Рефлекторное освещение ФЭС на затененных фасадах зданий
https://doi.org/10.15518/isjaee.2025.09.043-056
Аннотация
Настоящее исследование предлагает метод использования зеркальных отражателей для компенсации потерь мощности в строительно-интегрированных фотоэлектрических системах (BIPV), вызванных затенением от соседних зданий. Экспериментальные и смоделированные данные выявили практически линейную зависимость между площадью затенения и снижением эффективности ФЭП: при затенении 25% поверхности модуля наблюдается свыше 20% потери производительности. Оптимальное соотношение площади зеркал к площади фотоэлектрических панелей (20-30%) обеспечивает увеличение суточной освещенности фасадов. Тогда как нижние этажи (1-6) подвержены значительным сезонным потерям, системы выше восьмого этажа остаются незатронутыми затенением. Результаты работы предлагают эффективную стратегию для минимизации влияния затенения BIPV в условиях высокой градостроительной плотности и высоких широт.
Об авторах
Лисун ЦиньРоссия
Цинь Лисун, аспирант
Екатеринбург, ул. Мира, 19
С. Е. Щеклеин
Россия
Щеклеин Сергей Евгеньевич, заведующий кафедрой «Атомные станции и возобновляемые источники энергии», профессор, доктор технических наук
Екатеринбург, ул. Мира, 19
Ю. Е. Немихин
Россия
Немихин Юрий Евгеньевич, старший преподаватель
Екатеринбург, ул. Мира, 19
Сяоюй Чэнь
Россия
Чэнь Сяоюй, аспирант
Екатеринбург, ул. Мира, 19
Список литературы
1. Xiong W. Simulation and optimization of power generation performance of photovoltaic curtain wall system under the influence of building shadow // Hunan University, 2023. DOI: 10.27135/d.cnki.ghudu.2023.000346.
2. Cao, Dai, Liu. Building energy-consumption status worldwide and the state-of-the-art technologies for zero-energy buildings during the past decade // Energy and Buildings. 2016;128: 198-213.
3. Xiang T., Liu P., Jian Q., Gou J. Quantitative analysis and countermeasures of shadow shading loss of photovoltaic modules // Plastic packaging. 2025;35(05):1-3.
4. Chen Z., Chen Z., Wang R. etc. Energy efficiency evaluation and improvement strategy of photovoltaic curtain wall buildings // Science Technology & Engineering. 2022; 22(11).
5. Wang Y., Ke S., Liu F. et al. Performance of a building-integrated photovoltaic/thermal system under frame shadows // Energy and Buildings. 2017;134: 71-79.
6. Alam N., Coors V., Zlatanova S. et al. Shadow effect on photovoltaic potentiality analysis using 3D city models // The International Archives of the Photogrammetry, Remote Sensing and Spatial Information Sciences. 2012;39: 209-214.
7. Song Z., Huang L., Dong Q. et al. Impacts of shadow conditions on solar PV array performance: A full-scale experimental and empirical study // Energy. 2025;320: 135219.
8. Chan L. S. Neighbouring shading effect on photovoltaic panel system: Its implication to green building certification scheme // Renewable Energy. 2022;188: 476-490.
9. Vulkan A., Kloog I., Dorman M. et al. Modeling the potential for PV installation in residential buildings in dense urban areas // Energy and Buildings. 2018;169: 97-109.
10. Sheng F. Research on key technologies of high-efficiency concentrated solar cells and photovoltaic systems // Hubei University of Technology. 2015.
11. Appelbaum J, Peled A, Aronescu A. Shadow Analysis of Photovoltaic Systems Deployed Near Obscuring WallsJ. Energies, 2025, 18(18): 4839.
12. Veldhuis A. J., Reinders A. H. M. E. Shadow analysis for BIPV and PIPV systems in a virtual environment. IEEE 42nd Photovoltaic Specialist Conference (PVSC) // IEEE. 2015: 1-5.
13. Piccoli E., Dama A., Dolara A. et al. Experimental validation of a model for PV systems under partial shading for building integrated applications // Solar Energy. 2019;183: 356-370.
14. Zhang X., Yuan S., Wang Q. Causes and Prevention of Photovoltaic Module Hot Spot Effect // Journal of Physics: Conference Series. IOP Publishing. 2023;2520(1): 012012.
15. Deng S., Zhang Z., Ju C. et al. Research on hot spot risk for high-efficiency solar module // Energy Procedia. 2017;130: 77-86.
16. Steim R., Choulis S. A., Schilinsky P. et al. Formation and impact of hot spots on the performance of organic photovoltaic cells // Applied Physics Letters. 2009; 94(4).
17. Cao F. Research on the design and performance of the combined system of office buildings and solar photovoltaic // Northeast Electric Power University. 2025. DOI: 10.27008/d.cnki.gdbdc.2025.000478.
18. Liu X. Research on the detection and power attenuation model of photovoltaic hot spots caused by foreign body occlusion // Northeast Electric Power University. 2025. DOI: 10.27008/d.cnki.gdbdc.2025.000328.
19. Zhang Y., Mao H. Research on thermal spot detection and degradation evaluation technology of photovoltaic modules in photovoltaic power plants // Power equipment Management. 2025; (05):67-69.
20. Hudson J., Vasilyev L., Schmidt J. et al. Economic impacts and approaches to address hot-spot defects in photovoltaic devices // 2010 35th IEEE Photovoltaic Specialists Conference. IEEE. 2010: 001706-001709.
