Perovskite photovoltaic composite material used for 3D printing and forming, and preparation method
A composite material, 3D printing technology, applied in photovoltaic power generation, semiconductor/solid-state device manufacturing, electrical components, etc., can solve the problems of powder adhesion, powder particle size distribution, sphericity and fluidity defects, and achieve particle size distribution Narrow, adhesion enhancement, visible light absorption enhancement effect
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Embodiment 1
[0029] 1) Mix lead halide, methylamine halide, calcium oxide, copper oxide, titanium oxide, and bismuth trioxide into the grinder according to the mass 5:4:1:0.5:0.5:0.2, and mix with complexing agent ethylenediaminetetra Acetic acid is fully ground for 15 minutes, and the amount of complexing agent is 3% of the total mass of lead halide, methylamine halide, calcium oxide, copper oxide, titanium oxide, and bismuth trioxide to be ground;
[0030] 2) heating, evaporating to dryness and burning the material obtained in step 1) to powder at 200-250°C;
[0031] 3) Mix the powder obtained in step 2) with colloidal gum arabic at a mass ratio of 20:1 and send it to a colloid mill for grinding for 20 minutes, grind under liquid nitrogen cooling conditions to coat the surface of the powder with a layer of colloid, and form a colloid by grinding and dispersing The coated nano-titanium photovoltaic composite material has an average particle size of 10nm.
[0032] The nanoscale titanium o...
Embodiment 2
[0036] 1) Mix lead halide, methylamine halide, calcium oxide, copper oxide, titanium oxide, and bismuth trioxide into the grinder according to the mass of 6:4:0.8:0.6:0.5:0.3, and fully mix with complexing agent citric acid Grinding for 25 minutes, the amount of complexing agent is 2% of the total mass of lead halide, methylamine halide, calcium oxide, copper oxide, titanium oxide and bismuth trioxide to be ground;
[0037] 2) heating, evaporating to dryness and burning the material obtained in step 1) to powder at 200-250°C;
[0038]3) Mix the powder obtained in step 2) with colloidal sodium alginate at a mass ratio of 25:1 and send it to a colloid mill for grinding for 15 minutes, and grind under liquid nitrogen cooling conditions to coat the surface of the powder with a layer of colloid, which is formed by grinding and dispersing Colloid-coated nano-titanium photovoltaic composite material with an average particle size of 10nm.
[0039] The nanoscale titanium ore photovolt...
Embodiment 3
[0043] 1) Mix lead halide, methylamine halide, calcium oxide, copper oxide, titanium oxide, and bismuth trioxide into the grinding machine according to the mass of 5:5:0.5:0.8:0.6:0.4, and mix with complexing agent ethylenediaminetetra Acetic acid is fully ground for 20 minutes, and the amount of complexing agent is 2% of the total mass of lead halide, methylamine halide, calcium oxide, copper oxide, titanium oxide, and bismuth trioxide to be ground;
[0044] 2) heating, evaporating to dryness and burning the material obtained in step 1) to powder at 200-250°C;
[0045] 3) Mix the powder obtained in step 2) with colloidal bone powder at a mass ratio of 20:1 and send it to a colloid mill for grinding for 30 minutes, and grind under liquid nitrogen cooling conditions to coat the surface of the powder with a layer of colloid, and disperse through grinding to form a colloid-coated Coated nano-titanium photovoltaic composite material with an average particle size of 10nm.
[0046]...
PUM
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