AI has explored the view that much of scientific reasoning is problem solving, and hence is akin to more ordinary types of reasoning. Experience has shown that some scientific reasoning can be automated: research on discovery has already yielded competent programs that, e.g.,, plan organic syntheses, elucidate molecular structure, determine reaction mechanisms, make interesting graph-theoretic conjectures, and detect patterned behavior. Where all this may lead was foreseen by Allen Newell [Artif.Intell.; 25(3) 1985]:
[The field] should, by the way, be prepared for some radical, and perhaps surprising, transformations of the disciplinary structure of science (technology included) as information processing pervades it. In particular, as we become more aware of the detailed information processes that go on in doing science, the sciences will find themselves increasingly taking a metaposition, in which doing science (observing, experimenting, theorizing, testing, archiving, ...) will involve understanding these information processes, and building systems that do the object-level science. Then the boundaries between the enterprise of science as a whole (the acquisition and organization of the knowledge of the world) and AI (the understanding of how knowledge is acquired and organized) will become increasingly fuzzy.
The goals of this symposium are to examine how far we have come to realizing Newell's vision, to identify fruitful current opportunities, and to discuss the obstacles to progress in further understanding of systematic methods for scientific inference. We solicit contributions that advance these goals. Some examples of appropriate contributions include:
Please send submissions and information requests to the symposium chairman as follows:
Raul Valdes-Perez, Computer Science Department, Carnegie Mellon University, Pittsburgh, PA 15213 - USA
(email: valdes@cs.cmu.edu)