Design of maximum output power of wave energy based on multiple search algorithm

Authors

  • Jianhui Zhang
  • Tianxu Li
  • Jie Li
  • Qinghe Niu

DOI:

https://doi.org/10.54097/hset.v44i.7330

Keywords:

Differential equation model; multiple search algorithm; wave energy.

Abstract

The wave energy device moves under the drive of waves. During the movement of the device, the damper inside the device is driven to do work and the work done by the damper is converted into energy output.In this paper, the force of the system in the initial equilibrium state of the device is first analyzed, and then according to Newton's second law, the motion state of the float and the oscillator are analyzed separately, and the differential equation motion model of the float and the oscillator is established.When the constraints are damping coefficients, multiple search algorithms are used to solve them, and the negative work done by the linear damping force is obtained, with a period of 40 times as long. After the work is analyzed and discretized, the objective function expression is obtained, and a number of average output powers are obtained and continuously compared, and finally the maximum average output power and its corresponding parameter values are obtained.The optimal damping coefficient and the maximum average power are obtained.

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References

Zhao Xiaochun.Research on power optimization of buoyancy pendulum wave energy power generation device [D]. Tianjin University of Technology, 2020

Huang Xiuxiu.Power control of oscillating float wave power generation system [D]. South China University of Technology, 2019.

Xiao Wenping, Ye Jiawei, Hu Xiaogang. Nonlinear modeling and optimization of SRG in wave power generation [J]. Journal of Solar Energy, 2010, 31(12): 1668-1672.

Xiong Fengjun, Yang Junhua, Xie Dongshen, etc. Maximum power tracking of wave power generation based on improved bee colony algorithm [J]. Computer simulation, 2020, 37(1): 87-93,233.

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Published

13-04-2023