新型疏水材料在光伏电池表面应用中的发电效率优化研究
Application research of a new hydrophobic material improving photovoltaic power generation efficiency
楼正赞 1吴杰 2程良 3马春艳 4周春美5
作者信息
- 1. 中电建新能源集团股份有限公司华东分公司,浙江 杭州 310000
- 2. 浙江大学能源工程学院,浙江 杭州 310027
- 3. 衢州天华新能源有限公司,浙江 衢州 324000
- 4. 建德中电建新能源有限公司,浙江 建德 311600
- 5. 中电建(桐乡)光伏发电有限公司,浙江 桐乡 314500
- 折叠
摘要
文章通过实验研究了全氟溴化季铵盐作为新型疏水材料在光伏板表面的应用优化情况.首先,将全氟溴化季铵盐采用一定比例配制该疏水材料,对其抗菌性能进行了实验评估.通过视频光学接触角测量仪,评估了涂覆薄膜后光伏玻璃面板的接触角,结果显示水滴接触角超过 100°,表明材料具备优异的疏水性及自清洁特性.其次,对涂膜后的光老化及莫氏硬度进行测量,结果表明涂膜后光老化保持稳定,莫氏硬度提高了1 级.通过分光光度计测定薄膜的透光率和折射率,发现涂层显著提高了光伏玻璃的透光性能.最后,通过对不同区域电站的光伏面板进行比较,结果显示涂覆疏水涂层后,发电量最高提升14.6%,同时维持了良好的发电效率.这些结果表明,全氟溴化季铵盐作为疏水材料在提高光伏发电效率及延长设备寿命方面具有显著应用潜力.
Abstract
This study experimentally investigates the application and optimization of perfluorobrominated quaternary ammonium salt as a novel hydrophobic material on the surface of photovoltaic panels.Initially,the hydrophobic materi-al was formulated at a specific ratio,and its antibacterial performance was evaluated.Utilizing a video optical contact angle measuring device,the contact angle of the coated photovoltaic glass panels was assessed,revealing that the water droplet contact angle exceeded 100°,indicating excellent hydrophobicity and self-cleaning properties of the material.Furthermore,the effects of the coating on photodegradation and Mohs hardness were measured,showing that photodeg-radation remained stable after coating,while Mohs hardness increased by one level.Spectrophotometric measurements of the film's transmittance and refractive index indicated a significant improvement in the light transmittance of the photovoltaic glass.Finally,comparative analysis of photovoltaic panels across different regions demonstrated that the application of the hydrophobic coating resulted in a maximum increase in power generation of 14.6%,while maintai-ning good energy efficiency.These findings suggest that perfluorobrominated quaternary ammonium salt has significant potential for enhancing photovoltaic efficiency and prolonging the lifespan of solar energy devices.
关键词
疏水涂层/抑菌/自清洁/发电效率Key words
hydrophobic coating/antibacterial/self-cleaning/power generation efficiency引用本文复制引用
出版年
2024
NETL
NSTL
万方数据