Abstract: A surface treatment method is provided, applicable to a housing. The housing includes a surface. The surface treatment method includes: performing anodic treatment on the surface, to form a microporous structure on the surface; depositing a silicon material on the surface, to form a silicon polymer material layer to fill the microporous structure; and depositing a fluorine-containing monomer material on the surface, where the silicon polymer material layer reacts with the fluorine-containing monomer material to generate a silicon-fluorine polymer mixture structure film to perform pore sealing on the microporous structure.

Abstract: A transferring method for an in-mold roller process is provided. The transferring method includes the following steps. A plastic film is provided. A transfer ink and a printing roller are provided. A 3D pattern is formed on a surface of the printing roller. An ink pattern is formed on the plastic film by using the printing roller and the transfer ink, so as to form a transfer film. The transfer film is placed and positioned in a mold. The mold is filled with a structural material to form a structural member and cause the ink pattern to be transferred from the plastic film to a surface of the structural member. Finally, a solidification treatment is performed on the ink pattern.

Abstract: The present disclosure provides a transfer ink. The transfer ink includes 55 wt %-70 wt % of a polymeric prepolymer, 11 wt %-16 wt % of a photosensitive monomer, 0.8 wt %-1.7 wt % of a photoinitiator, 6 wt %-11 wt % of liquid, 12 wt %-22 wt % of wear-resistant acrylic mixed reaction resin, and a solvent. The present disclosure also provides a transfer method by using the transfer ink.

Abstract: An imprint ink is provided. The imprint ink includes 65 wt % to 70 wt % of polymerizable prepolymer, 7 wt % to 13 wt % of photosensitive monomer, 0.5 wt % to 1.5 wt % of photoinitiator, 8 wt % to 17 wt % of abrasion-resistant acrylic mixed reaction resin, and an auxiliary. An imprint method is further provided. First, a substrate is provided. Then, an imprint ink layer is formed on the substrate by using the imprint ink. Next, semi-curing processing is performed on the imprint ink layer, to form a semi-cured imprint ink layer. Then, the semi-cured imprint ink layer is shaped by using a mold, to form a semi-cured imprint ink contour layer. Finally, full curing processing is performed on the semi-cured imprint ink contour layer, to form an imprint pattern layer on the substrate.

Abstract: A method for manufacturing a hydroxyl polymer material is provided. First, a hydroxyl resin modified material is prepared. Subsequently, a liquid with an organic polymer, silicon carbide, and aluminum oxide as a first auxiliary material added thereto is prepared. Then, an acrylic mixed reaction resin material with silica, diamond powder, a ceramic particle material, and glass fiber powder as a second auxiliary material added thereto is prepared. Next, the hydroxyl resin modified material, the liquid, and the acrylic mixed reaction resin material are mixed uniformly to obtain a hydroxyl mixed reaction resin material. Then, the hydroxyl mixed reaction resin material and an acrylic compound resin material are mixed uniformly to obtain the hydroxyl polymer material. The hydroxyl polymer material and a structural component composed thereby are also provided.

Abstract: The disclosure provides a surface treatment method. The surface treatment method includes the following steps. First, a housing is provided. Subsequently, a liquid is prepared, where the liquid includes at least one anti-mosquito ingredient. Next, an anodizing treatment is performed on the housing, to form micropores on a surface of the housing. Then the housing is immersed in the liquid. Finally, the micropores on the surface of the housing are sealed.

Abstract: A surface treatment method is provided, applicable to a housing. The housing includes a surface. The surface treatment method includes: performing anodic treatment on the surface, to form a microporous structure on the surface; depositing a silicon material on the surface, to form a silicon polymer material layer to fill the microporous structure; and depositing a fluorine-containing monomer material on the surface, where the silicon polymer material layer reacts with the fluorine-containing monomer material to generate a silicon-fluorine polymer mixture structure film to perform pore sealing on the microporous structure.

Abstract: Provided is a painting method, adapted to a housing, and the housing includes a painting surface. The painting method includes: forming a primer layer on the painting surface; forming a contour material layer on the primer layer, and defining a pattern range on the contour material layer, and removing the contour material layer within the pattern range in a high temperature processing manner to form a contour layer with a 3D texture.

Abstract: A method for manufacturing a heat conduction structure is provided, including: forming a porous metal structure by using a metal powder material; providing an electrolyte solution, where the electrolyte solution includes a high thermal conductivity nano material, and performing anodic oxidation treatment on the metal structure by using the electrolyte solution, to fill pores of the metal structure with the high thermal conductivity nano material; and performing hole sealing treatment on the metal structure.

Abstract: A manufacturing method for a housing is provided. The manufacturing method includes: providing a substrate, where the substrate includes a metal member and a plastic member combined with the metal member, the substrate includes an appearance surface, and the appearance surface extends from the metal member to the plastic member; cleaning the appearance surface, and performing surface treatment on the appearance surface to form an oxide film; forming a colored pattern on a heat-insulating film by using a color material; and placing the heat-insulating film on the appearance surface, and transferring the colored pattern to the appearance surface by dye sublimation.

Abstract: A processing method for a housing includes: providing a housing; forming a color layer on the housing; forming an ultraviolet curable layer on the color layer and executing a photo-curing process on the ultraviolet curable layer, materials of the ultraviolet curable layer including a light sensitive resin and a nano metal material; and forming an optical coating layer on the ultraviolet curable layer.

Abstract: A processing method for a housing includes: providing a housing; forming a color layer on the housing; forming an ultraviolet curable layer on the color layer and executing a photo-curing process on the ultraviolet curable layer, materials of the ultraviolet curable layer including a light sensitive resin and a nano metal material; and forming an optical coating layer on the ultraviolet curable layer.

Abstract: A simulated eye is provided. The tilt switch comprises an electrically insulating housing with a chamber formed therein. The chamber is defined by a bottom surface and a surrounding surface. The tilt switch also includes a plurality of contact terminals, each of which comprises an inner terminal portion and an outer terminal portion. Each inner terminal portion protrudes out of the surrounding surface of the chamber and extends in a direction substantially parallel to the bottom surface. The tilt switch further includes an electrically conductive moving member placed in a space defined by the cap, the bottom surface, and the plurality of contact terminals. The electrically conductive moving member is capable of simultaneously contacting with at most two of the plurality of contact terminals.

Abstract: A simulated eye is provided. The tilt switch comprises an electrically insulating housing with a chamber formed therein. The chamber is defined by a bottom surface and a surrounding surface. The tilt switch also includes a plurality of contact terminals, each of which comprises an inner terminal portion and an outer terminal portion. Each inner terminal portion protrudes out of the surrounding surface of the chamber and extends in a direction substantially parallel to the bottom surface. The tilt switch further includes an electrically conductive moving member placed in a space defined by the cap, the bottom surface, and the plurality of contact terminals. The electrically conductive moving member is capable of simultaneously contacting with at most two of the plurality of contact terminals.