Measured and simulated energy, economics and environmental (3E) performance of a building applied solar PV (BAPV) system using advanced open-source simulation software

Aradhana Shukla , Satish Kumar Yadav , Deepak Yadav , Jyotsna Singh , Rajendra Bahadur Singh , S.M. Mozammil Hasnain , Rustem Zairov
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Abstract

The study assesses the simulated performance of a building applied photovoltaic system using PVLIB Python simulation and compared with an existing photovoltaic system installed in north India. The performance parameters of the International Electrotechnical Commission (IEC) 61724 are used to compare measured and simulated results. The simulation results show photovoltaic module efficiency of 16.87 %, inverter efficiency of 96.52 %, system efficiency of 16.28 %, performance ratio of 88.45 %, capacity utilization factor of 21.15 %, and annual energy generation of 9253.2 kWh/year for the simulated system, which are all slightly higher compared to those measured. The economic and environmental evaluations of the building applied photovoltaic system were also compared, which confirmed its carbon reduction efficiency and sustainable development. The simulated results closely approximate the building applied photovoltaic system's on-field performance, with some short-term performance discrepancies due to weather dataset variability. The study demonstrates the potential of open-source Python library for photovoltaic system modelling as a reliable tool for optimizing advanced solar photovoltaic systems like floating, canal-top, building – integrated, and hybrid systems.
使用先进的开源仿真软件测量和模拟建筑应用太阳能光伏(BAPV)系统的能源、经济和环境(3E)性能
该研究使用PVLIB Python模拟评估了建筑应用光伏系统的模拟性能,并与印度北部安装的现有光伏系统进行了比较。使用国际电工委员会(IEC) 61724的性能参数来比较测量结果和模拟结果。仿真结果表明,仿真系统的光伏组件效率为16.87%,逆变器效率为96.52%,系统效率为16.28%,性能比为88.45%,容量利用率为21.15%,年发电量为9253.2 kWh/年,均略高于实测值。并对该建筑应用光伏系统进行了经济和环境评价,验证了该系统的减碳效果和可持续性。模拟结果与建筑应用光伏系统的现场性能非常接近,但由于天气数据的变化,存在一些短期性能差异。该研究展示了开源Python库在光伏系统建模方面的潜力,它是优化先进太阳能光伏系统(如浮动、运河顶、建筑集成和混合系统)的可靠工具。
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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