Abstract:
A method of making an aluminum alloy-resin composite and an aluminum alloy-resin composite obtained by the same are provided. The method may comprise: S1: anodizing a surface of an aluminum alloy substrate to form an oxide layer on the surface, in which the oxide layer includes nanopores; S2: immersing the resulting aluminum alloy substrate obtained at step S1 in an alkaline solution having a pH of about 10 to about 13, to form corrosion pores on an outer surface of the oxide layer, wherein the alkaline solution is an aqueous solution including at least one selected from a soluble carbonates, a soluble alkali, a soluble phosphate, a soluble sulfate, and a soluble borate; S3: injection molding a resin onto the surface of the resulting aluminum alloy substrate in step S2 in a mold to obtain the aluminum alloy-resin composite.
Abstract:
A composite article includes an inorganic non-metallic article and a resin article. The resin article is connected to the inorganic non-metallic article. The inorganic non-metallic article includes at least one connecting surface. At least a portion of the connecting surface comprises groove-peak like microstructures. At least one of the microstructures comprises a rough and/or porous surface having at least one of a roughness element and a porous structure. The inorganic non-metallic article and resin article are combined together through the microstructures. A method for making the composite article is also provided.
Abstract:
A model for anatomical training includes a visibly clear thermoplastic elastomer matrix formed with at least one contoured surface, the contoured surface simulating at least a portion of a human body. The visibly clear thermoplastic elastomer matrix provides visible needle tracks upon needle penetration that may be fused closed upon heating the thermoplastic elastomer matrix such that the needle tracks are no longer visible. The model includes a skeletal structure embedded within the thermoplastic elastomer matrix at the same location, relative to the contoured surface, as the corresponding skeletal structure is located in a human body, the skeletal structure producing a fluoroscopic image representative of human bone corresponding to the skeletal structure.
Abstract:
A composite molded body includes a main portion formed of resin, a ventilation channel configured within the main portion, a gas permeable membrane, and two inserted members embedded in the main portion. The ventilation channel has a first ventilation path P1 extending in a direction intersecting the gas permeable membrane and has an opening end leading to the external air, and a second ventilation path extending in a direction different from the direction in which the first ventilation path extends and having an opening end leading to the internal space of the casing. The inserted member forms a portion of the second ventilation path and has a membrane supporting portion formed with a through hole. The through hole constitutes a portion of the first ventilation path, and communicates with the internal space of the casing via the second ventilation path.
Abstract:
A model for anatomical training includes a visibly clear thermoplastic elastomer matrix formed with at least one contoured surface, the contoured surface simulating at least a portion of a human body. The visibly clear thermoplastic elastomer matrix provides visible needle tracks upon needle penetration that may be fused closed upon heating the thermoplastic elastomer matrix such that the needle tracks are no longer visible. The model includes a skeletal structure embedded within the thermoplastic elastomer matrix at the same location, relative to the contoured surface, as the corresponding skeletal structure is located in a human body, the skeletal structure producing a fluoroscopic image representative of human bone corresponding to the skeletal structure.
Abstract:
A composite includes a substrate having an oxide layer, a nano film formed on the oxide layer, a plastic member, the nano film has a three-dimensional network structure, the plastic member covers the nano film and penetrates into the three-dimensional network structure, the plastic member bonds with the substrate through the nano film and the oxide layer.
Abstract:
A manufacturing method of housing of electronic device comprises following steps: providing a metal member; forming a plurality of micro anchored apertures on a surface of the metal member; placing the metal member in a plastic injection mold, wherein the plastic injection mold is set at a first temperature; and providing a molten plastic material in the plastic injection mold for integrating with the surface of the metal member with an injection molding manner, wherein the plastic injection mold is set at a second temperature, and the second temperature is higher than the first temperature.
Abstract:
A molded product including a film bonded to a resin frame is produced by a method including: 1) reinforcing the film with a solvent-soluble or solvent-disintegrable reinforcing layer; 2) inserting the reinforced film in an injection mold; 3) feeding a resin to the mold to attach a frame body to the reinforced film while injection molding the resin frame; and 4) treating the resulting injection molded product with a solvent to remove the reinforcing layer. This production process can establish a technique capable of bonding (integrally molding) the film solely to the frame body, regardless of the size of the film. The film may preferably be an expanded porous polytetrafluoroethylene film, and the moisture-permeable resin may preferably be combined with the expanded porous polytetrafluoroethylene film.
Abstract:
The improved seating assembly for an automotive vehicle, includes a molded plastic seat (22) with a plurality of integrated reinforcement structures (30) disposed therein. A foam support structure with a top foam surface, a side foam surface, and a bottom foam surface, wherein the bottom foam surface may be disposed upon the molded plastic seat. A cover skin disposed on the top foam surface and the side foam surface.
Abstract:
A method for producing a thermoplastic resin molded article having a thermoplastic resin foam substrate and a functional member joined by welding to the foam substrate is provided. In order to prevent the occurrence of dimples on the surface of the molded article at the joined portion of the functional member, the molding of the functional member is performed while a pressure-resistant sheet is placed at an extended portion of a molten resin feeding gate provided at the bottom of a cavity for forming the functional member.