马来西亚纳米流体抛物线槽浓缩器的实验性能研究

A. Nahar, M.K. Islam,, Md. Hasanuzzaman
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摘要

摘要:聚光太阳能系统是一种很有潜力的太阳能热技术,其中抛物面槽聚光器(PTC)越来越受欢迎。在本研究中,进行了分析分析和实验分析。实验结果与分析结果进行了比较。考察不同操作参数的影响。采用水和水碳纳米管(w-CNT)对PTC系统的性能进行了研究。最佳集热器直径为51.80 mm,集热器效率最高。在优化过程中,发现质量流量和浓度比对热效率和除热系数有影响。研究表明,加入纳米颗粒可以改善传热。层流的换热速率优于湍流。在分析分析的基础上,对水和碳纳米管进行了实验,并与分析结果进行了比较。结果表明,出口温度每升高1℃,热增益和对水热效率分别提高0.02 kJ/s和1.6%。另一方面,对于作为HTF的W - cnt,辐照度每增加100 W/m2,热增益以0.23 kJ/s的速率增加,热效率上升约7%。研究发现,工质流量和太阳辐照度对抛物槽集热器热效率分别有负、正影响。
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Experimental Performance Investigation of a Nanofluid Based Parabolic Trough Concentrator in Malaysia
Abstract— Concentrating solar energy system is a potential solar thermal technology, wherein parabolic trough concentrators (PTC) are becoming growingly popular. In this research, both analytical and experiment analyses have been done. The experiment has compared with analytical results. to examine the effect of different operating parameters. Water and water-carbon nanotube (w-CNT) are used to explore the performance of PTC system. Optimum receiver diameter is found 51.80 mm for the maximum efficiency of the collector. During optimization, mass flow rate and concentration ratio are found to be influencing on the thermal efficiency and heat removal factor. Investigations show improvement in heat transfer for added nanoparticles. Heat transfer rate is better in laminar flow than in turbulent flow. After analytical analyses, an experiment has been done using water and carbon nanotube and compared with analytical results. Results show that for every 1oC increase in outlet temperature heat gain and thermal efficiency with water increase at the rate of 0.02 kJ/s and 1.6% respectively. On the other hand, for w-CNT as HTF, for every 100 W/m2 increase in irradiance, heat gain augments at a rate of 0.23 kJ/s and thermal efficiency upsurges by around 7%. Flow rate of working fluids and solar irradiance are found to have respective negative and positive impact on thermal efficiency of the parabolic trough collector.
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