Abstract: A surface contact card holder (8) includes a body (10) and a receiving mechanism (20). The receiving mechanism has two sidewalls (21), an elastic member (26), a holding wall (27), and a holding piece (25). The sidewalls, the elastic member, and the holding wall are provided on the body. The holding piece is formed on the holding wall. The elastic member and the holding wall cooperate to hold a surface contact card in a first direction. The two sidewalls cooperate to hold the surface contact card in a second direction. The holding piece and the body cooperate to hold the surface contact card in a third direction. The elastic member can be pressed in the first direction.

Abstract: A durable cover with a soft surface device (100) includes a substrate (10), an intermediate layer (20), an ink coating (30), and a top coating (40). The intermediate layer is made of a polyurethane paint. The ink coating contains a polyurethane component. The top coating is made of a polyurethane adhesive. The intermediate layer is applied onto the substrate, the ink coating is formed on the surface of the intermediate layer, and the top layer is formed on the surface of the ink coating and the intermediate layer. The presence of polyurethane in the intermediate layer, the ink coating, and the top coating promotes partial cross-linking therebetween and, thus, helps improve the durability of the cover. Further, the polyurethane contributes positively to the overall softness and flexibility of the cover.

Abstract: A sliding mechanism (100) for use in a portable electronic device (500) is provided. The sliding mechanism includes a first plate (10), a second plate (20), a plurality of limiting structures (17), and a linkage module (30). The second plate is longitudinally slidably connected with the first plate. The limiting structures are secured on/to the first plate for limiting a position of the second plate with respect to the first plate. The linkage module is positioned between the first plate and the second plate and connects the first plate and the second plate. The linkage module particularly includes an elastic unit (34). The elastic unit is able to store spring energy that can be used to drive the linkage module. Specifically, such spring energy enables the second plate to automatically slide along the first plate after the second plate is manually moved an initial amount.

Abstract: A sliding mechanism (6) includes a main board (10) and a sliding board (20). The main board has a body (11). A guiding rail (112) is formed at each of two opposite sides of the body. The sliding board has a first portion (21) and a second portion (22). The first portion has a first guiding slot (216) defined in a first end thereof for receiving one guiding rail. A bottom slice extends from a second opposite end of the first portion. The second portion has a second guiding slot (226) defined in a first end thereof for receiving the other guiding rail. A top slice extends from a second opposite end of the second portion. The top slice is located on the bottom slice. Before connecting the first portion and the second portion, a clearance between the guiding rail and the first portion can be adjusted.

Abstract: A present testing system (100) for testing electronic products is provided. The testing system includes a processor (10), a preliminary testing apparatus (20), and a final testing apparatus (30). The processor includes an encoding module (15) for generating product codes corresponding to the respective electronic products. The preliminary testing apparatus includes a data acquisition device (22) and a marking device (26). The data acquisition device tests the electronic products, acquires preliminary test data of the electronic products, and transmits the preliminary test data to the processor. The marking device marks the product codes onto the corresponding electronic products. The final testing apparatus includes a read device (32) for reading the product codes marked onto the electronic products and transmitting the product codes to the processor. The processor locates the corresponding preliminary testing data of the electronic products according to the product codes transmitted by the read device.

Abstract: A stack mold carrier (200) for use in a stack mold system (500) is provided. The stack mold system includes a pair of rails (600), the stack mold carrier, a mold (not labeled) and a cooling assembly (40). The stack mold carrier includes a carrier portion (20) and a pair of bridge portions (22) extending from opposite ends of the carrier portion. The stack mold carrier strides over the rails with each of the bridge portions slidably mounted on a corresponding one of the rails. The mold includes a middle mold plate (504), a stationary portion (506) and a movable portion (502). The middle mold plate is supported on the carrier portion and is movable with the stack mold carrier relative to the stationary portion and the movable portion along the rails. The cooling assembly is configured for the mold installed on the carrier portion.

Abstract: A holder for holding a surface contact card (100) includes a receiving groove and a latch structure (20). The receiving groove is defined at one side of the main body (10). The latching structure rotatably engages in the receiving groove and is configured for receiving the surface contact card (30) therein.

Abstract: A strap holding structure (200) for an electronic device (100), which includes a body (20), a cover (10). The body has a knuckle (22) formed at one end thereof. The knuckle has a middle board (226) formed therein. The cover has a barrel (12) formed at one end. The strap holding structure includes a latching element (30) and a strap holder (40). The latching element is attached to the cover at one end. The strap holder has a pole (424) at a first end of the strap holder. A groove (444) is circumferentially defined in an outer wall of the strap holder and two notches (442) are axially defined in the outer wall thereof. The strap holder is engaged in the knuckle and the barrel. The latching element is received in the groove and the middle board is received in the notches.

