Modern DC–DC Power Converter Topologies and Hybrid Control Strategies for Maximum Power Output in Sustainable Nanogrids and Picogrids—A Comprehensive Survey

Anupama Ganguly, P. Biswas, Chiranjit Sain, T. Ustun
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引用次数: 1

Abstract

Sustainable energy exhibited immense growth in the last few years. As compared to other sustainable sources, solar power is proved to be the most feasible source due to some unanticipated characteristics, such as being clean, noiseless, ecofriendly, etc. The output from the solar power is entirely unpredictable since solar power generation is dependent on the intensity of solar irradiation and solar panel temperature. Further, these parameters are weather dependent and thus intermittent in nature. To conquer intermittency, power converters play an important role in solar power generation. Generally, photovoltaic systems will eventually suffer from a decrease in energy conversion efficiency along with improper stability and intermittent properties. As a result, the maximum power point tracking (MPPT) algorithm must be incorporated to cultivate maximum power from solar power. To make solar power generation reliable, a proper control technique must be added to the DC–DC power converter topologies. Furthermore, this study reviewed the progress of the maximum power point tracking algorithm and included an in-depth discussion on modern and both unidirectional and bidirectional DC–DC power converter topologies for harvesting electric power. Lastly, for the reliability and continuity of the power demand and to allow for distributed generation, this article also established the possibility of integrating solar PV systems into nanogrids and picogrids in a sustainable environment. The outcome of this comprehensive survey would be of strong interest to the researchers, technologists, and the industry in the relevant field to carry out future research.
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可持续纳米网格和皮网格中最大功率输出的现代DC-DC功率转换器拓扑和混合控制策略综述
可持续能源在过去几年中呈现出巨大的增长。与其他可持续能源相比,太阳能被证明是最可行的能源,因为它具有一些意想不到的特性,如清洁、无噪音、环保等。太阳能的输出是完全不可预测的,因为太阳能发电取决于太阳辐射的强度和太阳能电池板的温度。此外,这些参数与天气有关,因此具有间歇性。为了克服间歇性,电源变流器在太阳能发电中起着重要的作用。通常,光伏系统最终会出现能量转换效率下降,稳定性和间歇性不佳的问题。因此,必须结合最大功率点跟踪(MPPT)算法来培养太阳能发电的最大功率。为了使太阳能发电可靠,必须在直流-直流电源变换器拓扑结构中加入适当的控制技术。此外,本研究回顾了最大功率点跟踪算法的进展,并深入讨论了用于收集电力的现代单向和双向DC-DC功率转换器拓扑结构。最后,为了电力需求的可靠性和连续性,并允许分布式发电,本文还建立了在可持续环境中将太阳能光伏系统集成到纳米网和皮网中的可能性。这项综合调查的结果将对相关领域的研究人员、技术人员和行业开展未来的研究产生浓厚的兴趣。
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