Abstract: An optical system affixed to an electronic apparatus is provided, including a first optical module, a second optical module, and a third optical module. The first optical module is configured to adjust the moving direction of a first light from a first moving direction to a second moving direction, wherein the first moving direction is not parallel to the second moving direction. The second optical module is configured to receive the first light moving in the second moving direction. The first light reaches the third optical module via the first optical module and the second optical module in sequence. The third optical module includes a first photoelectric converter configured to transform the first light into a first image signal.

Abstract: A method for manufacturing a golf club head having a weight member includes: providing a weight block made of a metal material; disposing an isolation layer on the weight block to form the weight member; delivering a wax material to form a wax pattern covering a portion of the weight member; coating the weight member and the wax pattern with a shell mold plaster to form a shell mold covering the same; performing a de-waxing process which leaves a mold cavity in the shell mold; and casting a molten metal material in the mold cavity to form a club head main body, and removing the shell mold to form the golf club head having the weight member embedded in the club head main body. A golf club head manufactured by the method is also disclosed.

Abstract: An electrical connector includes a body and at least one terminal. The body has a top surface and a bottom surface opposite to each other, multiple receiving holes running through the body from the top surface to the bottom surface, and at least two protruding blocks protruding downward from the bottom surface and located around each of the receiving hole. A gap exists between the two protruding blocks. Each of the protruding blocks has a stopping surface toward the gap. The terminal is disposed in the receiving hole. The terminal has a fixing portion and two clamping arms extending downward from the fixing portion along a plate surface for clamping a tin ball. Bottom ends of the two clamping arms are located in the gap. The stopping surfaces are configured to stop the clamping arms and prevent the clamping arms from moving in a plate thickness direction.

Abstract: A method for manufacturing a metal shell and an electrical connector thereof. The method includes the steps of: S1: providing a metal tube, and cutting the metal tube to form a shell of a predetermined length; S2: flaring one end of the shell, so that the shell is formed with a first tube body and a second tube body extending backward from the first tube body, and an aperture of the second tube body is greater than an aperture of the first tube body; and S3: disposing a buckling structure used for cooperating with an insulating body of the electrical connector on a side surface of the shell.

Abstract: An electrical connector includes a body and at least one terminal. The body has a top surface and a bottom surface opposite to each other, multiple receiving holes running through the body from the top surface to the bottom surface, and at least two protruding blocks protruding downward from the bottom surface and located around each of the receiving hole. A gap exists between the two protruding blocks. Each of the protruding blocks has a stopping surface toward the gap. The terminal is disposed in the receiving hole. The terminal has a fixing portion and two clamping arms extending downward from the fixing portion along a plate surface for clamping a tin ball. Bottom ends of the two clamping arms are located in the gap. The stopping surfaces are configured to stop the clamping arms and prevent the clamping arms from moving in a plate thickness direction.

Abstract: A coaxial connector for a mating device to be inserted therein, includes an insulating body having a sustaining portion, a static terminal having a first contact portion, and a movable terminal having a second contact portion for contacting the first contact portion. The sustaining portion and an object below have a gap therebetween. The static terminal and the movable terminal are fixed to the insulating body. An elastic arm is formed by extending from the second contact portion. The sustaining portion engages the elastic arm. When the mating device is inserted into the coaxial connector, the mating device presses the elastic arm downwards, the second contact portion moves downwards to be separated from the first contact portion, and the elastic arm drives the sustaining portion to move downwards together, such that the sustaining portion butts against the object below to prevent the movable terminal from moving downwards excessively.

Abstract: A coaxial connector for a mating device to be inserted therein, includes an insulating body having a sustaining portion, a static terminal having a first contact portion, and a movable terminal having a second contact portion for contacting the first contact portion. The sustaining portion and an object below have a gap therebetween. The static terminal and the movable terminal are fixed to the insulating body. An elastic arm is formed by extending from the second contact portion. The sustaining portion engages the elastic arm. When the mating device is inserted into the coaxial connector, the mating device presses the elastic arm downwards, the second contact portion moves downwards to be separated from the first contact portion, and the elastic arm drives the sustaining portion to move downwards together, such that the sustaining portion butts against the object below to prevent the movable terminal from moving downwards excessively.

Abstract: An electrical connector for electrically connecting a chip module to a printed circuit board. The electrical connector includes an insulating body and a pressing plate for covering the insulating body. A receiving area for receiving the chip module is disposed on the insulating body. Multiple terminal receiving slots are provided inside the receiving area, and at least one bump is disposed inside the receiving area. An opening is provided at the pressing plate. An urging portion is disposed at each of two opposite sides of the opening, respectively, and pressing force-application points are formed at two ends of the urging portion. When the pressing plate covers the insulating body, the bump is correspondingly located below the force-application points to bear the chip module, so as to avoid warps and deformations of the chip module when pressed.

Abstract: A cable connector and a manufacturing method thereof. The method includes: providing an insulation body, putting a terminal that has a receiving portion into the insulation body, preparing at least one groove on a cable, in which the cable has a first part inserted in the insulation body and a second part extending out of the insulation body, and the groove is provided on the first part, pressing the cable, so that a side edge of the receiving portion pierces the cable at the groove, thereby electrically connecting the terminal and an inner conductor of the cable. The groove enables the terminal to pierce the cable easily, implementing desirable electrical connection between the inner conductor and the terminal, and also stops the cable in the extending direction of the cable, preventing the cable from escaping.

