Abstract:
A method of forming a shell of an electrical device comprises the steps of: providing a sheet with a photocured adhesive coating (103) formed on a side thereof, the coating (103) forming a predetermined pattern (101), conforming the sheet with the photo-cured coating (103) to at least a part of an outer configuration of the shell; injecting base material into an injection mold for forming the shell while placing the sheet inside the injection mold ,with the side on which the photocured coating (103) is formed facing toward a cavity of the injection mold; and removing the sheet and the adhered coating from the shell. With the method of the present invention, it is easy to manufacture a well decorated shell of an electrical device with universal adaptability.
Abstract:
A metal-plastic composite and method for producing the same are provided. The metal-plastic composite comprises: a metal substrate; and a plastic body jointed to the metal substrate via a dual-snap-fit structure, in which the dual-snap-fit structure comprises: a micro-snap-fit structure disposed on the metal substrate; and a big-snap-fit structure formed by the micro-snap-fit structure and a surface of the metal substrate.
Abstract:
A metal-resin composite and method for producing the same are provided. The metal-resin composite comprises: a metal substrate defining a hole formed on a surface thereof, and a thermoplastic resin composition formed on the metal substrate, wherein a part of the thermoplastic resin composition is filled in the hole, the hole comprises a lower hole part and a upper hole part communicating with the lower hole part, and a necking section is formed between the lower hole part and the upper hole part.
Abstract:
A shell for an electronic device comprising a shell body (1), a pattern layer (2) on the outer surface of the shell body (1) and a transparent protective layer (3) on the pattern layer (2) is provided, wherein the pattern layer (2) can be formed by curable material. Furthermore, a method for manufacturing the shell (1) and an electronic device with the shell (1) are provided. The shell (1) has fine patterns and stereo vision effect; meanwhile, it has better wear resistance.
Abstract:
Disclosed are a composite material, a shell for a mobile device, their manufacturing methods, and a mobile device. The composite material includes: a first metal substrate (100); a first resin fibre plate (200) disposed on an upper surface of the first metal substrate; an antenna layer (300) disposed on an upper surface of the first resin fibre plate; a second resin fibre plate (400) disposed on an upper surface of the antenna layer; and a second metal substrate (500) disposed on an upper surface of the second resin fibre plate.
Abstract:
A metal-resin composite is provided. The metal-resin composite includes: a metal substrate, having a surface distributed with a plurality of holes, and a resin layer, coated on part of the surface of the metal substrate, and filling into the plurality of holes, in which at least two holes of the plurality of holes are communicated with each other. A method for preparing the metal-resin composite is also provided.
Abstract:
A key (7) comprises a light transmitting key base, a three-dimensional cured resin layer (3) disposed on a lower surface of the base, and a pattern layer (5) disposed on a lower surface of the three-dimensional cured resin layer.The three-dimensional cured resin layer may be formed with a microstructure (6) on a lower surface facing the upper surface of the pattern layer Further, a key board comprising the key is also provided.
Abstract:
Provided are a decorative substrate and a manufacturing method therefor, a cover plate, and an electronic device. The decorative substrate comprises a base material and a texture layer arranged on the surface of the base material. The texture layer is provided with multiple texture units which are sequentially arranged in a first direction. Each texture unit comprises a protruding part. The cross section of the protruding part in a third direction transitions from an arc segment to a straight line segment in a second direction, wherein the second direction is perpendicular to the first direction, and the third direction is perpendicular to the first direction and the second direction. The highest points of the cross section of the protruding part in the third direction meet at least one of the following relationships: the distance between the highest points of the cross section of the protruding part in the third direction and the surface of the base material changes in the second direction; or the connecting line between the orthographic projections of the highest points of the cross section of the protruding part in the third direction on the base material is an arc segment or a straight line segment, the straight line segment being not parallel to the second direction.
Abstract:
A glitter module and an electronic product are provided. The glitter module includes a base material and a reflective graphic located on a surface of the base material. The reflective graphic includes multiple first-level regions. Each first-level region has multiple second-level regions. The second-level region is provided with a plurality of strip-shaped grooves. Each first-level region has a specified direction. An angle between an extension direction of a strip-shaped groove of a plurality of second-level regions in a same first-level region and a specified direction of a corresponding first-level region ranges from -20° to 20°. Along a preset direction of the reflective graphic, angles between specified directions of the plurality of first-level regions and the preset direction are in a gradient change relationship.