Energy performance of partially covered N photovoltaic thermal-compound parabolic concentrator (PVT-CPC) collector for cold climate condition

R. Tripathi, S. Tiwari, G. Tiwari
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引用次数: 1

Abstract

In the paper, an attempt has taken to analyze the energy of N photovoltaic thermal (PVT)-compound parabolic concentrator (CPC) water collectors connected in series. The analysis has been examined for cold climate condition where high fossil fuels are need to get thermal energy. Two fluids has been considered: (i) water and (ii) air. The comparison has been made with two different fluids on partially covered N photovoltaic thermal-compound parabolic concentrator (PVT-CPC) collector connected in series. Here, the collector of proposed system is partially covered with 25% of PV module. The thermal modelling has been developed with basic energy balance equation of each component of proposed system. The outlet at Nth of partially covered Photovoltaic thermal (PVT)-compound parabolic concentrator (CPC) collectors has been obtained. The expression of analytical temperature dependent electrical efficiency of proposed system has been derived. The analysis has been carried out for clear day condition in month of January at Srinagar, India. The maximum thermal energy has been found 12.92 kWh and 3.72 kWh per day for fluid: water and air respectively and thermal exergy has been found 1.63 kWh and 0.55 kWh per day with eight number of collector.
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寒冷气候条件下部分覆盖N型光伏热复合抛物型聚光器(PVT-CPC)集热器的能量性能
本文对N个光伏热(PVT)-复合抛物聚光器(CPC)集热器串联的能量进行了分析。该分析已在需要大量化石燃料获得热能的寒冷气候条件下进行了检验。考虑了两种流体:(一)水和(二)空气。比较了两种不同流体对部分覆盖N型光伏热复合抛物聚光器(PVT-CPC)集热器串联的影响。在这里,拟议系统的集热器部分覆盖了25%的光伏组件。利用系统各组成部分的基本能量平衡方程建立了热模型。得到了部分覆盖光伏热(PVT)-复合抛物型聚光器(CPC)集热器第n处的出口。推导了系统的解析温度相关的电效率表达式。分析了印度斯利那加1月份的晴天情况。流体、水和空气的最大热能分别为12.92千瓦时和3.72千瓦时/天,8个集热器的最大热能分别为1.63千瓦时和0.55千瓦时/天。
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