Publication Details

A Developmental Method for Construction of Arbitrarily Large Sorting Networks and Adders

BIDLO Michal. A Developmental Method for Construction of Arbitrarily Large Sorting Networks and Adders. Brno: Faculty of Information Technology BUT, 2005.
Czech title
Vývojová metoda pro konstruckci libovolně velkých řadicích sítí a sčítaček
Type
report
Language
english
Authors
URL
Keywords

Genetic algorithm, development, digital circuits design, sorting network, binary adder

Abstract

An approach is presented for the construction of arbitrarily large sorting networks and adders using development and genetic algorithm. A novel solution was evolved in comparison with a conventional sorting networks (e.g. bubble-sort networks).

Annotation

The paper deals with a non-traditional design method inspired by natural
ontogenesis (an embryonic approach) for construction of combinational logic
circuits (in particular sorting networks and adders). The general principle of the technique is based on a set of proper
instructions known beforehand that are repeatedly applied on the embryo
(a trivial instance of a problem) to construct more complex system. Genetic algorithm is used to find a suitable
sequence of instructions -- a prescription for the growth of the embryo. The system complexity can increase continually and infinitely. It is shown that
by employing of this approach the genetic algorithm is able to (1) rediscover the
principle of already known method and (2) find a novel algorithm, by means of
which we can obtain better solutions in comparison with a conventional method.

Published
2005
Pages
8
Publisher
Faculty of Information Technology BUT
Place
Brno, CZ
BibTeX
@TECHREPORT{FITPUB7736,
   author = "Michal Bidlo",
   title = "A Developmental Method for Construction of Arbitrarily Large Sorting Networks and Adders",
   pages = 8,
   year = 2005,
   location = "Brno, CZ",
   publisher = "Faculty of Information Technology BUT",
   language = "english",
   url = "https://www.fit.vut.cz/research/publication/7736"
}
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