Abstract: An electronic apparatus includes a base portion including a first cover, a second cover perpendicular to the first cover and a receiving cavity running through the first and second covers to respectively provide a locking slot in the first cover and an opening in the second cover. The first cover defines locking portions oppositely extending from opposite faces of the locking slot.

Abstract: A card connector comprises an insulating housing having contact receiving slots. An engaging portion is formed on a side of the housing and has a first fixing position and a second fixing position. A plurality of terminals is received in the receiving slots. An ejector comprises a card ejecting plate assembled to the housing and a push bar movable disposed on the engaging portion of the housing and connected with the card ejecting plate. A fixing portion is formed on an internal side of the push bar. The push bar drives the card ejecting plate to move between a card receiving position wherein the fixing portion is located at the first fixing position and a card ejected position wherein the fixing portion is located at the second fixing position.

Abstract: Provided is an electrical connector including an insulative base defining a mounting face thereof. A plurality of terminals are secured in said insulative base and each has a contacting section projecting upwards thereof. A detachable cover is pivotally assembled on the insulative base and rotates to an opened position where a mating cavity is defined for receiving a mating plug therein and a closed position where the mating cavity is not large enough for receiving said mating plug. At least one resilient tang is located under said cover for providing a supporting force no matter the cover is in the opened position or in the closed position.

Abstract: An electrical connector (100) includes an insulative housing (1) and at least one contact (2) retained in the housing. The housing includes a base portion (11) and a mating portion (12) extending forwards from the base portion, and the base portion defines a mounting face (114) thereof and the mating portion defines a mating cavity (121) extending from a mating face (120) into the housing. The at least one contact defines a retaining portion (21) retained in the base portion, a resilient arm (22) extending from the retaining portion with a part projecting into the mating cavity and a soldering leg (23) arranged to parallel to the mounting face. The soldering leg is disposed within the scope of the mounting face and defines a first and a second soldering portion (231, 232) forming an angle therebetween.

Abstract: An electrical card connector assembly (100) includes an electrical card connector and a printed circuit board (PCB) (4). The electrical card connector includes an insulating housing (2), a plurality of terminals (31) received in the insulating housing and a metal shield (1) covering the insulating housing to define a card receiving room. The insulating housing forms an upper face (20), a lower face (21) and two lateral walls (22) and defines at least one cavity (24). The lateral walls form a plurality of blocks (221). The metal shield includes a base (11), a pair of sidewalls (12) and at least one elastic piece (110) extending along a card insertion direction. The sidewalls define openings (121) receiving the blocks of the sidewalls and form at least one retention portion (120). The base forms a baffle (13) at a rear edge thereof. The PCB is attached with the lower face of the insulating housing and electrically connected with the terminals.

Abstract: An electrical card connector assembly includes an electrical card connector (100) and a PCB (4) where the electrical card connector is assembled. The electrical card connector includes a metal shield (1), an insulating housing (2) and a terminal module (3) received in the insulating housing. The insulating housing associates with the metal shield to define a card receiving room. The metal shield forms a base (10) and a plurality of sidewalls (11) extending from the base. Each sidewall forms a locking portion (111) thereof. Each locking portion has a vertical portion (1110) and a horizontal portion (1111) extending from a lower end of the vertical portion. At least one of the sidewalls forms an elastic piece (12) extending along a card insertion/ejection direction and the elastic piece forms a declined portion (120). The PCB defines a plurality of cutouts (44) and at least one aperture (47).

Abstract: An electrical card connector assembly (100) comprises an insulating housing (10), a plurality of terminals (20) received in the insulating housing, and a plurality of cables (50). The insulating housing comprises a main body (110), a pair of arms (120) extending from the opposite ends of the main body, a tongue portion (130) extending from the main body and sandwiched by the arms, and a positioning portion (140) extending from the main body opposite to the tongue portion, the positioning portion alternatively defines a plurality of channels (145). Each terminal comprises a tail portion (230) received in corresponding channel of the positioning portion. Each cable comprises a conductor located in corresponding channel of the positioning portion and electrically connecting with the tail portion of the terminal.