Abstract: A strap holding structure (200) for an electronic device (100) includes a body (10), a strap holder (22) and a latching element (24). The body defines a receiving portion (12). The receiving porting has a side board (1242). The side board with the receiving portion cooperatively surrounds a space (1244). The strap holder has a pole (228) at one end thereof and two opposite feet (223) extending from another end thereof. A block (226) radially extends from a circumferential wall of the strap holder, and the side board is received in the space. The latching element forms two concave portions (244). Each foot engages with a corresponding concave portion. A stopper (246) perpendicularly protrudes from the latching element, and resists a wall of the receiving portion.

Abstract: A method for manufacturing a lens module (100) is provided. The lens module includes a flash lamp lens (20) and a holder (10) integrally formed/molded with the lens. The method includes at least three steps. The first step S1 is to mold the lens by means of injecting a first molding material into a provided mold assembly. The second step S2 is to mold the holder integrally with the molded lens by means of injecting a second molding material into the mold assembly to thereby yield the lens module. The third step S3 is to extract the lens module from the mold assembly.

Abstract: A hinge assembly (100) for a foldable electronic device includes a shaft (1), a housing (5) defining a guiding groove (56) therein, a spring (2), and a pin (7). A first end of the spring is coupled to the shaft, and an opposite second end of the spring is coupled to the housing. A first end of the pin is coupled to the shaft, and an opposite second end of the pin is slidable along the guiding groove of the housing. The shaft is rotatable relative to the housing between a first position where the second end of the pin is located in a first position of the guiding groove and a second position where the second end of the pin is located in a second position of the guiding groove. The hinge assembly is thus integrated into a complete unit which is capable of providing a wide range of rotation.

Abstract: A hinge (20) is for joining housings of a foldable electronic device together. The hinge includes an axle (22), a clip (220) at one end of the axle, a spring (24), and a block (26) at an opposite end of the axle. The axle has a screw thread (224) thereon. The block has a screw hole (262) therein. Through engagement of the screw thread in the screw hole, the block is retained on the axle. The spring is retained between the clip and the block. The structure of the hinge is stable, by reason of the connection provided by the axle between the clip and the block. The mobile phone using the hinge can reduce or eliminate damaging impact that would otherwise occur when the cover is opened up from the main housing and reaches an open state.

Abstract: A sliding mechanism (100) for a portable electronic device (500) includes a first sliding member (10), a second sliding member (20), and at least one cushion (30). The first sliding member has a first body (11). At least one guiding rail (12) is formed on the first body. The second sliding member has a second body (21). At least one guiding arm (22) is formed on the second body. The guiding arm defines a guiding slot (224) therein. The cushion has a main body (31). The main body defines a receiving slot (314) therein. The guiding rail is configured for reception in the receiving slot. The cushion is sandwiched between the guiding rail and the guiding arm.

Abstract: A lens cover assembly (200) mounted in an electronic device (300) includes a lens cover (30), and a frame (20). The lens cover includes a base (32), and a column (34) extending from a central area of the base. The base has at least one notch (36) defined therein. The frame has a stepped hole (26) defined by a first circumferential wall (262), a second circumferential wall (264), and a connecting surface (266) connecting the first circumferential wall to the second circumferential wall. At least two blocks (28) extend from the first circumferential wall and overlie the connecting surface. In assembly, the lens cover is received in the stepped hole. Then the base is rotated relative to the frame about an axis of the stepped hole so that the base is sandwiched between the blocks and connecting surface to lock the lens cover in the frame.

Abstract: A cover latching assembly (60) for a portable electronic device (100) is provided. The portable electronic device includes a housing (10) and a cover (20) configured for attaching to the housing. The cover has a latching portion (26) formed thereon. The cover latching assembly includes a button (30) and an elastic member (40). The button includes a recessed portion (344), and the button is slidably secured on the housing. The elastic member enables the latching portion of the cover to engage with the recessed portion of the button.

Abstract: A wireless communication device includes a removable panel (100), a base cover (200) and a latching assembly (300). The removable panel has a first mounting portion (120). The base cover has a second mounting portion (240) corresponding to the first mounting portion of the removable panel. The latching assembly includes a lacking fastener (320) and a coil spring (340), wherein the latching assembly is effective to nail the removable panel into the housing through the first mounting portion and the second mounting portion. Therefore, it is simple, tight and easy for current invention using the latching assembly to fix the removable panel to the base cover, or to disassemble the removable panel away.