非线性系统辨识与控制的神经模糊方法

M. Efe, O. Kaynak
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引用次数: 5

摘要

神经网络和模糊推理系统正在成为设计能够感知操作环境和高性能模仿人类操作员的标识符/控制器的公认工具。使用神经模糊方法背后的动机是基于现实生活系统的复杂性,感官信息的模糊性或所调查系统的时变性质。在这方面,神经模糊设计方法结合了专家的架构(通过神经网络)和哲学(通过模糊系统)方面,从而产生了一个人工大脑,它可以用作标识符或控制器。众所周知,模糊推理系统和神经网络都是通用逼近器。具有适当学习策略的体系结构可以将任何映射教到具有预定义实现误差范围的系统。在使用神经模糊体系结构时,最值得怀疑的质量是稳定训练。本教程考虑了各种神经模糊结构和基于梯度的训练程序。同时考虑了训练动态的稳定性。
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Neuro-fuzzy approaches for identification and control of nonlinear systems
Neural networks and fuzzy inference systems are becoming well recognized tools of designing an identifier/controller capable of perceiving the operating environment and imitating human operator with high performance. The motivation behind the use of neuro-fuzzy approaches is based on the complexity of real life systems, ambiguities on sensory information or time varying nature of the system under investigation. In this respect, neuro-fuzzy design approaches combine architectural (by neural networks) and philosophical (by fuzzy systems) aspects of an expert resulting in an artificial brain, which can be used as an identifier or a controller. It is known that the fuzzy inference systems and neural networks are universal approximators. An architecture with an appropriate learning strategy can teach any mapping to such a system with a predefined realization error bound. The most questionable quality in the use of neuro-fuzzy architectures is the stable training. This tutorial considers various neuro-fuzzy structures and gradient based training procedures. Consideration is given to stabilization of training dynamics.
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