Abstract: A card connector comprises an insulating housing having contact receiving slots. An engaging portion is formed on a side of the housing and has a first fixing position and a second fixing position. A plurality of terminals is received in the receiving slots. An ejector comprises a card ejecting plate assembled to the housing and a push bar movable disposed on the engaging portion of the housing and connected with the card ejecting plate. A fixing portion is formed on an internal side of the push bar. The push bar drives the card ejecting plate to move between a card receiving position wherein the fixing portion is located at the first fixing position and a card ejected position wherein the fixing portion is located at the second fixing position.

Abstract: An exemplary apparatus (100) for measuring eccentricity of an optical module (23) includes a worktable (10), an image sensor device (17), a driving device (13), and a processing device (19). The worktable is configured for supporting the optical module. The image sensor device is configured for receiving an image of the optical module. The driving device is configured for driving rotation of the worktable. The processing device is connected to the image sensor device, and the processing device is configured for analyzing the image of the optical module.

Abstract: An electrical card connector assembly includes an electrical card connector (100) and a PCB (4) where the electrical card connector is assembled. The electrical card connector includes a metal shield (1), an insulating housing (2) and a terminal module (3) received in the insulating housing. The insulating housing associates with the metal shield to define a card receiving room. The terminal module includes a body portion (30) and a plurality of terminals (31) received in the body portion. The metal shield forms a base (10) and a plurality of sidewalls (11) extending vertically from the base. The metal shield further comprises at least one elastic piece (13) extending from the edge of the base, which forms a grounding portion (131) at a free end thereof. The PCB defines at least one grounding pad (47) mating with the grounding portion of the elastic piece.

Abstract: A wireless communication system includes an antenna, a receiving module, a power source, and a power control hub. The power control hub includes an amplifier having a first end coupled to the receiving module and a second end coupled to the power source. The amplifier generates a first output signal based on a control signal of the receiving module. The power control hub includes a rectifier having a first end coupled to the output end of the amplifier and a second end coupled to the power source. The rectifier generates a second output signal based on the first output signal. The power control hub also includes a switch. A first and a second end of the switch are electrically connected or disconnected based on the second output signal received at a control end of the switch.

Abstract: An electrical card connector assembly (100) includes an electrical card connector and a printed circuit board (PCB) (4). The electrical card connector includes an insulating housing (2), a plurality of terminals (31) received in the insulating housing and a metal shield (1) covering the insulating housing to define a card receiving room. The insulating housing forms an upper face (20), a lower face (21) and two lateral walls (22) and defines at least one cavity (24). The lateral walls form a plurality of blocks (221). The metal shield includes a base (11), a pair of sidewalls (12) and at least one elastic piece (110) extending along a card insertion direction. The sidewalls define openings (121) receiving the blocks of the sidewalls and form at least one retention portion (120). The base forms a baffle (13) at a rear edge thereof. The PCB is attached with the lower face of the insulating housing and electrically connected with the terminals.

Abstract: An electrical card connector assembly (100) comprises an insulating housing (10), a plurality of terminals (20) received in the insulating housing, and a plurality of cables (50). The insulating housing comprises a main body (110), a pair of arms (120) extending from the opposite ends of the main body, a tongue portion (130) extending from the main body and sandwiched by the arms, and a positioning portion (140) extending from the main body opposite to the tongue portion, the positioning portion alternatively defines a plurality of channels (145). Each terminal comprises a tail portion (230) received in corresponding channel of the positioning portion. Each cable comprises a conductor located in corresponding channel of the positioning portion and electrically connecting with the tail portion of the terminal.

Abstract: An electrical card connector assembly includes an electrical card connector (100) and a PCB (4) where the electrical card connector is assembled. The electrical card connector includes a metal shield (1), an insulating housing (2) and a terminal module (3) received in the insulating housing. The insulating housing associates with the metal shield to define a card receiving room. The terminal module includes a body portion (30) and a plurality of terminals (31) received in the body portion. The metal shield forms a base (10) and a plurality of sidewalls (11) extending vertically from the base. The metal shield further comprises at least one elastic piece (13) extending from the edge of the base, which forms a grounding portion (131) at a free end thereof. The PCB defines at least one grounding pad (47) mating with the grounding portion of the elastic piece.