21. Dhimish M., Mather P., Holmes V. Evaluating power loss and performance ratio of hot-spotted photovoltaic modules // IEEE Transactions on Electron Devices. 2018;65(12): 5419-5427.
22. Ebrahim M. A., Afify E. A. B., Elzawawy A. S. et al. Techno-economic strategy for mitigating Hot-Spot/ Partial shading of photovoltaic systems // Solar Energy. 2024;279: 112813.
23. Lin H., Sun X., Chen Haomin. Research on the output characteristics of large-size photovoltaic modules under local shadow // Solar energy. 2023;(03): 38-45. DOI:10.19911/j.1003-0417.tyn20220216.01.
24. Niu W. Research on the influence of shadow effect and occlusion on power generation efficiency in photovoltaic power generation system // Light source and lighting. 2024; (06):111-113.
25. Kazem H. A., Chaichan M. T., Alwaeli A. H. et al. Effect of shadows on the performance of solar photovoltaic // Mediterranean green buildings & renewable energy: Selected papers from the world renewable energy network’s med green forum. Cham: Springer International Publishing. 2016: 379-385.
26. Song Z., Huang L., Dong Q. et al. Impacts of shadow conditions on solar PV array performance: A full-scale experimental and empirical study // Energy. 2025;320: 135219.
27. Li S., Xu J., Lou J. et al. Mirror Surface Assessment in Solar Power Applications by 2-D Coded Light // IEEE Transactions on Instrumentation and Measurement. 2019;69(6): 3555-3565.
28. Silvestre S., Chouder A. Effects of shadowing on photovoltaic module performance // Progress in Photovoltaics: Research and applications. 2008;16(2): 141-149.
29. Diaz-Dorado E., Suárez-García A., Carrillo C. et al. Influence of the shadows in photovoltaic systems with different configurations of bypass diodes // SPEEDAM 2010. IEEE. 2010: 134-139.
30. Veerapen S., Wen H. Shadowing effect on the power output of a photovoltaic panel // 2016 IEEE 8th International Power Electronics and Motion Control Conference (IPEMC-ECCE Asia). IEEE. 2016: 3508-3513.
31. Sharkawi L., Hassan M. Photovoltaic systems analysis taking into consideration the shadows effect // 2015 IEEE 8th GCC Conference & Exhibition. IEEE. 2015: 1-6.
32. Bounechba H., Boussaid A., Benlabed W. M. et al. Experimental study of the shadow effect on a monocrystalline silicon photovoltaic module // Serbian Journal of Electrical Engineering. 2024;21(3): 359-373.
33. Gao Z., Jun Z. Analysis of the power generation performance of distributed photovoltaic systems considering the influence of nearby shadows // Power demand side management. 2025;27(05): 64-70.
34. Chen Z., Du G., Xie D., Shao S., Lu S. Analysis and optimization of shading loss of photovoltaic building power generation system based on BIM // China High-tech. 2025;(13): 69-71. DOI: 10.13535/j.cnki.10-1507/n.2025.13.19.
35. Ko J. S., Chung D. H. Reconfiguration of PV module considering the shadow influence of photovoltaic system // Journal of the Korean Institute of Illuminating and Electrical Installation Engineers. 2013;27(2): 36-44.
36. Shishvan S. S., Assadpour-asl S., Martinez-Paneda E. A mechanism-based gradient damage model for metallic fracture // Engineering Fracture Mechanics. 2021;255: 107927.
37. Rossi D., Omaña M., Giaffreda D. et al. Modeling and detection of hotspot in shaded photovoltaic cells // IEEE Transactions on Very Large Scale Integration (VLSI) Systems. 2014;23(6): 1031-1039.
38. Deng S., Zhang Z., Ju C. et al. Research on hot spot risk for high-efficiency solar module // Energy Procedia, 2017;130: 77-86.
39. Belhadj C. A., Banat I. H., Deriche M. A detailed analysis of photovoltaic panel hot spot phenomena based on the bishop model // 2017 14th International Multi-Conference on Systems, Signals & Devices (SSD). IEEE, 2017: 222-227.
40. Li S., Wang B., Zhang Y., Du C. Typical risk analysis of photovoltaic power plants // Solar Energy. 2024;(11): 23-30. DOI:10.19911/j.1003-0417.tyn20240226.01.
41. Marinić-Kragić I., Čabo F. G., Jurčević M. et al. Mitigation of hot-spot effect via back side cooling techniques: A potential for electrical and thermal performance improvement // Energy and buildings. 2023;288: 113010.
42. Deng K., Quan H., Wang. Analysis and treatment of branch defects of photovoltaic power plants // Rural electrification. 2024;(08): 86-89. DOI: 10.13882/j.cnki.ncdqh.2024.08.023.
43. Shi X., Yang C. Research on abnormal classification of output characteristics of photovoltaic modules // Building electrical. 2024;43(05): 62-68.
Рецензия
Для цитирования:
Цинь Л., Щеклеин С.Е., Немихин Ю.Е., Чэнь С. Рефлекторное освещение ФЭС на затененных фасадах зданий. Альтернативная энергетика и экология (ISJAEE). 2025;(9):43-56. https://doi.org/10.15518/isjaee.2025.09.043-056
For citation:
Qin L., Shcheklein S.E., Nemikhin Yu.E., Chen X. Reflective lighting of Photovoltaic (PV) systems on shaded building facades. Alternative Energy and Ecology (ISJAEE). 2025;(9):43-56. (In Russ.) https://doi.org/10.15518/isjaee.2025.09.043-056
JATS XML






























