Heat-shielding heat insulating substrate
A substrate and heat insulation technology, applied in the direction of heat insulation protection pipes, heat exchange equipment, film/sheet adhesive, etc., can solve problems such as scratches, and achieve excellent scratch resistance
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[0355] Hereinafter, although an Example demonstrates this invention concretely, this invention is not limited to these Examples at all. In addition, the test and evaluation method in an Example etc. are as follows. In addition, when described as "part", it means "weight part" unless otherwise specified, and when described as "%", it means "weight%" unless otherwise specified.
[0356]
[0357] Regarding the film thickness of the metal oxide layer and the metal layer, the sample was processed by the focused ion beam (FIB) method using a focused ion beam processing observation device (manufactured by Hitachi, Ltd., product name "FB-2100"), and the It was determined by observing the cross-section with an emission transmission electron microscope (manufactured by Hitachi, Ltd., product name "HF-2000").
[0358] For the film thickness of the protective top coat and undercoat layer, using an instantaneous multi-channel photometry system (manufactured by Otsuka Electronics Co., Lt...
manufacture example 1
[0405] [Manufacturing example 1]: Fabrication of a standard substrate
[0406] (Formation of undercoat layer on transparent substrate layer)
[0407] An acrylic ultraviolet curable hard coat (manufactured by JSR Corporation, Z7540) was formed with a thickness of 2 μm on one side of float glass (manufactured by Matsunami Glass Industry Co., Ltd., visible light transmittance: 91%) with a thickness of 3 mm. Specifically, the solution of the above-mentioned hard coat layer was applied by a gravure coater, dried at 80° C., and then irradiated with a cumulative light intensity of 300 mJ / cm by an ultra-high pressure mercury lamp. 2 UV rays are used to cure and form an undercoat layer on the transparent substrate layer.
[0408] (Formation of first metal oxide layer, metal layer, and second metal oxide layer)
[0409] A zinc-tin composite oxide (ZTO) layer with a film thickness of 10 nm and an Ag layer with a film thickness of 16 nm were sequentially formed on the undercoat layer fo...
Embodiment 1
[0417] (Formation of undercoat layer on transparent substrate layer)
[0418] An acrylic ultraviolet curable hard coat (manufactured by JSR Corporation, Z7540) was formed with a thickness of 2 μm on one side of float glass (manufactured by Matsunami Glass Industry Co., Ltd., visible light transmittance: 91%) with a thickness of 3 mm. Specifically, the solution of the above-mentioned hard coat layer was applied by a gravure coater, dried at 80° C., and then irradiated with a cumulative light intensity of 300 mJ / cm by an ultra-high pressure mercury lamp. 2 UV rays are used to cure and form an undercoat layer on the transparent substrate layer.
[0419] (Formation of first metal oxide layer, metal layer, and second metal oxide layer)
[0420] A zinc-tin composite oxide (ZTO) layer with a film thickness of 10 nm and an Ag layer with a film thickness of 16 nm were sequentially formed on the undercoat layer formed on the above-mentioned transparent substrate layer by a direct curre...
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Abstract
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