基于遗传算法的混合动力汽车三回路多级增量动作驱动控制器

A. Sharaf, A. El-Gammal
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引用次数: 3

摘要

针对采用四台永磁直流(PMDC)电机的混合动力全轮驱动电动汽车,提出了一种新型的自调节三环自调谐多级增量动作控制器,该控制器将电机存在的非线性加上负载惯性(J)和粘性摩擦(B)进行建模。针对高浪涌电流和电机过载情况,提出了一种三环动态误差驱动方案。除电机转速动态参考跟踪外。所提出的三环动态误差驱动自整定控制器在保证能量效率、控制环解耦、稳定性和系统高效利用的同时保持全速跟踪能力。该集成方案采用了由第一作者开发的基于FACTS的新型绿色滤波补偿器,确保稳定的直流母线电压,最小的涌流条件和阻尼负载漂移。本文提出了多目标遗传搜索算法的一种新应用,将MOGA优化用于在线调谐,以最优地调谐不同控制器的增益。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A novel GA-based tri loop multi-stage incremental action drive controller for hybrid PV-FC-Diesel-Battery electric vehicle
This paper presents a novel self regulating tri loop self tuned multi-Stage incremental action controller for a hybrid PV-FC-Diesel-Battery powered all-wheel drive electric vehicle using four Permanent Magnet DC (PMDC) motors, which are modeled to include existing nonlinearities in motor plus load inertia (J) and viscous friction (B). A Tri Loop dynamic error driven scheme is proposed to regulate motor current against high inrush currents and motor overloading conditions, in addition to motor speed dynamic reference tracking. The Proposed tri loop dynamic error driven self tuned controller is also used to ensure energy efficiency, control loop decoupling, stability and system efficient utilization while maintaining full speed tracking capability. The integrated scheme is fully stabilized using a novel FACTS based green filter compensators developed by First Author that ensures stabilized DC bus voltage, minimal inrush current conditions, and damped load excursions. The paper presents a novel application of Multi Objective Genetic search Algorithms MOGA optimization for online tuning is used to optimally tune the gains of the different controllers.
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