Multi-objective Optimization of the Main Circuit and Control Parameters of the Buck-Boost Matrix Converter

doi:10.16182/j.issn1004731x.joss.201808027

Abstract

Abstract: The optimization of main circuit parameters and control parameters of the Buck-Boost matrix converter has been investigated. The study takes the main circuit parameters and control parameters as optimization object and takes the harmonic distortion of output voltage, capacitance voltage deviation and inductance current deviation of the converter as optimization target. Firstly, multi-objective optimization satisfaction function is established correspondingly. Meanwhile, the fitness function is built and solved to achieve a set of optimizing parameters based on the fruit fly algorithm, which makes each optimizing target achieve synergistic optimal. Finally, the optimization effect is verified by simulation. The results show that the optimization method has good optimization effect, fewer parameters to adjust and not easy to fall into a local optimal solution, etc, which proved to be well application value.

Key words: BBMC, main circuit parameters optimization, controls parameter optimization, FOA, simulation

CLC Number:

TM46

Zhang Xiaoping, Song Wenhao, Zhu Hongping. Multi-objective Optimization of the Main Circuit and Control Parameters of the Buck-Boost Matrix Converter[J]. Journal of System Simulation, 2018, 30(8): 3042-3049.

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