Hybrid Cascaded Inverter-Based Integrated Hybrid Power Supply Using Nonconventional Energy Sources

S. Kayalvizhi, K. Senthil Kumar, M. Sindu, S. Muminthaj
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引用次数: 3

Abstract

In this research, a hybrid integrated topology that would work very well for applications involving distribution generation has been suggested. The Photovoltaic and Fuel Cell source are used to power the hybrid integrated topology's power supply. Photovoltaic source is utilized as the main power and runs very near to its Maximum Power Point, while the fuel cell section serves merely as a DC supply and feeds just the power that is needed to make up the difference. The integrated approach improves the overall power level that is supplied because of the presence of the fuel cell in parallel with the photovoltaic source. This may be achieved by smoothing out the voltage stress that are brought by the photovoltaic system's output. Another important characteristic is that the load may be fuelled by photovoltaic energy in any quantity, even if that quantity is relatively low. This is a feasible regardless of the size of the photovoltaic system. In addition, excess power may be sent to the electrolysis load, which results in the source of energy being used in the most effective manner possible. When converting voltages, a Hybrid Cascaded Multilevel Inverter (HCMI) topology is preferred over a conventional three phase inverter because it has the advantages of a gradual decrease in switching losses, a low total harmonic distortion, and a minimum power loss. This in comparison to the conventional three phase inverter, has none of these advantages. In addition to that, the voltages might be converted in a more effective way using this design. The suggested system has a number of desirable qualities, and the most notable are its low operational costs, its user-friendly layout, and its high level of durability.
基于混合级联逆变器的非常规能源集成混合电源
在这项研究中,提出了一种混合集成拓扑,它可以很好地用于涉及分布生成的应用。采用光伏电源和燃料电池电源为混合集成拓扑的电源供电。光伏电源被用作主电源,并在其最大功率点附近运行,而燃料电池部分仅作为直流电源,只提供弥补差额所需的功率。由于燃料电池与光伏电源并联,这种集成方法提高了所提供的总体功率水平。这可以通过平滑光伏系统输出所带来的电压应力来实现。另一个重要的特点是,负载可以由任何数量的光伏能源提供燃料,即使这个数量相对较低。这是一个无论大小的光伏系统都是可行的。此外,多余的功率可能被送到电解负载,这导致能源被以最有效的方式使用。当转换电压时,混合级联多电平逆变器(HCMI)拓扑优于传统的三相逆变器,因为它具有开关损耗逐渐降低,总谐波失真低和功耗最小的优点。这与传统的三相逆变器相比,没有这些优点。除此之外,使用这种设计可以更有效地转换电压。建议的系统有许多令人满意的品质,最值得注意的是其低操作成本、用户友好的布局和高水平的耐用性。
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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