TiCN-based high-temperature-resisting solar energy selective absorbing coating
An absorbing coating and selective technology, applied in the coating, metal material coating process, ion implantation plating, etc., can solve the problems of low divergence rate, high temperature and other problems, achieve low cost and improve oxidation resistance Performance, the effect of increasing the service life
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Embodiment 1
[0029] According to the solar energy selective absorbing coating that a kind of parameter among them of the experimental procedure of concrete implementation comes out, wherein TiCN absorbing layer thickness is 80nm, Al 2 o 3 The thickness of the anti-reflection layer is 80nm. According to the above preparation method, it is very possible to solve the problem of short life of the heat collector in a high temperature environment. The solar selective absorption coating of the present invention starts from the selection of materials to the design of the structure to solve practical problems. The specific oxidation steps are as follows:
[0030] (1) Place the above-mentioned solar selective absorbing coating in the middle of the tubular muffle furnace to keep the atmospheric state.
[0031] (2) According to the structure and properties of the solar selective absorbing coating described above, the heating rate was set at 3°C / min, the temperature was raised to 500°C, and kept for ...
Embodiment 2
[0035] According to the solar energy selective absorption coating obtained according to the experimental procedure of specific implementation, wherein the thickness of the TiCN absorption layer is 90nm, Al 2 o 3The thickness of the anti-reflection layer is 100nm. According to the above preparation method, it is very possible to solve the problem of short service life of the heat collector in a high temperature environment. The specific oxidation steps are as follows:
[0036] (1) Place the above-mentioned solar selective absorbing coating in the middle of the tubular muffle furnace to keep the atmospheric state.
[0037] (2) According to the structure and properties of the solar selective absorbing coating described above, the heating rate was set at 3°C / min, the temperature was raised to 600°C, and kept for 2h.
[0038] (3) After 2h annealing, the cooling rate is 5°C / min to cool down to room temperature.
[0039] In this implementation case, the performance test of the co...
Embodiment 3
[0041] The solar energy selective absorbing coating obtained according to the specific experimental steps, wherein the thickness of the TiCN absorbing layer is 80nm, and the thickness of the AlON anti-reflection layer is 120nm. According to the above preparation method, it is very possible to solve the problem of short service life of the heat collector in a high temperature environment. The specific oxidation steps are as follows:
[0042] (1) Place the above-mentioned solar selective absorbing coating in the middle of the tubular muffle furnace to keep the atmospheric state.
[0043] (2) According to the structure and properties of the solar selective absorbing coating described above, the heating rate was set at 3°C / min, the temperature was raised to 700°C, and kept for 2h.
[0044] (3) After 2h annealing, the cooling rate is 5°C / min to cool down to room temperature.
[0045] In this implementation case, the performance test of the coating after annealing in air atmospher...
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