本論文將提出具有高容忍角的平面式日光收集器，總共分成兩部分進行設計：在集光器部分，當太陽光打入集光器後，光線經由環面鏡及拋物面反射面耦合進入導光板，再透過高折射率透鏡聚焦在導光板平坦的出光端面上；最後以複合式拋物面集光器(Compound Parabolic Collector, CPC)將聚焦的光線進一步集中；在追跡太陽光部分，採水平旋轉平台追跡太陽方位角，以移動式CPC補償太陽仰角所造成的聚焦位置變化；最終太陽能集光器模型之可對應的太陽光仰角之範圍為30°~ 90°，每日作用時長可達到8小時，且幾何集中倍率可達到250倍，在550 nm單頻光模擬結果整體平均效率為81.4%；AM1.5光源(400~900 nm)模擬整體平均效率依然達到77.5%，完成擁有高容忍角及高集中倍率的日光收集器。

This paper proposed a planar solar collector with a high tolerance angle, which was divided into two main parts for design. In the collector, the sunlight passed a Y-toroidal lens and reflected on a parabolic surface to converge for being coupled into a light guide plate (LGP). Then, the convergent light passed a lens made of high-refractive index material and focused on a flat end of the LGP. Finally, a compound parabolic collector (CPC) received the focused light for further concentration. In the solar tracker, a planar rotatory stage traced the azimuthal position of the sun, and the movable CPCs compensated for the lateral displacement of the light-focusing position resulted from the polar position of the sun.The solar concentrator model can correspond to the range of the sun's elevation angle from 30° to 90°, the daily working time can reach 8 hours, and the geometric concentration ratio can reach 250. The overall average efficiency simulated for the light source of 550 nm is 81.4%; the simulated overall average efficiency of AM1.5 light source (400~900 nm) still reaches 77.5%.

1. 太陽能發電系統簡介∼「莫博士，帶你長知識」https://www.masterchain.media/details/Vnil-m1m5.html
2. 平面聚焦式太陽能集光器http://ww2.me.ntu.edu.tw/~nec/ch/ch_e_02_1_1_4.htm
3. Roman Bader, “Optical Design of a Novel Two-Stage Solar Trough Concentrator Based on Pneumatic Polymeric Structures,” Journal of Solar Energy Engineering 131(3) (2009).
4. Samson M. Atnaw ,Che Ku Md. Faizal, Oumer Abduaziz,” Development of Solar Biomass Drying System,” MATEC Web of Conferences (2017).
5. Ahed Hameed Jaaz, H. A. Hasan, K. Sopian, A. Kadhum, T. S. Gaaz, A. Al-Amiery,” Outdoor Performance Analysis of a Photovoltaic Thermal (PVT) Collector with Jet Impingement and Compound Parabolic Concentrator (CPC),” Materials 10(8) (2017).
6. 「球形玻璃」：太陽能發電新選擇https://www.techbang.com/posts/16193-spherical-glass-the-new-choice-for-solar-power
7. J. S. Price, X. Sheng, B. M. Meulblok, J. A. Rogers, N. C. Giebink, “Wide-angle planar microtracking for quasi-static microcell concentrating photovoltaics,” Nature Communications 6, (2015).
8. Esmaeil-Hooman Banaei, Ayman F. Abouraddy,” Design of a polymer optical fiber luminescent solar concentrator,”Progress in Photovoltaics Research and Applications 23(4) (2013).
9. Maikel Hernandez,Pablo Benitez,Juan C. Miñano,Aleksandra Cvetkovic, Rubén Mohedano,” The XR nonimaging photovoltaic concentrator,” Proceedings of SPIE 6670 (2007).
10. https://www.e-education.psu.edu/eme812/node/8
11. J. Nilsson, R. Leutz, B. Karlsson, “Micro-structured reflector surfaces for a stationary asymmetric parabolic solar concentrator,” Solar Energy Materials & Solar Cells 91, 525-533 (2007).
12. J. H. Karp, E. J. T. and J. E. Ford, “Radial Coupling Method for Orthogonal Concentration within Planar Micro-Optic Solar Collectors,” Imaging and Applied Optics Congress OSA Technical Digest (CD) (Optical Society of America) (2010)
13. Jung Min Kim, Partha S. Dutta,” Optical efficiency–concentration ratio trade-off for a flat panel photovoltaic system with diffuser type concentrator,” Solar Energy Materials And Solar Cells 103 (2012).
14. Tun-Chien Teng, Chi-Hsuan Kuo, and Yun-Jhong Li,” Planar solar concentrator composed of stacked waveguides with arc-segment structures and movable receiving assemblies,” Optics express 28(23) (2020)
15. Katie Shanks n , S. Senthilarasu, Tapas K. Mallick,”Optics for concentrating photovoltaics: Trends, limits and opportunities for materials and design”
16. Renewable and Sustainable Energy Reviews 60 (2016)
17. Xinglong Ma, Hongfei Zheng, Shuli Liua, “A Review on Solar Concentrators with Multi-surface and Multielement Combinations” Journal of Daylighting 6 (2019)
18. H.I. Ikeri, Augustine Onyia. “Investigation Of Optical Characteristics Of Semiconductor Quantum Dots For Multi Junction Solar Cells Applications” International Journal of Scientific & Technology Research 10(8) 2019
19. Applications, Investigation Of Optical Characteristics Of Semiconductor Quantum Dots For Multi Junction Solar Cells