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Focusing Solar Spectrum by Anthracene Molecules

Focusing Solar Spectrum by Anthracene Molecules
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摘要 Conventionally, each fluorophore is only clarified with the wavelength of incident beam shorter(down-conversion) or longer(up-conversion) than that of emission light. However, three anthracenes presented in this paper are the wavelength-focused(WF) molecules which can shift the portions of shorter and longer wavelengths of incident light into an identical wavelength in between. UV(ultraviolet) and NIR(near infrared) portions of Xenon light-simulated solar spectrum are focused into visible light with maximum wavelengths ranging from 415 to 471 nm through the two-way photoluminescence of the three anthracenes(anthracene(AN), fluoranthene(FLA) and 9, 10-diphenylanthracene(DPA)). At the same time, the intensity of the visible light is two times as that of excitation light. Besides, DPA dissolved in different solvents shows excellent fluorescence features. The results present great potential for applications in enhancing the intensity of solar spectrum at visible region and utilizing more portions of sunlight with solar cell. Conventionally, each fluorophore is only clarified with the wavelength of incident beam shorter(down-conversion) or longer(up-conversion) than that of emission light. However, three anthracenes presented in this paper are the wavelength-focused(WF) molecules which can shift the portions of shorter and longer wavelengths of incident light into an identical wavelength in between. UV(ultraviolet) and NIR(near infrared) portions of Xenon light-simulated solar spectrum are focused into visible light with maximum wavelengths ranging from 415 to 471 nm through the two-way photoluminescence of the three anthracenes(anthracene(AN), fluoranthene(FLA) and 9, 10-diphenylanthracene(DPA)). At the same time, the intensity of the visible light is two times as that of excitation light. Besides, DPA dissolved in different solvents shows excellent fluorescence features. The results present great potential for applications in enhancing the intensity of solar spectrum at visible region and utilizing more portions of sunlight with solar cell.
出处 《Wuhan University Journal of Natural Sciences》 CAS CSCD 2018年第5期412-417,共6页 武汉大学学报(自然科学英文版)
基金 Supported by the National Natural Science Foundation of China(21274112,21074097)
关键词 FOCUSING solar spectrum two-way conversion an-thracene focusing solar spectrum two-way conversion an-thracene
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