| Author Info |
| Abstract |
Each class of maps and inequalities, such as quadratic functions with rational coefficients, is capable of recognizing a particular class of languages; for instance, linear and quadratic maps can have both stack-like and queue-like memories. We use methods equivalent to the Vapnik-Chervonenkis dimension to separate some of our classes from each other, e.g., linear maps are less powerful than quadratic or piecewise-linear ones, polynomials are less powerful than elementary (trigonometric and exponential) maps, and deterministic polynomials of each degree are less powerful than their non-deterministic counterparts.
Comparing these dynamical classes with various discrete language classes helps illuminate how iterated maps can store and retrieve information in the continuum, the extent to which computation can be hidden in the encoding from symbol sequences into continuous spaces, and the relationship between analog and digital computation in general.
We relate this model to other models of analog computation; for instance, it can be seen as a real-time, constant-space, off-line version of Blum, Shub, and Smale's real-valued machines.
Key words. language recognition, real-time computation, analog computation, dynamical systems, automata theory, neural networks, Spootie
| Download Info |
| Publisher Info |
Download reference. The following formats are available: HTML
(with abstract),
plain text
(with abstract),
BibTeX,
RIS (EndNote, RefMan, ProCite),
ReDIF
Contact details of provider:
Postal: 1399 Hyde Park Road, Santa Fe, New Mexico 87501
Web page: http://www.santafe.edu/sfi/publications/working-papers.html
More information through EDIRC
For technical questions regarding this item, or to correct its listing, contact: (Thomas Krichel).
| Related research |
| Statistics |
Did you know? IDEAS also indexes book chapters.
This page was last updated on 2009-12-16.