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Analysis and Control of Nonlinear Systems: A Flatness-based Approach

Jean Lévine
TLDR
In this paper, the authors focus on structural aspects and in particular on a class of systems called differentially flat, and discuss applications of this method in the fields of electric drives (DC motors and linear synchronous motors), magnetic bearings, automotive equipments, cranes, and automatic flight control systems.
Abstract
This is the first book on a hot topic in the field of control of nonlinear systems. It ranges from mathematical system theory to practical industrial control applications and addresses two fundamental questions in Systems and Control: how to plan the motion of a system and track the corresponding trajectory in presence of perturbations. It emphasizes on structural aspects and in particular on a class of systems called differentially flat. Part 1 discusses the mathematical theory and part 2 outlines applications of this method in the fields of electric drives (DC motors and linear synchronous motors), magnetic bearings, automotive equipments, cranes, and automatic flight control systems. The author offers web-based videos illustrating some dynamical aspects and case studies in simulation (Scilab and Matlab). (orig.)

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Model-free control

TL;DR: Model-free control and the corresponding ‘intelligent’ PID controllers (iPIDs), which already had many successful concrete applications, are presented here for the first time in an unified manner, where the new advances are taken into account.
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On necessary and sufficient conditions for differential flatness

TL;DR: The notion of a strongly closed ideal of differential forms is introduced, and it is proved that flatness is equivalent to the strong closedness of the latter ideal, which, in turn, is equivalents to the existence of solutions of the so-called generalized moving frame structure equations.
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Robust Adaptive Controller for a Tractor–Trailer Mobile Robot

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Linear active disturbance rejection control of underactuated systems: the case of the Furuta pendulum

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Robust Nonlinear Adaptive Control of a “Boost” Converter via Algebraic Parameter Identification

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