设计具有工作流体温度和压力测量功能的太阳能集热器原型,用于能量收集

A’rasy Fahruddin, Mochammad Sandi Al Amien, P. H. Tjahjanti, I. Anshory
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摘要

印度尼西亚是一个热带国家,每年日照充足。从太阳热中收集能量是获得可再生环保电能的另一种解决方案。本研究的目的是设计和测试太阳能集热器工作流体的温度和流量,以收集能量。所采用的方法是通过制作太阳能集热器原型进行真正的实验研究。在测试中,通过改变加热灯的功率来替代太阳光,从而测量工作流体的温度和压力。实验结果表明,太阳能集热器接收的热能越大,工作流体的温度就越高,在同一测试中产生的压力也越大。从太阳能集热器流出的液体最高温度达到 63.6 摄氏度,最大压力差为 19.6 帕斯卡。测试结果将用于测试工作流体的流速,以确定工作流体收集能量的功率潜力。 亮点: 提高效率:优化太阳能集热器设计,提高热能吸收和能量转换效率。 温度-压力相关性:研究热能、工作流体温度和压力之间的关系,以提高能量产出。 流速分析:评估工作流体流量,以衡量能量潜力,并为有效的能量收集策略提供依据。 关键词: 太阳能集热器、温度、流体压力、能量收集
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Design of Solar Collector Prototype with Working Fluid Temperature and Pressure Measurement for Energy Harvesting
Indonesia is a tropical country, which gets a lot of sunshine every year. Harvesting energy from solar heat is an alternative solution to obtain renewable and environmentally friendly electrical energy. The purpose of this research is to design and test the temperature and flow of the working fluid of a solar collector for energy harvesting. The method used is true experiment research by making a solar collector prototype. Measurement of the temperature and pressure of the working fluid is carried out by varying the power of the heating lamp as a substitute for sunlight in the test. The experimental results show that the greater the heat energy received by the solar collector, the higher the temperature of the working fluid and the resulting pressure during the same test. The highest temperature recorded for the liquid coming out of the solar collector reaches 63.6 oC with a maximum pressure difference of 19.6 Pascals. The results of this test will be followed by testing the flow rate of the working fluid to determine the power potential of the working fluid for harvesting energy. Highlights: Efficiency Enhancement: Optimizing solar collector design for increased heat energy absorption and efficient energy conversion. Temperature-Pressure Correlation: Investigating the relationship between heat energy, working fluid temperature, and pressure for better energy yield. Flow Rate Analysis: Assessing working fluid flow to gauge energy potential and inform effective energy harvesting strategies. Keywords: solar collector, temperature, fluid pressure, energy harvesting
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