分数阶微积分的进展:控制和信号处理的应用

E. Gonzalez, I. Petráš
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引用次数: 25

摘要

分数阶微积分是一个有三百多年历史的概念,早在de l'Hospital和Leibniz专注于非整数阶的导数和积分的时候就存在了。大约四十年前,工程师和科学家开始冒险进入分数阶微积分领域,通过展示分数阶微分方程模型有效的应用。人们发现,分数阶微积分确实正变得无处不在,在许多科学和工程领域都有应用,从分数阶扩散方程和各种生物医学应用,到信号处理和控制工程应用。后来有人提出一个结论,分数阶微积分实际上是整数阶微积分的推广,它是如此强大,它可以克服整数阶微积分的优点。本文全面讨论了分数阶微积分在设计和实现可用于信号处理和控制工程的电子电路形式的分数阶系统中的应用。本文首先介绍了分数阶微积分的一些历史和数学定义。文章的第二部分着重于分数阶微分方程和系统。然后讨论了示例电路设计和实现,其中包括对与该领域相关的一些论文的阐述。文章的最后一部分提出了这一领域可能的研究课题。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Advances in fractional calculus: Control and signal processing applications
Fractional calculus is more than a three hundred-year-old concept way back during the time of de l'Hospital and Leibniz focusing on derivative and integrals having non-integer orders. Almost four decades ago, engineers and scientists began to venture into the field of fractional calculus by unfolding its applications where fractional differential equation models are valid. It has been found that fractional calculus indeed is becoming ubiquitous, seeing applications in many fields of sciences and engineering, from fractional diffusion equations and various biomedical applications, to signal processing and control engineering applications. A conclusion was then later proposed that fractional calculus is actually a generalization of integer-order calculus, being so powerful, it could overcome the advantages of its integer-order counterparts. This paper offers a comprehensive discussion on the applications of fractional calculus in the design and implementation of fractional-order systems in the form of electronic circuits which could be used for signal processing and control engineering applications. The article starts with the introduction to fractional calculus including some history and mathematical definitions. The second part of the article focuses on fractional-order differential equations and systems. Example circuit designs and implementation are then discussed which includes an elaboration of some papers related to this area. The final part of the article presents possible research topics in this area.
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