Title :
Artificial Immune System Driven Evolution in Swarm Chemistry
Author :
Capodieci, Nicola ; Hart, Emma ; Cabri, Giacomo
Author_Institution :
Univ. di Modena e Reggio Emilia, Modena, Italy
Abstract :
Morphogenetic engineering represents an interesting field in which models, frameworks and algorithms can be tested in order to study how self-* properties and emergent behaviours can arise in potentially complex and distributed systems. In this field, the morphogenetic model we will refer to is swarm chemistry, since a well known challenge in this dynamical process concerns discovering mechanisms for providing evolution within coalescing systems of particles. These systems consist in sets of moving particles able to self-organise in order to create shapes or geometrical formations that provide robustness towards external perturbations. We present a novel mechanism for providing evolutionary features in swarm chemistry that takes inspiration from artificial immune system literature, more specifically regarding idiotypic networks. Starting from a restricted set of chemical recipes, we show that the system evolves to new states, using an autonomous method of detecting new shapes and behaviours free from any human interaction.
Keywords :
artificial immune systems; artificial immune system driven evolution; autonomous method; chemical recipes; coalescing systems; complex system; discovering mechanisms; distributed system; dynamical process; evolutionary features; geometrical formation; human interaction; idiotypic networks; morphogenetic engineering; self-* properties; shape formation; swarm chemistry; Algorithm design and analysis; Chemistry; Immune system; Kinetic theory; Mathematical model; Negative feedback; Shape; Artificial Immune System; Autonomic Computing; Morphogenetic engineering; Self-Organizing Systems;
Conference_Titel :
Self-Adaptive and Self-Organizing Systems (SASO), 2014 IEEE Eighth International Conference on
Conference_Location :
London
DOI :
10.1109/SASO.2014.16