발광형 태양광 집광기 최신 연구 동향
Recent Progress and Prospect of Luminescent Solar Concentrator
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초록
Luminescent solar concentrator (LSC), consisting of luminophore included glass or substrate with edge-mounted photovoltaic cell, is semi-transparent, energy harvesting devices. The luminophore absorbs incident solar light and re-emit photons, while the waveguide plate allows re-emitted photons to reach edge or bottom mounted photovoltaic cells with reduced losses. If the area of LSC is much larger than that of photovoltaic cell, this system can effectively concentrate solar light. In order to improve the performance of LSC, new materials and optical structures have been suggested by many research groups. For decreasing re-abosprion losses, it is essential to minimize the overlap between absorption and photoluminescence solar spectrum of luminophoroe. Moreover, the combination of selective top reflector and reflective optical cavity structure significantly boosts the waveguide efficiency in the LSC. As a result of many efforts, commercially available LSCs have been demonstrated and verified in the outdoor. Also, it is expected to generate electricity in buildings by replacing conventional glass to LSCs.
Abstract
Luminescent solar concentrator (LSC), consisting of luminophore included glass or substrate with edge-mounted photovoltaic cell, is semi-transparent, energy harvesting devices. The luminophore absorbs incident solar light and re-emit photons, while the waveguide plate allows re-emitted photons to reach edge or bottom mounted photovoltaic cells with reduced losses. If the area of LSC is much larger than that of photovoltaic cell, this system can effectively concentrate solar light. In order to improve the performance of LSC, new materials and optical structures have been suggested by many research groups. For decreasing re-abosprion losses, it is essential to minimize the overlap between absorption and photoluminescence solar spectrum of luminophoroe. Moreover, the combination of selective top reflector and reflective optical cavity structure significantly boosts the waveguide efficiency in the LSC. As a result of many efforts, commercially available LSCs have been demonstrated and verified in the outdoor. Also, it is expected to generate electricity in buildings by replacing conventional glass to LSCs.
참고문헌 (44)
- Renewables 2019, Global Status Report 2019, "REN 21", ~
- Fu, F., "High-efficiency Inverted Semi-transparent Planar Perovskite Solar Cells in Substrate Configuration", Nature Energy, 2, pp.16190~ (2016)
- Lunt, R. R., "Transparent, Near-infrared Organic Photovoltaic Solar Cells for Window and Energy-scavenging Applications", Applied Physics Letters, 98, pp.113305~ (2011)
- Bergren, M. R., "High-performance CuInS2 Quantum Dot Laminated Glass Luminescent Solar Concentrators for Windows", ACS Energy Letter, 3(3), pp.520~525 (2018)
- Corrado, C., "Power Generation Study of Luminescent Solar Concentrator Greenhouse", Journal of Renewable and Sustainable Energy, 8, pp.43502~ (2016)
- Yablonovitch, E., "Thermodynamics of the Fluorescent Planar Concentrator", Journal of Optical Society of America, 70(11), pp.1362~1363 (1980)
- Klimov, V. I., "Quality Factor of Luminescent Solar Concentrators and Practical Concentration Limits Attainable with Semiconductor Quantum Dots", ACS Photonics, 3(6), pp.1138~1148 (2016)
- Coropceanu, I., "Core", Shell Quantum Dot Based Luminescent Solar Concentrators with Reduced Reabsorption and Enhanced Efficiency, 2014, pp.14, 4097~4101
- Jeong, B. G., "Colloidal Spherical Quantum Wells with Near-unity Photoluminescence Quantum Yield and Suppressed Blinking", ACS Nano, 10, pp.9297~9305 (2016)
- Li, H, "Doctor-blade Deposition of Quantum Dots Onto Standard Window Glass for Low-loss Large-area Luminescent Solar Concentrators", Nature Energy, 1, pp.16157~ (2016)
- Meinardi, F., "Large-area Luminescent Solar Concentrators Based on ‘Stokes-shift-engineered’Nanocrystals in a Mass-polymerized PMMA Matrix", Nature Photonics, 8, pp.392~399 (2014)
- Zhao, H. G., "Absorption Enhancement in “Giant”Core", alloyed‐shell Quantum Dots for Luminescent Solar Concentrator, 2016, pp.12(38), 5354~5365
- Meinardi, F., "Highly Efficient Large-area Colourless Luminescent Solar Concentrators Using Heavy-metal-free Colloidal Quantum Dots", Nature Nanotechnology, 10, pp.878~885 (2015)
- Wu, K., "Tandem Luminescent Solar Concentrators Based on Engineered Quantum Dots", Nature Photonics, 12, pp.105~ (2018)
