DocumentCode :
2464922
Title :
Evolving High-Performance Evolutionary Computations for Space Vehicle Design
Author :
Dozier, Gerry ; Britt, Win ; SanSoucie, Michael P. ; Hull, Patrick V. ; Tinker, Michael L. ; Unger, Ron ; Bancroft, Steve ; Moeller, Trevor ; Rooney, Dan
Author_Institution :
Auburn Univ., Auburn
fYear :
0
fDate :
0-0 0
Firstpage :
2201
Lastpage :
2207
Abstract :
The nuclear electric vehicle optimization toolset (NEVOT) optimizes the design of all major nuclear electric propulsion (NEP) vehicle subsystems for a defined mission within constraints and optimization parameters chosen by a user. The tool currently uses a number of evolutionary computations (ECs) for designing NEP vehicles. Since evaluating candidate vehicle designs is computationally expensive, it is important that a set of robust control parameters be discovered. In order to accomplish this, a meta-genetic algorithm (meta-GA) was developed to discover control parameters for generational, steady-state, and steady-generational GAs as well as for particle swarm optimizers (PSOs) with ring, star, and random topologies. Our results show that the high-performance GAs are more efficient than the high-performance PSOs on a NASA asteroid mission problem.
Keywords :
genetic algorithms; particle swarm optimisation; robust control; space vehicles; NASA Asteroid Mission problem; high-performance evolutionary computations; meta-genetic algorithm; nuclear electric vehicle optimization toolset; particle swarm optimizers; random topologies; robust control; space vehicle design; Constraint optimization; Design optimization; Electric vehicles; Evolutionary computation; Particle swarm optimization; Propulsion; Robust control; Space vehicles; Steady-state; Topology;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Evolutionary Computation, 2006. CEC 2006. IEEE Congress on
Conference_Location :
Vancouver, BC
Print_ISBN :
0-7803-9487-9
Type :
conf
DOI :
10.1109/CEC.2006.1688579
Filename :
1688579
Link To Document :
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