Abstract: An anti-pressure structure of heat dissipation device includes a main body. The main body has a chamber and a bent section. The chamber has a top side and a bottom side. An anti-pressure member is disposed in the chamber at the bent section. A capillary structure is disposed on the bottom side of the chamber. Two sides of the anti-pressure member respectively abut against the top side of the chamber and a surface of the capillary structure. A working fluid is filled in the chamber. By means of the anti-pressure member, the internal vapor chamber with a bending R angle in the main body is prevented from deformation, contraction or damage due to bending.

Abstract: A manufacturing method of a vapor chamber water-filling section sealing structure. The vapor chamber water-filling section sealing structure includes a main body and a capillary structure. The main body has a first plate body and a second plate body, which are correspondingly mated with each other to together define an airtight chamber and a water-filling section. A flange is disposed along an outer periphery of the main body. The water-filling section has a water-filling notch and a water-filling passage. Two ends of the water-filling passage are respectively connected with the flange and the water-filling notch to communicate with the airtight chamber. A portion of the water-filling passage that is connected with the flange is pressed to have a height equal to the height of the flange or lower than the height of the flange. The capillary structure is disposed in the airtight chamber of the main body.

Abstract: An electrical connector includes an insulative housing, a plurality of contacts assembled in the housing, opposite metal top and bottom shells attached upon opposite top face and bottom face of the housing, and a metallic shielding plate inserted into the housing and between two rows of contacts. The top shell, the bottom shell and the shielding plate have corresponding ears secured together in an intimately sandwiched manner.

Abstract: An electrical connector includes an insulative housing and two rows of contacts retained in the housing, and a metallic shielding plate assembled in the housing and located between the two rows of contacts wherein the shielding plate includes a pair of spring fingers extending from the front edge into the mating cavity in front of the shielding plate, and a plurality of notches located around the pair of spring fingers and equipped with barbed structures extending into the notches so as to grasp the corresponding ribs of the housing so as to stabilize the whole shielding plate in the housing.

Abstract: A device includes a display stack and an optical receiver. The display stack includes a set of opaque elements defining a translucent aperture. The translucent aperture extends through the display stack. The optical receiver is spaced apart from and behind a back surface of the display stack. At least one micro-optic element is formed on the back surface of the display stack, between the display stack and the optical receiver. The at least one micro-optic element includes a micro-optic element having a focal point located within the translucent aperture. The optical receiver is configured to receive light through the translucent aperture and the at least one micro-optic element.

Abstract: An electrical connector includes an insulative housing, a plurality of contacts retained in the housing, a metallic shell enclosing the housing, and the magnets retained by the shell. The housing includes a pair of longitudinal walls and a pair of end walls commonly forming a mating cavity. The contacts are disposed in the longitudinal walls with corresponding contacting sections exposed in the mating cavity. The shell forms receiving cavities to intimately receive the corresponding magnets, respectively. The magnets are secured to the shell by spot-welding so as to not only assure reliable securement therebetween but also keep the completeness of both the magnet and the shell for superior magnetic and shielding effect thereof.

Abstract: A vapor chamber water-filling section sealing structure. The vapor chamber water-filling section sealing structure includes a main body and a capillary structure. The main body has a first plate body and a second plate body, which are correspondingly mated with each other to together define an airtight chamber and a water-filling section. A flange is disposed along an outer periphery of the main body. The water-filling section has a water-filling notch and a water-filling passage. Two ends of the water-filling passage are respectively connected with the flange and the water-filling notch to communicate with the airtight chamber. A portion of the water-filling passage that is connected with the flange is pressed to have a height equal to the height of the flange or lower than the height of the flange. The capillary structure is disposed in the airtight chamber of the main body.

