Title :
Physical computation and the design of anticipatory systems
Author_Institution :
Dept. of Electr. & Electron. Eng., Imperial Coll. London, UK
Abstract :
For a system to learn from experience and predict the future, it must have access to the appropriate information. In conventional computational systems engineering, signals of specific types are sought at specific resolutions. Though this is appropriate for many well-understood problems, it may be inappropriate for other, less-well-defined, applications. These include multi-tasking anticipatory systems that interact with the real physical world. Here, the engineer may not have enough advance knowledge to determine what information will be relevant and what will not, particularly in the context of systems that perform complex tasks. Here we discuss how our physical model of computation can allow information to be used more effectively by either postponing, or forgoing, analogue-to-digital conversion. Further - based on evidence from neuromorphic engineering and theoretical computer science - we suggest that systems designed using the approach will be more efficient, both energetically and computationally, than their conventional counterparts.
Keywords :
learning (artificial intelligence); Turing machine; multitasking anticipatory system; neuromorphic engineering; physical computation; theoretical computer science; Computational intelligence; Computational modeling; Computer networks; Design engineering; Educational institutions; Intelligent networks; Intelligent structures; Intelligent systems; Neuromorphic engineering; Physics computing;
Conference_Titel :
Systems, Man and Cybernetics, 2004 IEEE International Conference on
Print_ISBN :
0-7803-8566-7
DOI :
10.1109/ICSMC.2004.1400016