用于提高电力输出和热水生产的前玻璃罩光伏-热能混合系统的设计与性能评估

Abhay Vijay Kotkondawar , Kushagra Gabhane , Sadhana Rayalu
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引用次数: 0

摘要

对光伏组件的热管理进行了概念验证,以同时提高电气和热效率。它是通过设计受控开环水基混合 PV-T 系统实现的,并在自然太阳条件下对 150 瓦光伏板进行了热管理演示。在这个集成式前玻璃罩光伏-热混合(IFG-PV-T)系统中,光伏板被夹在前玻璃和后铝集热器之间,而不会对现有面板造成任何永久性改变。源水箱的水流由带有热电偶的自动电磁阀组件控制。电磁阀的工作温度固定在 40°C,以将光伏表面温度控制在最佳范围内,从而减轻对电压和电流输出的不利影响。前玻璃箱中的水层厚度经过优化,可最大限度地过滤红外线辐射,而集热器的钢化玻璃功能则可在超级安全的情况下实现最大透光率。对 IFG-PV-T 系统的性能进行了评估,包括开路电压、短路电流、最大功率输出、一周自然日照下的电效率和热效率。实验研究表明,与传统光伏板相比,IFG-PV-T 系统的开路电压提高了 16.1%。电压的增加可归因于前玻璃集热器和电磁阀在 40oC 温度下工作的协同作用,该作用可调节光伏表面温度并提高电流输出。与传统光伏板相比,这些因素改善了 IFG-PV-T 的电气效率。平均热效率为 39.4%,其中 IFG-PV-T 系统每天可提供 100 升热水(38-41 °C)。目前的受控环路运行系统和集热器配置证明了其对电力增量的重要性,同时还能提供适度的热水,可用于任何家庭或商业应用。
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Design and performance evaluation of Front glass-covered photovoltaics-thermal hybrid system for enhanced electrical output and hot water production

Proof of concept is established for the thermal management of PV modules for the simultaneous benefit of electrical and thermal efficiency. It was achieved by designing the controlled open-loop water-based hybrid PV-T system and demonstrated for thermal management of 150W photovoltaic panel at natural solar conditions. In this integrated front glass-covered PV-T hybrid (IFG-PV-T) system, the PV panel is clipped between the front glass and rear aluminium collector without causing any permanent changes in the existing panel. The flow of water from the source tank is controlled by automated solenoid valve assembly coupled with thermocouples. The solenoid operational temperature is fixed at 40°C to controlled the PV surface temperature at an optimum range to mitigate the adverse effect on voltage and current output. The water layer thickness in the front glass box is optimized to filter the maximum infrared radiations and the collector's toughened glass feature allows the maximum light transmittance with super safety. The performance of the IFG-PV-T system has been evaluated in terms of variation in open circuit voltage, short circuit current, maximum power output, electric and thermal efficiency under the natural solar insolation for a week. Experimental investigations revealed that the open-circuit voltage is increased by ∼16.1 % with IFG-PV-T as compared to conventional PV panel. The increment can be attributed to the synergy of the front glass collector and solenoid valve operation at 40oC that regulates PV surface temperature and boost the current output. These factors have ameliorated the electrical efficiency of IFG-PV-T compared to conventional PV panel. The average thermal efficiency was 39.4 ​% wherein the IFG-PV-T system provides ∼100 ​L of hot water (38–41 ​°C) per day. The present controlled loop operation system and collector configuration have proven their significance for electrical power increment and concomitantly able to deliver moderate hot water which can be useful for any household or commercial application.

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