Abstract: An electrical connector for electrically connecting a chip module to a printed circuit board. The electrical connector includes an insulating body and a pressing plate for covering the insulating body. A conductive region for receiving the chip module is disposed on the insulating body. Multiple terminal receiving slots are provided inside the conductive region, and at least one bump is disposed inside the conductive region. An opening is provided at the pressing plate. An urging portion is disposed at each of two opposite sides of the opening, respectively, and pressing force-application points are formed at two ends of the urging portion. When the pressing plate covers the insulating body, the bump is correspondingly located below the force-application points to bear the chip module, so as to avoid warps and deformations of the chip module when pressed.

Abstract: An electrical connector includes an insulating body and a plurality of first terminals, disposed side by side in the insulating body. The insulating body is formed with at least two bridging-portion removal holes. Bridging portions between the first terminals are capable of being removed through the bridging-portion removal holes. The at least two bridging-portion removal holes are respectively formed through plate surfaces of the insulating body, and the at least two bridging-portion removal holes are arranged in a staggered manner in a front-to-rear direction.

Abstract: An electrical connector includes a grounding terminal, a signal terminal and an insulating body. The grounding terminal has an annular body. The annular body is formed by curling and has a seam. The seam extends to form at least one grounding pin. The signal terminal has a base located below the annular body. The base has one end provided with a soldering portion and the other end extending upwards to form a contact portion in the center of the annular body, and the base does not overlap a projection of the seam on a plane where the base locates. The insulating body wrapps the grounding terminal and the signal terminal, and the grounding pin and the soldering portion protrude out of the insulating body.

Abstract: A cable connector and a manufacturing method thereof. The method includes: providing an insulation body, putting a terminal that has a receiving portion into the insulation body, preparing at least one groove on a cable, in which the cable has a first part inserted in the insulation body and a second part extending out of the insulation body, and the groove is provided on the first part, pressing the cable, so that a side edge of the receiving portion pierces the cable at the groove, thereby electrically connecting the terminal and an inner conductor of the cable. The groove enables the terminal to pierce the cable easily, implementing desirable electrical connection between the inner conductor and the terminal, and also stops the cable in the extending direction of the cable, preventing the cable from escaping.

Abstract: An electrical connector includes a grounding terminal, a signal terminal and an insulating body. The grounding terminal has an annular body. The annular body is formed by curling and has a seam. The seam extends to form at least one grounding pin. The signal terminal has a base located below the annular body. The base has one end provided with a soldering portion and the other end extending upwards to form a contact portion in the center of the annular body, and the base does not overlap a projection of the seam on a plane where the base locates. The insulating body wrapps the grounding terminal and the signal terminal, and the grounding pin and the soldering portion protrude out of the insulating body.

Abstract: An electrical connector includes an insulating body and a plurality of first terminals, disposed side by side in the insulating body. The insulating body is formed with at least two bridging-portion removal holes. Bridging portions between the first terminals are capable of being removed through the bridging-portion removal holes. The at least two bridging-portion removal holes are respectively formed through plate surfaces of the insulating body, and the at least two bridging-portion removal holes are arranged in a staggered manner in a front-to-rear direction.

Abstract: An electrical connector includes a body having a plurality of receiving slots, a plurality of terminals respectively accommodated in the receiving slots, each terminal having a stopping portion, and a cover, slideably covered on the body, and having a plurality of pressed surfaces respectively corresponding to the stopping portions. When the cover slides along a first direction relative to the body, the stopping portion limits upward displacement of the pressed surface, so as to limit upward warping of the cover, thereby ensuring good contact between the terminal and a mating element.

Abstract: An electrical connection device for electrically connecting a chip module includes a reinforce device and a socket. The reinforce device includes a load plate, a stiffener, a fixing member and a pressing member. The fixing member is disposed on the load plate and used for fixing the chip module, and at least one positioning portion is disposed on the fixing member. The load plate is pivoted to the stiffener. The pressing member is disposed on the stiffener and used for pressing the load plate to be closed on the stiffener. The socket locates below the chip module, and electrically conduct to the chip module. The socket contacts and is positioned by the positioning portion of the fixing member.

Abstract: An electrical connection device for electrically connecting a chip module includes a reinforce device and a socket. The reinforce device includes a load plate, a stiffener, a fixing member and a pressing member. The fixing member is disposed on the load plate and used for fixing the chip module, and at least one positioning portion is disposed on the fixing member. The load plate is pivoted to the stiffener. The pressing member is disposed on the stiffener and used for pressing the load plate to be closed on the stiffener. The socket locates below the chip module, and electrically conduct to the chip module. The socket contacts and is positioned by the positioning portion of the fixing member.

Abstract: The invention relates to a fastener. The fastener includes: a lower fastening base, in which a pivoting plate is disposed upward on a back end of the lower fastening base and concavely disposed with a limiting groove, an upper fastening plate, disposed on the lower fastening base in a covering manner, in which a back end of the upper fastening plate has at least one pivoting portion pivotally connected to the pivoting plate, a limiting portion, extending backward from the upper fastening plate and penetrating the limiting groove correspondingly, at least one stop block, convexly extending from the limiting portion and located behind the pivoting plate, and a fixing part, disposed on a frond end of the lower fastening base and used for fixing the upper fastening plate to the lower fastening base.

Abstract: A shielded connector. In one embodiment, the shielded connector includes: a seat, including an insulating body with a plurality of through slots and a plurality of positioning slots, in which a shielding body is disposed in the through slot and no shielding body is disposed in the positioning slot, at least one conductive body connected to the shielding bodies, and at least one lead-out portion electrically connecting the conductive body to a motherboard; and a plurality of conductive terminals, each including a contact portion, a body portion extending from the contact portion, and a connecting portion, in which the body portion includes a positioning section extending from the contact portion and in interference fit with the positioning slot, and a conducting section extending from the positioning section into the through slot and not in interference fit with the through slot.