Acta Photonica Sinica, Volume. 54, Issue 4, 0422002(2025)
High-power 2
[1] TIAN Chunjun, ZHANG Xiyan, ZOU Jun et al. The impact of temperature on the optoelectronic parameters of high-power LED lighting systems[J]. Journal of Luminescence, 31, 96-100(2010).
[2] PIMPUTKAR S, SPECK J S, DENBAARS S P et al. Prospects for LED lighting[J]. Natutre Photonics, 3, 180-182(2009).
[3] LI Jinmin, LIU Zhiqiang, WEI Tongbo et al. Development summary of semiconductor lighting in China[J]. Acta Optica Sinica, 41, 0116002(2021).
[4] LIU Hui, LIN Yandong, ZHAO Weiqiang et al. Status and demand analysis of LED standard lamps[J]. Metrology Science and Technology, 65, 60-64(2021).
[5] OHNO Y, NARA K, REVTOVA H et al. Solid state lighting annex[J]. Interlaboratory Comparison Final Report, 29, 32-34(2013).
[6] GERLOFF T C, SCHRADER J. Luminous intensity comparison based on new standard lamps with LED reference spectrum[J]. International Commission on Illumination, 32, 41-46(2019).
[7] IVASHIN E, OGAREV S, KHLEVNOY B et al. High power LED standard light sources for photometric applications[J]. Journal of Physics-Conference Series, 972, 012009(2018).
[8] ZONG Y, ZHAO W, MOLLER C et al. Standard LEDs with supe-rior long-term stability[C], 10, 28-30(2019).
[9] NKAZAWA Y, GODO K, NIWAL K et al. Development of LED-based standard source for total luminous flux calibration[J]. Lighting Research and Technology, 51, 870-882(2019).
[10] ZWINKELS J C. CCPR activities related to LED-based calibration standards CIE[J]. Lighting Quality & Energy Efficiency, 157-165(2016).
[12] MAURER M J. Relaxation model for heat conduction in metals[J]. Journal of Applied Physics, 40, 5123-5130(1969).
[13] ZHENG Min, Lei WEU, CHEN Jing et al. Surface morphology evolution during pulsed select-vie laser melting: numerical and experimental investigations[J]. Applied Surface Science, 496, 143649(2019).
[14] BLEBIN W R, BROWN W J. A precise measurement of the Stefan-Boltzmann cons-tan[J]. Metrologia, 7, 15-29(1971).
[19] ZHAO Weiqiang, YAN Jinyun, LIU Hui et al. Measurement of temperature coefficient of LED filament standard lamp[J]. Measurement Science and Technology, 65, 46-49(2021).
[20] PARK S, KIM Y, LEE D et al. Preparation of a standard light emitting diode (LED) for photometric measurements by functional seasoning[J]. Metrologia, 299-305(2006).
[21] ZHOU Taiming[M]. Optical principle design, 408-409(2009).
[22] WEN Huaijiang. Research on LED die temperature measurement methods[D](2010).
[23] HOU Rui. Research on key technologies of multi-characteristic parameters integrated measurement system of high power LED[D](2021).
[24] LI Yi, ZHANG Heng, DUAN Wenrui et al. Impact of ambient temperature on average luminous intensity of LED (invited)[J]. Acta Photonica Sinica, 51, 1012003(2022).
[25] DOMINIK B. Hankel transform, K-Bessel functions and zeta distributions in the Dunkl setting[J]. Journal of Mathematical Analysis and Applications, 535, 128125(2024).
[26] MATSUMURA H. Quadrature formulas for Bessel polynomials[J]. Iinventiones Mathematicae, 34, 622-636(2023).
[27] ZSELLER V, SAMU K. Metaheuristic of arbitrary luminous intensity distribution for roadway lighting luminaires[J]. International Journal of Simulation Modelling, 22, 369-380(2023).
[28] CIE[S](2015).
Get Citation
Copy Citation Text
Wenrui DUAN, Yi LI, Yang BAI, Limin WEI, Xiaoying ZHANG, Peng ZANG, Heng ZHANG, Yingxin ZHANG, Ken CHENG. High-power 2
Category: Optical Design and Fabrication
Received: Oct. 9, 2024
Accepted: Dec. 10, 2024
Published Online: May. 15, 2025
The Author Email: Yi LI (ly13772065511@163.com)