2014
DOI: 10.1002/oca.2106
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Optimal preview control: A review

Abstract: SummaryThe field of preview control has attracted many researchers for its applications in guidance of autonomous vehicles, robotics, and process control, as this field is well suited for use in design of systems that have reference signals known a priori. The paper presents the efforts of various researchers in the field of preview control. The literature available in this field, since 1966, is categorized based on formulation, method domain, solution approach, and objective. The preview control problem is fo… Show more

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Cited by 99 publications
(81 citation statements)
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“…It is well known that every system has certain limitations or constraints that can be avoided by suitably utilizing the additional information or the preview information of the signals. Thus, the field of preview control has attracted researchers and scientists for its applications in varied areas, for instance, flight control, autonomous vehicle guidance, robotics, and signal processing . The error signal e ( k ) is defined as e()k=y()kr()k. In this paper, our objective is to design a preview control law in such a manner that the output y ( k ) tracks the reference signal r ( k ) even in the presence of model uncertainty or unknown disturbances, namely, limke()k=limk()y()kr()k=0. Consider an interconnection system consisting of S1 and S2 S1:η()k=normalT()σ()k;3.5emS2:σ()k=normalΔ()η()k, where the forward S1 is a known linear time‐invariant system with the operator T mapping σ ( k ) to η ( k ), and the feedback S2 is an unknown linear time‐varying system with the operator normalΔD={}normalΔ:normalΔ1 and η ( k ) ∈ R η , σ ( k ) ∈ R σ .…”
Section: Problem Formulation and Basic Assumptionsmentioning
confidence: 99%
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“…It is well known that every system has certain limitations or constraints that can be avoided by suitably utilizing the additional information or the preview information of the signals. Thus, the field of preview control has attracted researchers and scientists for its applications in varied areas, for instance, flight control, autonomous vehicle guidance, robotics, and signal processing . The error signal e ( k ) is defined as e()k=y()kr()k. In this paper, our objective is to design a preview control law in such a manner that the output y ( k ) tracks the reference signal r ( k ) even in the presence of model uncertainty or unknown disturbances, namely, limke()k=limk()y()kr()k=0. Consider an interconnection system consisting of S1 and S2 S1:η()k=normalT()σ()k;3.5emS2:σ()k=normalΔ()η()k, where the forward S1 is a known linear time‐invariant system with the operator T mapping σ ( k ) to η ( k ), and the feedback S2 is an unknown linear time‐varying system with the operator normalΔD={}normalΔ:normalΔ1 and η ( k ) ∈ R η , σ ( k ) ∈ R σ .…”
Section: Problem Formulation and Basic Assumptionsmentioning
confidence: 99%
“…Its current control action is obtained at each sampling instant by solving a finite‐time domain open‐loop optimal control problem . In a preview control problem, if the future information of the reference signals or the disturbances is available, then we can fully utilize the future information about reference signals or disturbances to improve the performance of the transient responses . The classical method of preview control is to construct an error system by applying the difference operator to the equation of the state and error vectors, by which the tracking control problem is transformed into a regulator problem.…”
Section: Introductionmentioning
confidence: 99%
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“…Optimal control problems have been widely studied since the 1950s, with sustained efforts to promote practical applications (e.g., ). In this section, we present the design of EPTOS control for typical servo systems characterized by an integrator cascaded with an inertia block: {ẏ=v,v̇=a·v+b·sat(u), where y is the output position (measurable), v represents the velocity signal, and u is the control input of the plant.…”
Section: Expanded Proximate Time‐optimal Servomechanism Controlmentioning
confidence: 99%
“…Its current control action is obtained at each sampling instant by solving a finite‐time domain open‐loop optimal control problem . In a preview control problem, if the future information of the reference signals or the disturbances is available, then we can fully utilize the future information about reference signals or disturbances to improve the performance of the transient responses . As it is well known, every system has certain limitations or constraints that can be avoided by suitably utilizing the additional information or the preview information of the signals.…”
Section: Introductionmentioning
confidence: 99%