High daylighting anti-ultraviolet light conversion solar panel
A technology of anti-ultraviolet and solar panels, applied in the field of solar panels, can solve the problems of light damage to the lighting area, limitation, waste of ultraviolet light resources, etc., to reduce glare and glare, reduce transmittance, and increase uniform light effect Effect
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Embodiment 1
[0041] The high-lighting anti-ultraviolet light-transition solar panel of the present invention is manufactured according to the manufacturing method of the above-mentioned high-light daylighting anti-ultraviolet light-transition type sunlight plate. Wherein, the ratio of the ultraviolet absorbing phosphor particles to the resin is 0.05:1. The resin is acrylic (PMMA), and the ultraviolet absorbing phosphor particles are (Sr, Ba, Ca)AlSiN 3 : Eu 2+ Nitride fluorescent materials.
[0042] Making ordinary solar panels: Melt acrylic (PMMA) at 300°C, send it to a mold for extrusion molding after melting, calender, cool and shape it into the above-mentioned ordinary solar panels.
[0043] The high light-gathering anti-ultraviolet light conversion type sunlight sheet and the ordinary sunlight sheet prepared in Example 1 were respectively put into the LS103A optical transmittance measuring instrument for testing, and the test results are as follows:
[0044]
[0045] From the ab...
Embodiment 2
[0047] The high-lighting anti-ultraviolet light-transition solar panel of the present invention is manufactured according to the manufacturing method of the above-mentioned high-light daylighting anti-ultraviolet light-transition type sunlight plate. Wherein, the ratio of ultraviolet absorbing phosphor particles to resin is 0.03:1. The resin is polycarbonate (PC), and the ultraviolet absorbing fluorescent powder particles are rare earth yttrium aluminum garnet fluorescent materials.
[0048] To make ordinary solar panels: Melt polycarbonate (PC) at 300°C, add rare earth yttrium aluminum garnet fluorescent material after melting, mix the rare earth yttrium aluminum garnet fluorescent material and polycarbonate (PC) evenly, and send Extruded into a grinding tool, calendered, cooled and shaped into the above-mentioned ordinary solar panel, wherein the ratio of the rare earth yttrium aluminum garnet fluorescent material to the resin is 0.03:1.
[0049] The high light-gathering an...
Embodiment 3
[0055] The high-lighting anti-ultraviolet light-transition solar panel of the present invention is manufactured according to the manufacturing method of the above-mentioned high-light daylighting anti-ultraviolet light-transition type sunlight plate. Wherein, the ratio of ultraviolet absorbing phosphor particles to resin is 0.07:1. The resin is epoxy resin, and the ultraviolet absorbing phosphor particles are (Sr, Ba, Ca) 2 Si 5 N 8 : Eu 2+ Nitride fluorescent materials.
[0056] Making ordinary solar panels: Melt epoxy resin at 300°C, send it to a mold for extrusion molding after melting, calender, cool and shape it into the above-mentioned ordinary solar panels.
[0057] The high light-gathering anti-ultraviolet light conversion type sunlight sheet and the ordinary sunlight sheet prepared in Example 3 were respectively put into the LS103A optical transmittance measuring instrument for testing, and the test results are as follows:
[0058]
[0059] From the above test...
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Abstract
Description
Claims
Application Information
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