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A proportional-integral iterative algorithm for time-variant equality-constrained quadratic programming problem with applications
DOI:10.1007/s10462-022-10284-4.png)
摘要
En 中文
Solving the time-variant equality-constrained quadratic programming (TVECQP) problem extensively occurs in diverse applications, and thus many novel schemes have been developed, e.g., numerical algorithms and zeroing neural networks. However, few existing works consider the perturbations in a computing system which may cause inaccurate solution. To suppress the effect of perturbations, we try to employ the integral feedback control to design a new algorithm. Firstly, the control system model of the traditional algorithm, i.e., the Newton algorithm is presented. Hence, the correlation between the control system and algorithm has been established. Then, the integral control feedback is added to the system to construct the proportional-integral iterative (PII) algorithm. The PII algorithm is thus endowed with robustness against various perturbations that are proved in theory. Moreover, numerical simulations among the Newton algorithms, the zeroing neural network, and the proposed PII algorithm are performed for comparison, which verify the theoretical analyses and demonstrate the superior robustness of the PII algorithm. Finally, two applications are provided to illustrate the feasibility of the PII algorithm, where one investigating the distribution of surface water from satellite images and the other is about robotic manipulator control.
Keyword:
Time-variant quadratic programming problem
Proportion-integration feedback control
Robustness
Object extraction
Robotic manipulator control
期刊
IF:
13.9
论文数:
6.1K
被引数:
1.9W
机构
引用论文
Modified ZNN for Time-Varying Quadratic Programming With Inherent Tolerance to Noises and Its Application to Kinematic Redundancy Resolution of Robot Manipulators具有固有噪声容限的时变二次规划的修正ZNN及其在机器人运动学冗余解析中的应用
Nonconvex function activated zeroing neural network models for dynamic quadratic programming subject to equality and inequality constraints
NEUROCOMPUTING
IF6.5

