Abstract

By mimicking the biological evolution process, genetic algorithm (GA) methodology has the advantages of creating and updating new elite parameters for optimization processes, especially in controller design technique. In this paper, a GA improvement that can speed up convergence and save operation time by neglecting chromosome decoding step is proposed to find the optimized fuzzy-proportional-integral-derivative (fuzzy-PID) control parameters. Due to minimizing tracking error of the controller design criterion, the fitness function integral of square error (ISE) was employed to utilize the advantages of the modified GA. The proposed method was then applied to a novel autonomous hovercraft motion model to display the superiority to the standard GA.

Highlights

  • John Henry Holland, by imitating Darwin’s biological evolution process, proposed the powerful stochastic global search method genetic algorithm (GA) first in 1975 [1,2]

  • GA operated shorter generations generations) and hovercraftGA, wasthe tested by moving forwardin(x-direction); stability(just was20 tested when it was rapidly updated the convergence speed of fitness function

  • The improved GA methodology, which was implemented by make some simple changes inside the standard

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Summary

Design for Autonomous Hovercraft

Huu Khoa Tran 1,2 , Hoang Hai Son 3 , Phan Van Duc 4 , Tran Thanh Trang 5 and Hoang-Nam Nguyen 6, *. Modeling Evolutionary Algorithms Simulation and Artificial Intelligence, Faculty of Electrical & Electronics. Received: 27 November 2019; Accepted: 26 December 2019; Published: 3 January 2020

Introduction
Hovercraft Prototype Model
Modified GA Optimal Controller Gains
The Controller Design
Improved GA in the Optimization Process
Results
The modified GA had the mutation the mass m
In comparison
Conclusions
Full Text
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