Abstract: A vapor chamber water-filling section sealing structure. The vapor chamber water-filling section sealing structure includes a main body and a capillary structure. The main body has a first plate body and a second plate body, which are correspondingly mated with each other to together define an airtight chamber and a water-filling section. A flange is disposed along an outer periphery of the main body. The water-filling section has a water-filling notch and a water-filling passage. Two ends of the water-filling passage are respectively connected with the flange and the water-filling notch to communicate with the airtight chamber. A portion of the water-filling passage that is connected with the flange is pressed to have a height equal to the height of the flange or lower than the height of the flange. The capillary structure is disposed in the airtight chamber of the main body.

Abstract: A vapor chamber water-filling section sealing structure. The vapor chamber water-filling section sealing structure includes a main body and a capillary structure. The main body has a first plate body and a second plate body, which are correspondingly mated with each other to together define an airtight chamber and a water-filling section. A flange is disposed along an outer periphery of the main body. The water-filling section has a water-filling notch and a water-filling passage. Two ends of the water-filling passage are respectively connected with the flange and the water-filling notch to communicate with the airtight chamber. A portion of the water-filling passage that is connected with the flange is pressed to have a height equal to the height of the flange or lower than the height of the flange. The capillary structure is disposed in the airtight chamber of the main body.

Abstract: A protection element for heat dissipation unit includes a main body and a protection element. The main body is divided into a working zone and a sealing zone. The sealing zone is located around an outer periphery of the working zone and is provided with a notch area, to which a fluid-adding and air-evacuating pipe is connected. The protection element is a ductile structure correspondingly arranged at the notch area to contact with the sealing zone of the main body and the pipe. With the arrangement of the protection element, the fluid-adding and air-evacuating pipe is protected against collision and impact and accordingly, the main body of the heat dissipation unit is protected against vacuum and working fluid leakage.

Abstract: The connector includes an insulative housing, two rows of contacts retained in the housing, and a metallic shell enclosing the housing. The contact includes a contacting section extending into the mating cavity, and a connecting section exposed outside of the housing. An insulative block/spacer is attached to a back side of the housing integrally with a metallic shielding/grounding blade therein. The shielding/grounding blade includes a pair of securing legs at two ends in the transverse direction. A pair of grounding bars are soldered to the outer conductors of the two rows of wires, respectively. Each of the grounding bars includes a pair of securing legs at two ends in the transverse direction. Both the securing legs of the shielding/grounding blade and those of the grounding bars are secured to interior surfaces of the two side walls of the outer shell.

Abstract: An electrical connector includes an insulative housing, a plurality of contacts retained in the housing, a metallic shielding shell, and a cable sub-assembly. The contact includes a front mating section and a rear connecting section. The cable sub-assembly includes a plurality of wires and a grounding unit. The wire includes an inner/transmission conductor, an inner insulator, an outer/grounding conductor/layer, and an outer insulator sequentially coaxially arranged with one another. The connecting sections of the contacts are mechanically and electrically connected to the inner conductors of the corresponding wires. The grounding unit includes a grounding bar mechanically and electrically connected to the grounding layers of the corresponding wires and with forwardly extending legs for connection to the shielding shell. Also included is a central shielding plate with extensions at opposite ends for connection to the grounding bar.

Abstract: An electrical connector includes an insulative housing, a plurality of contacts retained in the housing, a metallic shell enclosing the housing, and the magnets retained by the shell. The housing includes a pair of longitudinal walls and a pair of end walls commonly forming a mating cavity. The contacts are disposed in the longitudinal walls with corresponding contacting sections exposed in the mating cavity. The shell forms receiving cavities to intimately receive the corresponding magnets, respectively. The magnets are secured to the shell by spot-welding so as to not only assure reliable securement therebetween but also keep the completeness of both the magnet and the shell for superior magnetic and shielding effect thereof.

Abstract: The present invention relates to the application field of computer networks, and disclosed are a method for processing and loading a web page supporting multiple languages and a system thereof, so as to reduce time and cost of labor investment when some language is added or modified, save storage capacity of a web page server, increase the speed of page loading and translation rendering, and reduce the redundancy of a translation file set. The present invention is based on a tree-shaped translation file set, where each hypertext markup language (HTML) has a corresponding translation file.

