以HOMER为支撑的菲律宾电力危机混合可再生能源系统模型

Jessie R. Balbin, John Robert T. Bautista, E. J. Manalansan, Jerome P. Tumaliuan
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引用次数: 4

摘要

电已经成为人们日常生活的一部分,也是最方便的能源形式,用于日常必需品。由于人口的增加,电力的高峰需求也在增加,因此需要更多的发电厂来提供电力。电厂停电也导致电力储备不足,导致2019年4月发布了几次黄色和红色警报。光伏和风能是现成的、无限的能源,可用于发电。采用HOMER (Hybrid Optimization of Multiple electricity Renewables)方法,以太阳能和风能为能源资源,建立模型。最有效的混合系统(光伏电池、风力涡轮机电池和光伏-风力涡轮机电池)是在三种不同类型的地形(海平面、海平面以上、海边)中确定的。在各地形下具有最低能量成本(COE)的最有效混合模型是;5.38千瓦的太阳能光伏,1千瓦的风力涡轮机,35×1千瓦时洛杉矶电池和1×2.12千瓦时转换器,海平面位置的成本为P14.95/千瓦时;5.70千瓦的太阳能光伏,1千瓦的风力涡轮机,40×1千瓦时洛杉矶电池和2.09千瓦的转换器,成本为P16.32/千瓦时在海平面以上的位置;7.65千瓦的太阳能光伏,36×1千瓦时L.A电池,2.2千瓦的转换器,海边的成本为15.50比索/千瓦时。在海边和海平面位置,光伏和电池的平均容量系数最高,分别为18.6627和17.4228,而在海平面以上位置,混合动力光伏和风力发电机组的平均容量系数为46.3348。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Hybrid Renewable Energy System Model Using HOMER as Support to the Power Crisis in the Philippines
Electricity has become a part of daily people's lives and also the most convenient form of energy to use for daily essentials. As a result of increasing population, the peak demand for power is also increasing, thus requiring more power plants to provide electricity. Power plant outages also result in thin power reserves that result in several yellow and red alert warnings in April 2019. Photovoltaic and wind sources which are readily available sources and unlimited can be used for energy generation. Using HOMER (Hybrid Optimization of Multiple Electric Renewables), models are developed using solar energy and wind energy as energy resources. The most efficient hybrid system (photovoltaic-battery, wind turbine-battery, and photovoltaic-wind turbine-battery) is determined at three different types of terrain (sea level, above sea level, seaside). The most efficient hybrid modeled which has the lowest cost of energy (COE) at each terrain are; a 5.38 kW solar PV, 1 kW wind turbine, 35×1 kWh L.A. battery, and 1×2.12 kW converter which cost P14.95/kWh for the sea-level location; a 5.70 kW solar PV, 1 kW wind turbine, 40×1 kWh L.A. battery, and 2.09 kW converter which costs P16.32/kWh for above sea-level location; and a 7.65 kW solar PV, 36×1 kWh L.A battery with a 2.2 kW converter which costs P15.50/kWh for seaside location. The capacity factor for photovoltaic and battery has the highest average capacity factor of 18.6627 and 17.4228 for seaside and sea-level location respectively, while hybrid photovoltaic and wind turbines for above sea level location at 46.3348.
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