Carrier Based Synchronous control and performance analysis of an S-PSI using PV for Microgrid Applications

T. Rahman, S. Motakabber, M. Ibrahimy, A. Z. Zahirul Alam, M. Mostafa, M. W. Rahman
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引用次数: 1

Abstract

A carrier-based synchronous type single phasephase synchronous inverter (S-PSI) is proposed to develop the inverter output phase and voltage waveform. The major problem of the microgrid connected inverter is unbalanced DC supply, high switching loss, power quality and phase error. Therefore, to overcome those issues, a phase synchronous technique can perception not only conventional DC to AC inverter but also low-frequency inverter source ripple current reduction with lower switches of the inverter. However, a carrier-based synchronous PWM control technique is proposed for capable of regulating both side of the inverter input and output performance. The working performance of the S-PSI is analyzed, including steady-state behavior, efficiency, and circuit parameters. As well, the equivalence of the switching control technique and the similarity of inverter evaluate circuit parameters are exposed between this S-PSI and a traditional two-level inverter. In addition, lowpass LCL filters are utilized to convert squire wave to sine wave with same frequency and to reduce the higher harmonic distortion of the microgrid voltage. Balanced resistive load of = 11 $\Omega$ for star configuration and input DC voltage, ± 340V have assume to design the inverter. From the simulated results, the carrier-based S-PSI systems are developed the phase error of 55%, reduced 11% of THD and the conversion efficiency of 97.02%. Finally, it highly appreciated that the proposed design will improve the microgrid system.
基于载波的微电网S-PSI同步控制与性能分析
提出了一种基于载波的同步型单相同步逆变器(S-PSI),用于开发逆变器输出相位和电压波形。微并网逆变器存在的主要问题是直流供电不平衡、开关损耗大、电能质量差和相位误差大。因此,为了克服这些问题,相位同步技术不仅可以感知传统的直流逆变器到交流逆变器,而且可以感知低频逆变器源纹波电流的降低。然而,提出了一种基于载波的同步PWM控制技术,能够调节逆变器两侧的输入和输出性能。分析了S-PSI的工作性能,包括稳态行为、效率和电路参数。同时也揭示了S-PSI与传统双电平逆变器开关控制技术的等价性和逆变器评估电路参数的相似性。此外,利用低通LCL滤波器将乡绅波转换为同频率的正弦波,降低微电网电压的高次谐波畸变。均衡电阻负载= 11 $\Omega$为星型配置,输入直流电压为±340V,均假定为设计逆变器。仿真结果表明,研制的舰载S-PSI系统相位误差为55%,THD降低11%,转换效率为97.02%。最后,本文高度评价了所提出的设计方案对微电网系统的改善作用。
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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