Phosphors with a 660-nm-featured emission for LED/LD lighting in horticulture

Dajian Wang; Zhiyong Mao; B. D. Fahlman

doi:10.1007/978-981-10-1590-8_3

Phosphors with a 660-nm-featured emission for LED/LD lighting in horticulture

Dajian Wang, Zhiyong Mao, B. D. Fahlman

Research output: Chapter in Book/Report/Conference proceeding › Chapter › peer-review

1 Scopus citations

Abstract

Photosynthetically active radiation (PAR) of lighting sources is a prerequisite to match well with the absorption spectrum of photoreceptors in plants. Light-emitting diodes (LED) or laser diodes (LD) or its combination with phosphor can be used to construct the 660-nm-featured simultaneous emission of both red and blue light for PAR. A variety of rare earth (RE) ion-doped phosphors such as nitride, silicate, sulfide allow a 660-nm-peaked broadband emission with proper composition and preparation, as illustrated by a highly efficient A₃MgSi₂O₈ (AMS, A = Ba, Sr, Ca) phosphor with a dual band emission at both 660 and 430 nm. These phosphors are excitable by sunlight, near ultraviolet (NUV), blue LED, or LD light sources as applied in the forms of particle, film, or transparent ceramics, providing a great potential to construct the artificial lighting sources in the closed, open, or their combined cultivation system with a customized, precise composition of light to achieve high photosynthetic efficiency.

Original language	English
Title of host publication	Phosphors, Up Conversion Nano Particles, Quantum Dots and Their Applications
Publisher	Springer Singapore
Pages	83-117
Number of pages	35
Volume	2
ISBN (Electronic)	9789811015908
ISBN (Print)	9789811015892
DOIs	https://doi.org/10.1007/978-981-10-1590-8_3
State	Published - Jan 1 2016

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abstract = "Photosynthetically active radiation (PAR) of lighting sources is a prerequisite to match well with the absorption spectrum of photoreceptors in plants. Light-emitting diodes (LED) or laser diodes (LD) or its combination with phosphor can be used to construct the 660-nm-featured simultaneous emission of both red and blue light for PAR. A variety of rare earth (RE) ion-doped phosphors such as nitride, silicate, sulfide allow a 660-nm-peaked broadband emission with proper composition and preparation, as illustrated by a highly efficient A3MgSi2O8 (AMS, A = Ba, Sr, Ca) phosphor with a dual band emission at both 660 and 430 nm. These phosphors are excitable by sunlight, near ultraviolet (NUV), blue LED, or LD light sources as applied in the forms of particle, film, or transparent ceramics, providing a great potential to construct the artificial lighting sources in the closed, open, or their combined cultivation system with a customized, precise composition of light to achieve high photosynthetic efficiency.",

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N2 - Photosynthetically active radiation (PAR) of lighting sources is a prerequisite to match well with the absorption spectrum of photoreceptors in plants. Light-emitting diodes (LED) or laser diodes (LD) or its combination with phosphor can be used to construct the 660-nm-featured simultaneous emission of both red and blue light for PAR. A variety of rare earth (RE) ion-doped phosphors such as nitride, silicate, sulfide allow a 660-nm-peaked broadband emission with proper composition and preparation, as illustrated by a highly efficient A3MgSi2O8 (AMS, A = Ba, Sr, Ca) phosphor with a dual band emission at both 660 and 430 nm. These phosphors are excitable by sunlight, near ultraviolet (NUV), blue LED, or LD light sources as applied in the forms of particle, film, or transparent ceramics, providing a great potential to construct the artificial lighting sources in the closed, open, or their combined cultivation system with a customized, precise composition of light to achieve high photosynthetic efficiency.

AB - Photosynthetically active radiation (PAR) of lighting sources is a prerequisite to match well with the absorption spectrum of photoreceptors in plants. Light-emitting diodes (LED) or laser diodes (LD) or its combination with phosphor can be used to construct the 660-nm-featured simultaneous emission of both red and blue light for PAR. A variety of rare earth (RE) ion-doped phosphors such as nitride, silicate, sulfide allow a 660-nm-peaked broadband emission with proper composition and preparation, as illustrated by a highly efficient A3MgSi2O8 (AMS, A = Ba, Sr, Ca) phosphor with a dual band emission at both 660 and 430 nm. These phosphors are excitable by sunlight, near ultraviolet (NUV), blue LED, or LD light sources as applied in the forms of particle, film, or transparent ceramics, providing a great potential to construct the artificial lighting sources in the closed, open, or their combined cultivation system with a customized, precise composition of light to achieve high photosynthetic efficiency.

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Phosphors with a 660-nm-featured emission for LED/LD lighting in horticulture

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