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UV Solid-State Light Emitters and Detectors (NATO Science Series II: Mathematics, Physics and Chemistry, 144, Band 144) - Hardcover

Buch 88 von 241: NATO Science Series II: Mathematics, Physics and Chemistry
 
9781402020346: UV Solid-State Light Emitters and Detectors (NATO Science Series II: Mathematics, Physics and Chemistry, 144, Band 144)

Inhaltsangabe

Infrared and visible light LEDs and photodetectors have found numerous applications and have become a truly enabling technology. The promise of solid state lighting has invigorated interest in white light LEDs. Ultraviolet LEDs and solar blind photodetectors represent the next frontier in solid state emitters and hold promise for many important applications in biology, medi­ cine, dentistry, solid state lighting, displays, dense data storage, and semi­ conductor manufacturing. One of the most important applications is in sys­ tems for the identification of hazardous biological agents. Compared to UV lamps, UV LEDs have lower power consumption, a longer life, compactness, and sharper spectral lines. UV LEDs can provide a variety of UV spectra and have shape and form factor flexibility and rugged­ ness. Using conventional phosphors, UV LEDs can generate white light with high CRI and high efficiency. If quantum cutter phosphors are developed, white light generation by UV LEDs might become even more efficient. Advances in semiconductor materials and in improved light extraction techniques led to the development of a new generation of efficient and pow­ erful visible high-brightness LEDs and we expect that similar improvements will be achieved in solid-state UV technology.

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Über die Autorin bzw. den Autor

Michael S. Shsur received an MSEE (with honors) from St. Petersburg Electrotechnical Institute and a PhD in Physics and a doctor of science degree from A. F. Ioffe Institute. From 1989 to 1996, he was John Money Professor at the University of Virginia, where he served as director of the Applied ElectroPhysics Laboratory. He is currently Roberts Professor of Solid State Electronics, Professor of Physics, Professor of Information Technology, and Director of the Center for Broadband Data Transport Science and Technology at Rensselaer Polytechnic Institute.

Von der hinteren Coverseite

Infrared and visible light LEDs and photodetectors have found numerous applications and have become a truly enabling technology. The promise of solid state lighting has invigorated interest in white light LEDs. Ultraviolet LEDs and solar blind photodetectors represent the next frontier in solid state emitters and hold promise for many important applications in biology, medi­ cine, dentistry, solid state lighting, displays, dense data storage, and semi­ conductor manufacturing. One of the most important applications is in sys­ tems for the identification of hazardous biological agents. Compared to UV lamps, UV LEDs have lower power consumption, a longer life, compactness, and sharper spectral lines. UV LEDs can provide a variety of UV spectra and have shape and form factor flexibility and rugged­ ness. Using conventional phosphors, UV LEDs can generate white light with high CRI and high efficiency. If quantum cutter phosphors are developed, white light generation by UV LEDs might become even more efficient. Advances in semiconductor materials and in improved light extraction techniques led to the development of a new generation of efficient and pow­ erful visible high-brightness LEDs and we expect that similar improvements will be achieved in solid-state UV technology.

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