Using cellular automata for parallel simulation of laser dynamics with dynamic load balancing

We present an analysis of the feasibility of executing a parallel bioinspired model of laser dynamics, based on cellular automata (CA), on the usual target platform of this kind of applications: a heterogeneous non-dedicated cluster. As this model employs a synchronous cellular automaton, using the SPMD (Single Program, Multiple Data) paradigm, it is not clear in advance if an appropriate efficiency can be obtained on this kind of platform. We have evaluated its performance including artificial load to simulate other tasks or jobs submitted by other users. A dynamic load balancing strategy with two main differences from most previous implementations of CA based models has been used. First, it is possible to migrate load to cluster nodes initially not belonging to the pool. Second, a modular approach is taken in which the model is executed on top of a dynamic load balancing tool—the Dynamite system— gaining flexibility. Very satisfactory results have been obtained, with performance increases from 60% to 80%

Publication Details

Journal
idUS (Universidad de Sevilla)
Published
2024-09-05
Primary Topic
European and International Law Studies
Type
article
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article

Using cellular automata for parallel simulation of laser dynamics with dynamic load balancing

idUS (Universidad de Sevilla)
European and International Law Studies
article

Using cellular automata for parallel simulation of laser dynamics with dynamic load balancing

article en

Abstract

We present an analysis of the feasibility of executing a parallel bioinspired model of laser dynamics, based on cellular automata (CA), on the usual target platform of this kind of applications: a heterogeneous non-dedicated cluster. As this model employs a synchronous cellular automaton, using the SPMD (Single Program, Multiple Data) paradigm, it is not clear in advance if an appropriate efficiency can be obtained on this kind of platform. We have evaluated its performance including artificial load to simulate other tasks or jobs submitted by other users. A dynamic load balancing strategy with two main differences from most previous implementations of CA based models has been used. First, it is possible to migrate load to cluster nodes initially not belonging to the pool. Second, a modular approach is taken in which the model is executed on top of a dynamic load balancing tool—the Dynamite system— gaining flexibility. Very satisfactory results have been obtained, with performance increases from 60% to 80%

idUS (Universidad de Sevilla)
Ministerio de Ciencia e Innovación, Junta de Andalucía, Universidad de Extremadura, Centro de Investigaciones Energéticas, Medioambientales y Tecnológicas
Decent work and economic growth
Openalex Percentile: Top 24%
European and International Law Studies
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