基于PID控制器的光伏高效高增益DC-DC升压变换器

Channa Babar Ali, Abdul Haseeb Khan, Kawish Pervez, Talat Mehmood Awan, Abdulfattah Noorwali, Syed Aziz Shah
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引用次数: 3

摘要

本文提出了一种用于低输入电压源(即光伏电池)的高增益高效率DC/DC Boost转换器的设计和仿真,该转换器可以使用比例积分导数控制器来提高整个系统的性能。通常,升压变换器以牺牲极端占空比为代价提供高增益,这在开关之间建立了高电压应力。由于这些应力,应该使用高导通状态电阻开关。本研究详细讨论了高效率高增益DC/DC升压转换器的设计,通过引入耦合电感,在不影响增益和效率的情况下,将较低的直流电压升压到较高的电压。本研究对最佳MOSFET的选择进行了比较研究,以获得高效率和高增益。因此,对几种mosfet的性能影响参数进行了研究、回顾和评估,并记录了各种mosfet的结果。因此,通过消除开关间的电压尖峰,实现高效率和高增益,并且减轻了开关应力,并且要求在负载端保持恒定的输出电压。由于负载端和源端电压的变化,变换器的输出电压有一个恒定的变化。因此,比例积分导数控制器被用来获得恒定的输出电压,而不管源或负载的变化。设计了完整的系统,并在MATLAB Simulink中进行了仿真,验证了系统的运行情况。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
High Efficiency High Gain DC-DC Boost Converter Using PID Controller for Photovoltaic Applications
The proposed paper offers designing and simulation of a high-gain and high-efficiency DC/DC Boost converter intended for voltage sources with low inputs i.e. Photovoltaic (PV) cells, which enable the use of Proportional Integral Derivative controller for improved performance of complete system. Generally, high gains are offered by boost convertor at expense of extreme duty cycle, which establishes high voltage stresses across switches. Owing to these stresses, high on-state resistance switches ought to be used. The proposed research discusses in detail the design of high efficiency and high gain DC/DC boost converter, which step up lower DC voltages to higher voltages without compromising gain and efficiency by introducing a coupled inductor. The proposed research presents a comparative study on selection of optimal MOSFET to obtain high efficiency and high gain. Thus, several MOSFETs were studied, reviewed and assessed in terms of performance affecting parameters and results of various MOSFETs have been recorded. Resultantly, high efficiency and high gain were achieved with the removal of voltage spikes across switches and switch stresses were also mitigated Moreover, It is required to maintain constant output voltage at load end. Owing to change in voltage at load and source end, there is a constant variation in converter output voltage. Thus, Proportional Integral Derivative controller is employed to attain constant output voltage regardless of variations in source or load. The complete system has been designed and subsequently simulated in MATLAB Simulink to authenticate system operation.
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