Simulation, design and implementation of various MPPT systems for micro cube-satellite application

Dhaval Waghulde, Nitin Kapgate, Shubham Pisal, S. Papal, Tanmay Gajare, Bhavesh Rathod, Adesh Jagtap, Aakanksha Gadagkar, A. Phanse
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引用次数: 3

Abstract

This paper discusses the Maximum Power Point Tracking (MPPT) system developed for Electrical Power System (EPS) of COEP Satellite Initiative's second satellite mission. Primary scientific objective of the mission is orbit raising using solar sails with radiation monitoring data collection. This mission has higher energy requirements as compared to first mission, Swayam, this necessitated the implementation of MPPT along with deployable solar panels. The MPPT system which connects to Li-ion battery also functions as battery monitoring and protection system (BMPS). BMPS designs are also examined. The MPPT controller controls switching of a DC-DC converter based on SEPIC topology. This topology provides flexibility in solar panel and battery pack configurations as the input can be higher or lower than output voltage making the design generic along with utilisation of all operating points. An integrated system including solar array, MPPT controller, SEPIC converter and battery pack is simulated in SIMULINK of MATLAB which facilitated tuning and optimization of critical parameters. Various algorithms considered for MPPT are evaluated in brief of which-‘Perturb and Observe (P&O)’ is discussed in detail. Design and limitations of many commercially available ICs are discussed. Various design techniques for implementing MPPT on controller have also been discussed.
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微立方体卫星应用中各种MPPT系统的仿真、设计与实现
本文讨论了COEP卫星计划第二次卫星任务电力系统(EPS)的最大功率点跟踪系统。该任务的主要科学目标是利用太阳帆提高轨道,并收集辐射监测数据。与第一次任务Swayam相比,这次任务的能源需求更高,这就需要MPPT和可展开的太阳能电池板的实施。与锂离子电池相连的MPPT系统还具有电池监测和保护系统(BMPS)的功能。对BMPS设计也进行了研究。MPPT控制器控制基于SEPIC拓扑的DC-DC变换器的开关。这种拓扑结构为太阳能电池板和电池组配置提供了灵活性,因为输入电压可以高于或低于输出电压,使设计具有通用性以及所有工作点的利用率。在MATLAB的SIMULINK中对太阳能电池阵列、MPPT控制器、SEPIC变换器和电池组的集成系统进行了仿真,实现了关键参数的整定和优化。本文简要地评估了用于MPPT的各种算法,其中详细讨论了“扰动和观察(P&O)”。讨论了许多商用集成电路的设计和局限性。本文还讨论了在控制器上实现MPPT的各种设计技术。
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