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模糊内模控制在电解水制氢温度控制中的应用

Application of Fuzzy Internal Model Control in Temperature Control in Hydrogen Production by Water Electrolysis

  • 摘要:
      目的  为了改善传统比例-积分-微分(Proportion Integration Differentiation,PID)控制器对电解水制氢温度控制中过度依赖被控对象数学模型的问题,对模糊内模控制在电解水制氢温度控制中的应用进行了研究,并给出了模糊内模控制器的设计过程。
      方法  首先分析了温度在电解水制氢过程中的重要性,列举了部分电解水制氢中常用的温度控制策略及优缺点;随后介绍了内模控制理论和模糊理论,并结合两种理论给出了模糊内模温度控制器的设计方法,用于实现电解水制氢温度的精确控制;最后进行了仿真验证实验。
      结果  结果表明:采用的模糊内模控制方法相较于PID控制方法,在响应速度、抗干扰性和鲁棒性都有更好的控制品质,解决了传统PID控制器算法过度依赖被控对象数学模型的问题。
      结论  文章所采用的控制算法正确并有效,可实际应用到电解水制氢的温度控制中。

     

    Abstract:
      Introduction  In order to improve the problem of traditional proportion integration differentiation (PID) controllers overly relying on the mathematical model of the controlled object in the temperature control in hydrogen production by water electrolysis, this paper studies the application of fuzzy internal model control in the temperature control in hydrogen production by water electrolysis, and provides the design process of the fuzzy internal model controller.
      Method  Firstly, the importance of temperature in the process of hydrogen production by water electrolysis was analyzed, and some temperature control strategies commonly used in hydrogen production by water electrolysis and their advantages and disadvantages were listed. Then, internal model control theory and fuzzy theory were introduced, and a design method for a fuzzy internal model temperature controller, which was used to achieve precise temperature control in hydrogen production by water electrolysis, was proposed based on these two theories. Finally, simulation verification experiments were conducted.
      Result  The results show that the fuzzy internal model control method used in this paper has better control quality in response speed, anti-interference, and robustness compared to the PID control method, solving the problem of traditional PID controller algorithms overly relying on the mathematical model of the controlled object.
      Conclusion  The control algorithms used in this paper are correct and effective, and can be applied to the temperature control in hydrogen production by water electrolysis.

     

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