Optimization of Combined Photovoltaic with Hydrogen Production System by Electrolysis - Comparison Between Floating and Rooftop PV in Java Island

Heri Dwi Dwi Sulistyo, Arzil Harsya, Abeth Novria Sonjaya, B. Priyono
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Abstract

The most prominent element contained in this universe is Hydrogen. The energy density of nearly three times that the gasoline will become alternative energy for the future, especially for large-scale needs. Indonesia is an archipelago country where 2/3 of it is water. Water can separate the H2 and O2 elements through an electrolysis process with a purity level above 99%. Indonesia is also awarded as a tropical country where the sun shines all year round. And the electrolysis process can use this free energy to separate the Hydrogen and Oxygen. This paper will inform the results of a combination model research between photovoltaic and Hydrogen production systems to produce Hydrogen gas in a pressure cylinder every 10 m3 with the pressure is 30 bar. Simulate each model in certain areas on Java Island. Then calculate the photovoltaic models based on the hourly irradiation rate throughout 2019. The average electricity consumption required for the calculation of H2/kg production is 49 kWh. While the measures for the LCOH sensitivity analysis use 4.1-4.75 kWh/Nm3 or 46.3-52.8 kWh/kg. The Hydrogen economy is the ultimate goal from this research that the optimal model design selection with a discount rate of 10% and a lifetime of 25 years is the primary consideration. The modeling results show that the fourth model (RPV 10 MW Banjaratma) is the most optimal in producing Hydrogen in terms of CAPEX/kW, Opex/kW/year, Power Consumption, LCOH, Income, and Residual Value/kW after 25 years running.
光伏与电解制氢联合系统的优化——爪哇岛漂浮式与屋顶式光伏的比较
这个宇宙中最重要的元素是氢。能量密度接近汽油的三倍,将成为未来的替代能源,尤其适合大规模需求。印度尼西亚是一个群岛国家,三分之二的面积是水。水可以通过电解分离H2和O2元素,纯度在99%以上。印度尼西亚也被授予热带国家,那里全年阳光明媚。电解过程可以利用这种自由能来分离氢和氧。本文将介绍光伏和制氢系统之间的组合模型研究结果,该系统在压力为30 bar的压力瓶中每10 m3生产氢气。在爪哇岛的某些地区模拟每个模型。然后根据2019年全年的每小时辐照率计算光伏模型。计算H2/kg产量所需的平均用电量为49kwh。而LCOH敏感性分析的测量值为4.1-4.75 kWh/Nm3或46.3-52.8 kWh/kg。氢经济是本研究的最终目标,以折现率为10%、使用寿命为25年的最优车型设计选择为主要考虑因素。建模结果表明,第四个模型(RPV 10 MW Banjaratma)在运行25年后的CAPEX/kW, Opex/kW/年,功耗,LCOH,收入和残值/kW方面最优。
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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