- Zhao, H. G., "Perovskite Quantum Dots Integrated in Large-area Luminescent Solar Concentrators", Nano Energy, 37, pp.214~223 (2017)
- Meinardi, F., "Highly Efficient Luminescent Solar Concentrators Based on Earth-abundant Indirect-bandgap Silicon Quantum Dots", Nature Photonics, 11, pp.177~185 (2017)
- Zhou, Y. F., "Colloidal Carbon Dots Based Highly Stable Luminescent Solar Concentrators", Nano Energy, 44, pp.378~387 (2018)
- Wu, J., "One-step Synthesis of Fluorescent Silicon Quantum Dots (Si-QDs) and Their Application for Cell Imaging", RSC Advances, 5(102), pp.83581~83587 (2015)
- Zhang, B., "Highly Efficient Luminescent Solar Concentrators by Selective Alignment of Donor-emitter Fluorophores", Chemistry of Materials, 31(8), pp.3001~3008 (2019)
- Slooff, L. H., "A Luminescent Solar Concentrator with 7.1% Power Conversion Efficiency", Physica Status Solidi-Rapid Research Letters, 2(6), pp.257~259 (2008)
- Chou, C. -H., "Flexible Luminescent Waveguiding Photovoltaics Exhibiting Strong Scattering Effects from the Dye Aggregation", Nano Energy, 15, pp.729~736 (2015)
- Zhao, Y., "Near-infrared Harvesting Transparent Luminescent Solar Concentrators", Advance Optical Materials, 2, pp.606~611 (2014)
- Levitt, J. A., "Materials for Luminescent Greenhouse Solar Collectors", Applied Optics, 16(10), pp.2684~2689 (1977)
- Benjamin, W. E., "Sterically Engineered Perylene Dyes for High Efficiency Oriented Fluorophore Luminescent Solar Concentrators", Chemistry of Materials, 26(3), pp.1291~1293 (2014)
- Batchelder, J., "Luminescent Solar Concentrators. 2: Experimental and Theoretical Analysis of Their Possible Efficiencies", Applied. Optics, 20, pp.3733~3754 (1980)
- Seybold, G., "New Perylene and Violanthrone Dyestuffs for Fluorescent Collectors", Dyes Pigments, 11, pp.303~317 (1989)
- Dienel, T., "Spectral-based Analysis of Thin Film Luminescent Solar Concentrators", Solar Energy, 84(4), pp.1366~1369 (2010)
- Correia, S. F. H., "High-efficiency Luminescent Solar Concentrators for Flexible Waveguiding Photovoltaics", Solar Energy Materials and Solar Cells, 138, pp.51~57 (2015)
- Polishuk, P., "Plastic Optical Fibers Branch Out", IEEE Commun. Mag., 140 (2006)
- Reisfeld, R., "New Developments in Luminescence for Solar Energy Utilization", Optical Materials, 32(9), pp.850~856 (2010)
- Slooff, L. H., "The Luminescent Concentrator Illuminated", Proceedings of SPIE, 6197, pp.1~8 (2006)
- Schrecengost, J. R., "Increasing the Area of A White Scattering Background Can Increase the Power Output of a Luminescent Solar Concentrator", Solar Energy, 170, pp.132~137 (2018)
- Song, H. -J., "Performance Limits of Luminescent Solar Concentrators Tested with Seed", Quantum-well Quantum Dots in a Selective Reflector-based Optical Cavity, 2017, pp.18, 395~404
- Xu, L., "Enhanced Photon Collection in Luminescent Solar Concentrators with Distributed Bragg Reflectors", ACS Photonics, 3(2), pp.278~285 (2016)
- Bronstein, N. D., "Quantum Dot Luminescent Concentrator Cavity Exhibiting 30-fold Concentration", ACS Photonics, 2(11), pp.1576~1583 (2015)
- Debije, M. G., "Effect on the Output of a Luminescent Solar Concentrator on Application of Organic Wavelength-selective Mirrors", Applied Optics, 49(4), pp.745~751 (2010)
- Verbunt, P. P. C., "Increased Efficiency of Luminescent Solar Concentrators After Application of Organic Wavelength Selective Mirrors", Optics Express, 20(S5), pp.A655~A668 (2012)
- Needell, D. R., "Design Criteria for Micro-optical Tandem Luminescent Solar Concentrators", IEEE Journal of Photovoltaics, 8(6), pp.1560~1567 (2018)
- Kosten, E. D., "Experimental Demonstration of Enhanced Photon Recycling in Angle-restricted GaAs Solar Cells", Energy and Environmental Science, 7, pp.1907~1912 (2014)
- Lunardi, M. M., "Lifetime Assessment of tandem LSC-Si devices", Energy, 181, pp.1~10 (2019)
- Currie, M. J., "High-Efficiency Organic Solar Concentrators for Photovoltaics", Science, 321(5886), pp.226~228 (2008)
- Kanellis, M., "The Solar Noise Barrier Project: 1. Effect of Incident Light Orientation on the Performance of a Large-scale Luminescent Solar Concentrator Noise Barrier", Renewable Energy, 103, pp.647~652 (2017)
- Lamnatou, C., "Solar Radiation Manipulations and Their Role in Greenhouse Claddings:Fluorescent Solar Concentrators, Photoselective and Other Materials", Renewable and Sustainable Energy Reviews, 27, pp.175~190 (2013)
- Vossen, F. M., "Visual Performance of Red Luminescent Solar Concentrating Windows in An Office Environment", Energy and Buildings, 113, pp.123~132 (2016)