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设计及新型光伏水泵系统仿真的动态评估,采用 DS1104 硬件设置:走向绿色能源系统的创新。

Design, and dynamic evaluation of a novel photovoltaic pumping system emulation with DS1104 hardware setup: Towards innovative in green energy systems.

机构信息

LSPIE Laboratory, Mostefa Ben Boulaid, University of Batna 2, Boukhlouf, Algeria.

University of Khenchela, El-Hamma, Khenchela, Algeria.

出版信息

PLoS One. 2024 Oct 7;19(10):e0308212. doi: 10.1371/journal.pone.0308212. eCollection 2024.

Abstract

Diesel engines (DEs) commonly power pumps used in agricultural and grassland irrigation. However, relying on unpredictable and costly fuel sources for DEs pose's challenges related to availability, reliability, maintenance, and lifespan. Addressing these environmental concerns, this study introduces an emulation approach for photovoltaic (PV) water pumping (WP) systems. Emulation offers a promising alternative due to financial constraints, spatial limitations, and climate dependency in full-scale systems. The proposed setup includes three key elements: a PV system emulator employing back converter control to replicate PV panel characteristics, a boost converter with an MPPT algorithm for efficient power tracking across diverse conditions, and a motor pump (MP) emulator integrating an induction motor connected to a DC generator to simulate water pump behaviors. Precise induction motor control is achieved through a controlled inverter. This work innovatively combines PV and WP emulation while optimizing system dynamics, aiming to develop a comprehensive emulator and evaluate an enhanced control algorithm. An optimized scalar control strategy regulates the water MP, demonstrated through MATLAB/Simulink simulations that highlight superior performance and responsiveness to solar irradiation variations compared to conventional MPPT techniques. Experimental validation using the dSPACE control desk DS1104 confirms the emulator's ability to faithfully reproduce genuine solar panel characteristics.

摘要

柴油机(DEs)通常为农业和草原灌溉用泵提供动力。然而,依赖于不可预测且昂贵的燃料来源会给 DEs 带来可用性、可靠性、维护和寿命方面的挑战。为了解决这些环境问题,本研究引入了一种用于光伏(PV)水泵(WP)系统的仿真方法。由于经济限制、空间限制和全规模系统的气候依赖性,仿真提供了一种很有前途的替代方案。该方案包括三个关键要素:一个采用后级转换器控制的 PV 系统仿真器,用于复制 PV 板的特性;一个带有最大功率点跟踪(MPPT)算法的升压转换器,用于在不同条件下实现高效的功率跟踪;以及一个集成感应电动机和直流发电机的水电动机(MP)仿真器,用于模拟水泵的行为。通过受控逆变器实现对感应电动机的精确控制。本工作创新性地结合了 PV 和 WP 仿真,同时优化了系统动态,旨在开发一种综合仿真器并评估增强的控制算法。优化的标量控制策略调节水 MP,通过 MATLAB/Simulink 仿真进行演示,与传统的 MPPT 技术相比,该策略具有更好的性能和对太阳辐照度变化的响应能力。使用 dSPACE 控制台 DS1104 进行的实验验证证实了仿真器能够真实地再现真实的太阳能电池板特性。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/a7fa/11458027/cf5bd01970ee/pone.0308212.g001.jpg

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