基于 AgNP 的创新型太阳能电池板涂层和基于农田肥力优化 (FFO) 的电网系统电力提取方法

Priya Palanichamy, Rajesh Krishnasamy, Senthil Muthu Kumar Thiagamani
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引用次数: 0

摘要

在电力电子系统中,涂层太阳能电池板备受关注。拟议的工作旨在实现两个关键目标:最大功率提取和太阳能电池板涂层。为了降低太阳能电池板涂层材料的成本,首先从长春花的叶子中收集银纳米粒子(AgNPs)。这一策略旨在通过在太阳能电池板上涂覆绿色合成的银纳米粒子,实现最大功率提取。为了降低涂层材料的成本,使用长春花叶来合成银纳米粒子或 AgNPs。为了确定该框架在面板涂覆 AgNP 前后的能量测量能力,本研究对数据进行了理论分析。该研究的功率电流和电压电流特性得到了验证,从而能够检验该研究的有效性。结果表明,涂层型太阳能电池板的性能比普通太阳能电池板高出 2%。通过一种名为 "农田肥力优化--最大功率位置跟踪 "的新方法,发现了提高能源产量的精确峰值位置。双向转换器也可用于减轻压力和提高电压增益。为了改善电能质量,减少谐波,使用了三相逆变器和 LC 滤波电路。最后,使用各种性能指标来确认使用功率跟踪控制技术的涂层太阳能电池板的结果。研究结果表明,AgNP 涂层太阳能电池板可提供最佳电能,改善电压、电流和电能质量。性能评估显示,涂层太阳能电池板的功率跟踪效率提高到了 99%,谐波降低了 2.52%。
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An Innovative AgNP-based Solar Panel Coating and Farmland Fertility Optimization (FFO) based Power Extraction Methodology for Grid Systems
In the power electronic system, coated solar panels attracted a lot of interest in present times. The proposed work aims to achieve two key objectives: maximal power extraction and solar panel coating. To reduce the cost of coating material for solar panels, Silver Nano Particles (AgNPs) are first collected from the leaves of Rose periwinkle plants. This strategy aims to achieve maximal power extraction by coating solar panels with green synthesized silver nanoparticles. To reduce the cost of coating material, Rosy periwinkle plant leaves are used to synthesize silver nanoparticles or AgNPs. To ascertain the framework's capacity for measuring energy both before and after the panels are coated with AgNP, this study theoretically analyses the data. The power current and voltage-current characteristics of the study were validated, enabling an examination of the study's effectiveness. The coated type outperformed the normal solar panel by 2%, according to the results. With a new approach called Farmland Fertility Optimization – Maximum Power Position Tracking, the precise peak site for increased energy yield is discovered. The bi-directional converter is also utilized to mitigate stress and increase voltage gain. To improve the power quality with fewer harmonics, the 3-phase inverter and the LC filtering circuits are used. Finally, a variety of performance measures are used to confirm the results of coated solar panels using power-tracking control techniques. The findings suggest that AgNP-coated solar panels provide the best possible electrical energy with improved voltage, current, and power quality. Performance evaluation shows that the coated solar panel's power tracking efficiency has increased to 99% with decreased harmonics of 2.52%.
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来源期刊
Applied Science and Engineering Progress
Applied Science and Engineering Progress Engineering-Engineering (all)
CiteScore
4.70
自引率
0.00%
发文量
56
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