Created by W.Langdon from gp-bibliography.bib Revision:1.2031
@PhdThesis{Luerssen2006,
author = "Martin Holger Luerssen",
title = "Experimental Investigations into Graph Grammar
Evolution",
school = "School of Informatics and Engineering, The Flinders
University of South Australia",
year = "2006",
type = "PhD",
address = "Adelaide, Australia",
month = may # " 29",
keywords = "genetic algorithms, genetic programming, embryogeny",
URL = "
http://theses.flinders.edu.au/uploads/approved/adt-SFU20110328.120915/public/02whole.pdf",
URL = "
http://theses.flinders.edu.au/public/adt-SFU20110328.120915/index.html",
size = "224 pages",
abstract = "Artificial and natural instances of networks are
ubiquitous, and many problems of practical interest may
be formulated as questions about networks. Determining
the optimal topology of a network is pertinent to many
domains. Evolutionary algorithms constitute a
well-established optimisation method, but they scale
poorly if applied to the combinatorial explosion of
possible network topologies. Generative representation
schemes aim to overcome this by facilitating the
discovery and reuse of design dependencies and allowing
for adaptable exploration strategies. Biological
embryogenesis is a strong inspiration for many such
schemes, but the associated complexities of modelling
lead to impractical simulation times and poor
conceptual understanding. Existing research also
predominantly focuses on specific design domains such
as neural networks.
This thesis seeks to define a simple yet universally
applicable and scalable method for evolving graphs and
networks. A number of contributions are made in this
regard. We establish the notion of directly evolving a
graph grammar from which a population of networks can
be derived. Compact cellular productions that form a
hypergraph grammar are optimised by a novel
multi-objective evolutionary design system called
G/GRADE. A series of empirical investigations are then
carried out to gain a better understanding of graph
grammar evolution. G/GRADE is applied to four domains:
symbolic regression, circuit design, neural networks,
and telecommunications. We compare different strategies
for composing graphs from randomly mutated productions
and examine the relationship between graph grammar
diversity and fitness, presenting both the use of
phenotypic diversity objectives and an island model to
improve this. Additionally, we address the issue of
bloat and demonstrate how concepts from swarm
intelligence can be applied to production selection and
mutation to improve grammatical convergence. The
results of this thesis are relevant to evolutionary
research into networks and grammars, and the wide
applicability and potential of graph grammar evolution
is expected to inspire further study.",
notes = "http://csem.flinders.edu.au/research/papers/bibtex.html
http://www.flinders.edu.au/science_engineering/csem/publications/phd-theses.cfm",
}
Genetic Programming entries for Martin H Luerssen