Created by W.Langdon from gp-bibliography.bib Revision:1.1944
@InProceedings{Iba:1995:tdpGP,
author = "Hitoshi Iba and Hugo {de Garis} and Taisuke Sato",
title = "Temporal Data Processing Using Genetic Programming",
booktitle = "Genetic Algorithms: Proceedings of the Sixth
International Conference (ICGA95)",
year = "1995",
editor = "Larry J. Eshelman",
pages = "279--286",
address = "Pittsburgh, PA, USA",
publisher_address = "San Francisco, CA, USA",
month = "15-19 " # jul,
publisher = "Morgan Kaufmann",
keywords = "genetic algorithms, genetic programming",
ISBN = "1-55860-370-0",
URL = "
http://www.cs.ucl.ac.uk/staff/W.Langdon/ftp/papers/iba_1995_tdpgp.pdf",
size = "8 pages",
abstract = "This paper reports an extension of STROGANOFF called
R-STROGANOFF which uses special memory terminal nodes
to provide a form of recurrancy to process time ordered
events.
All functions are polynomials (quadratics in the
examples), terminals are either inputs or memories.
Each memory terminals hold the value of a function node
on the previous time step.
The coeffients of the polynomials are learnt by trying
to match the training data using a 'Generalised Error
Proporgation Algorithm'. This is determinstic. Seems
like STROGANOFF's (but different?), time sequence
based, based on back-propagation. The coefficients are
recalculated each generation (assuming tree has
changed).
Fitness function used 'minimum description length'
(MDL).
Quadratic coefficients mya be limited to 0<=x<=1 to
avoid divergence.
Examples: 2 step 0-1 oscilator, 4 Tomita languages (on
binary alphabet).
Tree could be converted to finite state automata, which
was more general than tree, ie works in all cases
including those not in the training set.
On the tomita languages problems 'R-STROGANOFF works
almost as well as (the best) best recurrent
networks'
",
}
Genetic Programming entries for Hitoshi Iba Hugo de Garis Taisuke Sato