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Memristor Parallel Computing for a Matrix-Friendly Genetic Algorithm

delete2022-10-01
delete7
PRE
AI
Y
Yongbin Yu *
J
Jiehong Mo
Q
Quanxin Deng
C
Chen Zhou
B
Biao Li
X
Xiangxiang Wang
N
Nijing Yang
Q
Qian Tang
F
Feng Xiao
DOI:10.1109/TEVC.2022.3144419delete
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Abstract

Abstract

En 中文
Matrix operation is easy to be paralleled by hardware, and the memristor network can realize a parallel matrix computing model with in-memory computing. This article proposes a matrix-friendly genetic algorithm (MGA), in which the population is represented by a matrix and the evolution of population is realized by matrix operations. Compared with the performance of a baseline genetic algorithm (GA) on solving the maximum value of the binary function, MGA can converge better and faster. In addition, MGA is more efficient because of its parallelism on matrix operations, and MGA runs 2.5 times faster than the baseline GA when using the NumPy library. Considering the advantages of the memristor in matrix operations, memristor circuits are designed for the deployment of MGA. This deployment method realizes the parallelization and in-memory computing (memristor is both memory and computing unit) of MGA. In order to verify the effectiveness of this deployment, a feature selection experiment of logistic regression (LR) on Sonar datasets is completed. LR with MGA-based feature selection uses 46 fewer features and achieves 11.9% higher accuracy.
Keywords:
Biological cells
Genetic algorithms
Memristors
Statistics
Sociology
Parallel processing
Computational modeling
Feature selection
genetic algorithms (GAs)
memristors
parallel computing

Journal

IEEE Transactions on Evolutionary Computation cover
IEEE Transactions on Evolutionary Computation
IF:
12
Papers:
1.8K
Citations:
2.4W

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