Abstract: An electrical card connector assembly includes an electrical card connector (100) and a PCB (4) where the electrical card connector is assembled. The electrical card connector includes a metal shield (1), an insulating housing (2) and a terminal module (3) received in the insulating housing. The insulating housing associates with the metal shield to define a card receiving room. The metal shield forms a base (10) and a plurality of sidewalls (11) extending from the base. Each sidewall forms a locking portion (111) thereof. Each locking portion has a vertical portion (1110) and a horizontal portion (1111) extending from a lower end of the vertical portion. At least one of the sidewalls forms an elastic piece (12) extending along a card insertion/ejection direction and the elastic piece forms a declined portion (120). The PCB defines a plurality of cutouts (44) and at least one aperture (47).

Abstract: An electronic candle with double light sources, includes a rack body having an upper board body. A lower seat body and multiple stands interconnected between the upper board body and the lower seat body. A space being defined between the upper board body and the lower seat body. A transparent main body enclosing the rack body; and a controlling circuit including controlling units, an upper light source and a lower light source. The upper light source is mounted on the upper board body of the rack body, while the lower light source is mounted on the lower seat body of the rack body. After the controlling circuit is triggered, the upper and lower light sources are lighted up according to the way set by the controlling units. When lighted up, the upper light source simulates the flame of a real candle.

Abstract: A wireless communication system includes an antenna, a receiving module, a power source, and a power control hub. The power control hub includes an amplifier having a first end coupled to the receiving module and a second end coupled to the power source. The amplifier generates a first output signal based on a control signal of the receiving module. The power control hub includes a rectifier having a first end coupled to the output end of the amplifier and a second end coupled to the power source. The rectifier generates a second output signal based on the first output signal. The power control hub also includes a switch. A first and a second end of the switch are electrically connected or disconnected based on the second output signal received at a control end of the switch.

Abstract: An exemplary apparatus (100) for measuring eccentricity of an optical module (23) includes a worktable (10), an image sensor device (17), a driving device (13), and a processing device (19). The worktable is configured for supporting the optical module. The image sensor device is configured for receiving an image of the optical module. The driving device is configured for driving rotation of the worktable. The processing device is connected to the image sensor device, and the processing device is configured for analyzing the image of the optical module.

Abstract: A heat pipe (20) includes a pipe (22), a plurality of grooves (24), a hydrophilic layer (26), and a liquid operating fluid (28). The pipe includes an evaporator section (30) and an opposite condenser section (32). The grooves are formed on an inside wall (222) of the pipe. The hydrophilic layer is coated on the grooves. The operating fluid is located in the evaporator section. The operating fluid absorbs heat and is vaporized. The vapor is diffused to the condenser section and releases heat, thereby being transformed back into liquid. The liquid is adsorbed by the hydrophilic layer and is reflowed. This adsorption reduces or even avoids a shear force at an interface of the diffusing vapor and the reflowing liquid. Thus, the cyclical speed of the operating fluid is quickened, enhancing the thermal operating efficiency of the heat pipe.

Abstract: A thermal assembly includes a heat source (10), a heat sink (50), a thermal interface material (30) and a porous membrane (20). The heat sink is over the heat source. The thermal interface material is enclosed with the porous membrane, with both being between the heat source and the heat sink. The porous membrane has a number of holes (23a) in which a number of carbon nanotubes (28) are provided. A method for fabricating the thermal assembly includes the following steps. The heat source having a surface is provided, wherein the surface defines a central part. The thermal interface material is coated onto the central part of the surface of the heat source. The thermal interface material is enclosed with the porous membrane, the porous membrane having the holes in which the carbon nanotubes are provided. The heat sink is attached to the heat source.