Abstract: A vapor chamber water-filling section sealing structure. The vapor chamber water-filling section sealing structure includes a main body and a capillary structure. The main body has a first plate body and a second plate body, which are correspondingly mated with each other to together define an airtight chamber and a water-filling section. A flange is disposed along an outer periphery of the main body. The water-filling section has a water-filling notch and a water-filling passage. Two ends of the water-filling passage are respectively connected with the flange and the water-filling notch to communicate with the airtight chamber. A portion of the water-filling passage that is connected with the flange is pressed to have a height equal to the height of the flange or lower than the height of the flange. The capillary structure is disposed in the airtight chamber of the main body.

Abstract: A manufacturing method of a vapor chamber water-filling section sealing structure. The vapor chamber water-filling section sealing structure includes a main body and a capillary structure. The main body has a first plate body and a second plate body, which are correspondingly mated with each other to together define an airtight chamber and a water-filling section. A flange is disposed along an outer periphery of the main body. The water-filling section has a water-filling notch and a water-filling passage. Two ends of the water-filling passage are respectively connected with the flange and the water-filling notch to communicate with the airtight chamber. A portion of the water-filling passage that is connected with the flange is pressed to have a height equal to the height of the flange or lower than the height of the flange. The capillary structure is disposed in the airtight chamber of the main body.

Abstract: A heat dissipation device is disclosed. The heat dissipation device includes a main body and a tubular body. The main body has a chamber. A capillary structure is formed on an inner surface of the chamber by means of laser processing. A working fluid is contained in the chamber. One face of the main body is a condensation face, while the other face of the main body is a heat absorption face. The capillary structure is disposed corresponding to the heat absorption face. The heat absorption face of the main body is made of titanium material. The condensation face is made of titanium material or metal material. The tubular body is correspondingly inserted in the main body. The capillary structure is formed by means of laser processing. This not only solves the problem that the titanium material is difficult to process, but also can enhance the production efficiency.

Abstract: The connector includes an insulative housing, two rows of contacts retained in the housing, and a metallic shell enclosing the housing. The contact includes a contacting section extending into the mating cavity, and a connecting section exposed outside of the housing. An insulative block/spacer is attached to a back side of the housing integrally with a metallic shielding/grounding blade therein. The shielding/grounding blade includes a pair of securing legs at two ends in the transverse direction. A pair of grounding bars are soldered to the outer conductors of the two rows of wires, respectively. Each of the grounding bars includes a pair of securing legs at two ends in the transverse direction. Both the securing legs of the shielding/grounding blade and those of the grounding bars are secured to interior surfaces of the two side walls of the outer shell.

Abstract: An anti-pressure structure of heat dissipation device includes a main body. The main body has a chamber and a bent section. The chamber has a top side and a bottom side. An anti-pressure member is disposed in the chamber at the bent section. A capillary structure is disposed on the bottom side of the chamber. Two sides of the anti-pressure member respectively abut against the top side of the chamber and a surface of the capillary structure. A working fluid is filled in the chamber. By means of the anti-pressure member, the internal vapor chamber with a bending R angle in the main body is prevented from deformation, contraction or damage due to bending.

Abstract: A manufacturing method of a heat dissipation device is disclosed. The heat dissipation device includes a main body and a tubular body. The main body has a chamber contained with a working fluid. A capillary structure is formed on an inner surface of the chamber by means of laser processing. One face of the main body is a condensation face, while the other face of the main body is a heat absorption face. The capillary structure is disposed corresponding to the heat absorption face. The heat absorption face of the main body is made of titanium material. The condensation face is made of titanium material or metal material. The tubular body is correspondingly inserted in the main body. The capillary structure is formed by means of laser processing. This not only solves the problem that the titanium material is difficult to process, but also can enhance the production efficiency.