The invention relates to a red-blue-light
glass ceramic light conversion component. The component comprises a first blue fluorescent
glass ceramic body and a second red fluorescent
glass ceramic body,wherein the first blue fluorescent glass
ceramic body is formed in the way that blue fluorescent
powder and
phosphate glass
powder are mutually mixed and subjected to melting and solidification; theblue fluorescent
powder is selected from one or more of a fluorescent material with a molecular formula of BaMgAl<10>O<17>:Eu<2+>, a fluorescent material with a molecular formula of CaF<2>:Eu<2+> anda fluorescent material with a molecular formula of CaAl<2>O<4>:Eu<2+>; the second red fluorescent
ceramic body is formed in the way that red fluorescent powder and
phosphate glass powder are mutuallymixed and subjected to melting and solidification; the red fluorescent powder is selected from one or more of a fluorescent material with a molecular formula of CaAlSiN<3>:Eu<2+>, a fluorescent material with a molecular formula of Y<3>Al<5>O<12>:Mn<4+> and a fluorescent material with a molecular formula of 3.5MgO.0.5MgF<2>.GeO<2>:Mn<4+>; and the first blue fluorescent glass
ceramic body and the second red fluorescent glass ceramic body are mutually spliced to form the red-blue-light glass ceramic light conversion component. The red-blue-light glass ceramic light conversion component can adaptto a near-
ultraviolet LED
chip to emit
blue light with
wavelength ranging from 400nm to 500nm and
red light with
wavelength ranging from 580nm to 780nm; and the peak width at half height of a spectrumof the
blue light is up to 50nm, so that the requirement of
plant growth is better met, light emitting efficiency is higher, and
light quality is easier to adjust.