Solar Powered Higher Order Sliding-Mode Observer-Based Sensorless Synchronous Reluctance Motor Drive for Water Pumping and EV Battery Charging System

IF 4.9
Sushant Kumar;Shailendra Kumar;Bhim Singh;Shashank Kurm;Hina Parveen
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Abstract

This article presents an innovative approach comprising coordinated subsystems for battery charging and water pumping within an agri-voltaic framework. The system is designed to improve efficiency and sustainability of agricultural operations by effectively utilizing solar photovoltaic (PV) energy. In this setup, PV array is integrated into agricultural land, enabling renewable energy generation without affecting crop production. Generated solar power is intelligently managed to serve two key functions: charging electric vehicle (EV) batteries and powering a water pump for irrigation. To ensure maximum energy extraction, an incremental-conductance-based maximum power point tracking (MPPT) algorithm is employed. A bidirectional dc–dc converter is used to regulate energy flow for EV battery charging. For water pumping subsystem, a synchronous reluctance motor drive (SyRMD) is controlled using a sensorless field-oriented control (FOC) strategy. For FOC of SyRMD, reference quadrature-axis currents are determined based on both the pump characteristics and available PV power. The rotor position required for sensorless control is estimated using a full-order sliding-mode observer integrated with a mixed second-third order generalized integrator-based phase-locked loop. Finally, performance of the proposed system is validated through experimental testing on a laboratory-scale prototype under varying solar irradiance conditions.
基于观测器的太阳能高阶滑模无传感器同步磁阻电机驱动水泵和电动汽车电池充电系统
本文提出了一种创新的方法,包括农业光伏框架内电池充电和抽水的协调子系统。该系统旨在通过有效利用太阳能光伏(PV)能源来提高农业经营的效率和可持续性。在这种设置中,光伏阵列集成到农业用地中,在不影响作物生产的情况下实现可再生能源发电。产生的太阳能被智能管理为两个关键功能:为电动汽车(EV)电池充电和为灌溉水泵供电。为了保证最大能量提取,采用了基于增量电导的最大功率点跟踪算法。采用双向dc-dc变换器调节电动汽车电池充电时的能量流。对于水泵子系统,采用无传感器磁场定向控制(FOC)策略控制同步磁阻电机驱动(SyRMD)。对于SyRMD的FOC,参考正交轴电流是根据泵的特性和可用PV功率确定的。利用全阶滑模观测器和混合二、三阶广义积分器锁相环对无传感器控制所需的转子位置进行估计。最后,通过在不同太阳辐照度条件下的实验室规模原型上的实验测试验证了所提出系统的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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