence, work that helped inspire the creation of the personal computer and the Internet, died on Sunday night [Jan. 24, 2016] in Boston. He was 88.
In November 1963 -- a half century before the arrival of Google's robocars and Amazon's Kiva factory minions -- Charles Rosen dreamed up the world's first mobile "automaton. " Rosen, a researcher at the Stanford Research Institute in Menlo Park, California, envisioned a roboperson driven by neural networks, algorithms that mimic the human brain.
Every two years, IEEE Intelligent Systems acknowledges and celebrates 10 young stars in the field of AI as "AI's 10 to Watch." These accomplished researchers have all completed their doctoral work in the past five years. Despite being relatively junior in their career, each one has made impressive research contributions and had an impact in the literature — and in some cases, in real-world applications as well.
Brief summary of Joshua Lederberg's contributions to science. Shown at the presentation of the Morris F. Collin Award to Lederberg by the American College of Medical Informatics, 1999. Includes short interviews with Edward Feigenbaum, Don Lindberg, Tom Rindfleisch, Carl Djerassi, and Ted Shortliffe.
Report from the Moore School of Electrical Engineering, University of Pennsylvania
Also available in the ACM Digital Library
A program is described that accepts natural
language input and makes inferences from it and paraphrases
of it . The Conceptual Dependency framework is the basis of
thi s system.
The studies reported here have been concerned with the programming of a digital computer to behave in a way which, if done by human beings oranimals, would be described as involving the process of learning. Whilethis is not the place to dwell on the importance of machine-learning procedures,or to discourse on the philosophical aspects,1 there is obviously avery large amount of work, now done by people, which is quite trivial inits demands on the intellect but does, nevertheless, involve some learning.
Also in Computers and Thought. Feigenbaum, Edward A. and Julian Feldman (Editors) 1963.