System dynamics model of high-power LED luminaire

Applied Thermal Engineering

Volumn 29, Issue 4, 2009, Pages 609-616

  Huang, Bin Juine ^a   Tang, Chun Wen ^a   Wu, Min Sheng ^a  

^a NATIONAL TAIWAN UNIVERSITY   (Taiwan)

Author keywords

Junction temperature; LEDs; System dynamics model; System identification

Indexed keywords

CONTROL THEORY; DYNAMICS; FIXTURES (TOOLING); LIGHTING; OPTICAL PROPERTIES; OPTICAL SYSTEMS;

BASIC SYSTEMS; CURRENT INPUTS; ENERGY EFFECTS; EXPERIMENTAL ANALYSES; FIRST ORDERS; HIGH POWERS; JUNCTION TEMPERATURE; JUNCTION TEMPERATURES; LEDS; LIGHTING CONTROLS; LUMINANCE CONTROLS; OPTICAL-; PHYSICAL EFFECTS; PHYSICAL MECHANISMS; SYSTEM DYNAMICS; SYSTEM DYNAMICS MODEL; SYSTEM DYNAMICS MODELS; SYSTEM IDENTIFICATION; THERMAL BEHAVIORS; THERMAL SYSTEMS;

IDENTIFICATION (CONTROL SYSTEMS);

EID: 56049088740     PISSN: 13594311     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.applthermaleng.2008.03.038     Document Type: Article

References (19)

1. Chhajed S., Xi Y., Li Y.-L., Gessmann Th., and Schubert E.F. Influence of junction temperature on chromaticity and color-rendering properties of trichromatic white-light sources based on light-emitting diodes. Journal of Applied Physics 97 5 (2005) 054506-054508
2. Schubert E.F. Light Emitting Diodes (2003), Cambridge University Press, Cambridge
3. Ashdown I. Neural networks for LED color control. Proceedings of SPIE 5187 (2003) 215-226
4. Muthu S., Schuurmans F., and Pashley M. Red, green, and blue LEDs for white light illumination. IEEE Journal of Selected Topics in Quantum Electronics 8 2 (2002) 333-338
5. Muthu S., and Gaines J. Red, green and blue LED-based white light source: implementation challenges and control design. 38th IAS Annual Meeting (2003) 515-522
6. Zukauskas A., Vaicekauskas R., and Ivanauskas F. Quadrichromatic white solid-state lamp with digital feedback. Proceedings of SPIE 5187 (2003) 185-198
7. Moisio O., Pajula M., Pinho P., Tetri E., Halonen L., and Sepponen R. Use of junction temperature in control of CCT in LED luminaire. CIE Midterm Meeting & León 2005 International Lighting Congress 5 (2005) 18-20
8. Deurenberg P., Hoelen C., van Meurs J., and Ansems J. Achieving color point stability in RGB multi-chip LED modules using various color control loops. Proceedings of SPIE 5941 (2005) 63-74
9. Huang B.-J., Tang C.-W., and Wu J.-H. Study of system dynamics of high-power LEDs. Proceedings of EMAP (2006) 4430673-4430676
10. Huang B.-J., Hsua P.-C., Wu M.-S., and Tang C.-W. Study of system dynamics model and control of a high-power LED lighting luminaire. Energy 32 11 (2007) 2187-2198
11. D. Eastley, Evaluating High-Power LEDs, Strategies In Light 2006, San Francisco, 2006.
12. Fraas A.P. Heat Exchanger Design. second ed. (1989), John Wiley & Sons, NY
13. Technical Data Sheet EHP-A08B-UT01-P01, High Power LED-1W, Everlight Electronics Co., LTD., website:.
14. Gray P.E., DeWitt D., and Boothroyd A.R. Physical Electronics and Circuit Models of Transistors (1964), John Wiley & Sons, NY
15. Sofia J.W. Electrical temperature measurement using semiconductors. Electronics Cooling 3 1 (1997) 22-25
16. Rake H. Step response and frequency response methods. Automatica 16 (1980) 519-526
17. Tsilingiris P.T. On the thermal time constant of structural walls. Applied Thermal Engineering 24 (2004) 743-757
18. Abdelkader H.I., Hausien H.H., and Martin J.D. Temperature rise and thermal rise-time measurement of a semiconductor laser diode. Review of Scientific Instruments 63 3 (1992) 2004-2007
19. ® III Star, Philips Lumileds Lighting Company, website:.