Abstract: A vehicle electrical connector includes an outer shell, an inner shell, and a conductive assembly. The outer shell includes a groove and assembling channels. The assembling channel extends from an opening on an outer side of the groove toward an inner tubular wall surface of the groove. The inner shell is in the outer shell and includes a base and a casing. The casing extends outward from one side of the base. The inner shell includes buckle blocks outside the casing. The buckle block is guided in the assembling channel through a path of the assembling channel, so that the buckle block is positioned in the assembling channel. Hence, after the inner shell is axially inserted into the outer shell and then rotated into a predetermined position, the inner shell and the outer shell can be stably held with each other.

Abstract: An angle connector, including an angle holder, a cable, and multiple contacts, is provided. The angle holder includes a first receiving portion, a second receiving portion, and a first bending portion connected therebetween. Each of the first receiving portion and the second receiving portion has multiple receiving grooves. The cable includes multiple core wires. Each of the contacts includes a first connecting portion, a second connecting portion, and a second bending portion connected therebetween. The first connecting portions for electrically connecting to another electrical connector are embedded in the receiving grooves of the first receiving portion. The second connecting portions electrically connected to the core wires are embedded in the receiving grooves of the second receiving portion.

Abstract: A power connector socket includes a main body and a lamella cage. The main body includes a socket, an opening at a side portion of the socket, and a chamber inside the socket. The lamella cage passes through the socket. The lamella cage includes a ring portion and contact lamellae. The contact lamellae outwardly extend from a side portion of the ring portion and are annularly arranged. The ring portion is in an inner side of the chamber. One of two ends of each of the contact lamellae includes a fixed end formed on the ring portion, a free end outwardly extends from the other end of each of the contact lamellae, and the free ends are positioned at a portion of the main body adjacent to the opening.

Abstract: An automotive connector includes an outer shell, an inner shell mated with the outer shell, and a conductive assembly assembled in the inner shell. The hooks of the outer shell can be detached from the slots of the inner shell, so that the outer shell can be detached from the inner shell. Therefore, another outer shell can be assembled with the inner shell, so that outer shells with different insertion openings can be assembled with the same inner shell conveniently. Therefore, the outer shell of the automotive connector can be replaced quickly.

Abstract: An automotive connector includes an outer shell, an inner shell mated with the outer shell, and a conductive assembly assembled in the inner shell. The hooks of the outer shell can be detached from the slots of the inner shell, so that the outer shell can be detached from the inner shell. Therefore, another outer shell can be assembled with the inner shell, so that outer shells with different insertion openings can be assembled with the same inner shell conveniently. Therefore, the outer shell of the automotive connector can be replaced quickly.

Abstract: A power connector socket includes a housing and a lamella cage. The housing includes a socket and an opening at a side portion of the socket. The lamella cage passes through the socket and includes a ring portion and contact lamellae. The ring portion is adjacent to the opening. The contact lamellae outwardly extend from a side portion of the ring portion and are annularly arranged. One of two ends of each of the contact lamellae includes a fixed end formed on the ring portion, and a free end outwardly extends from the other end of each of the contact lamellae. The contact lamellae include contact portions extending toward an interior portion of the socket. The contact portions are a first position adjacent to the fixed end of each of the contact lamellae and on a second position of a middle portion of each of the contact lamellae.

Abstract: A vehicle electrical connector includes an outer shell, an inner shell, and a conductive assembly. The outer shell includes a groove and assembling channels. The assembling channel extends from an opening on an outer side of the groove toward an inner tubular wall surface of the groove. The inner shell is in the outer shell and includes a base and a casing. The casing extends outward from one side of the base. The inner shell includes buckle blocks outside the casing. The buckle block is guided in the assembling channel through a path of the assembling channel, so that the buckle block is positioned in the assembling channel. Hence, after the inner shell is axially inserted into the outer shell and then rotated into a predetermined position, the inner shell and the outer shell can be stably held with each other.

Abstract: An electro mechanical or electrical connector for use in an electric vehicle including a plug body, a sealing ring, a locking member, and a cable is provided. The plug body has an inner wall and at least one locking recess on the inner wall. The sealing ring and the locking member are respectively disposed on the inner wall. The locking member has at least one elastic locking hook. The cable passes through the plug body, the sealing ring, and the locking member. The locking member is locked in the locking recess by the elastic locking hook to be attached to the inner wall, and forces the sealing ring to seal a space between the inner wall and the cable.

Abstract: An angle connector, including an angle holder, a cable, and multiple contacts, is provided. The angle holder includes a first receiving portion, a second receiving portion, and a first bending portion connected therebetween. Each of the first receiving portion and the second receiving portion has multiple receiving grooves. The cable includes multiple core wires. Each of the contacts includes a first connecting portion, a second connecting portion, and a second bending portion connected therebetween. The first connecting portions for electrically connecting to another electrical connector are embedded in the receiving grooves of the first receiving portion. The second connecting portions electrically connected to the core wires are embedded in the receiving grooves of the second receiving portion.

Abstract: An electrical connector and an electrical wire connection method for connecting electrical connectors with each other are provided. The electrical connector includes a conductive body, a conductive material, and a cable member. One of two ends of the conductive body includes an insertion portion, the other end of the conductive body includes a wire-connection post, and the wire-connection post has a groove. The conductive material is disposed in the groove. The cable member includes core wires inserted into the groove. The conductive medium is distributed over the space between the core wires and the groove.

Abstract: An electrical connector and an electrical wire connection method for connecting electrical connectors with each other are provided. The electrical connector includes a conductive body, a conductive material, and a cable member. One of two ends of the conductive body includes an insertion portion, the other end of the conductive body includes a wire-connection post, and the wire-connection post has a groove. The conductive material is disposed in the groove. The cable member includes core wires inserted into the groove. The conductive medium is distributed over the space between the core wires and the groove.

Abstract: A power connector socket includes a housing and a lamella cage. The housing includes a socket and an opening at a side portion of the socket. The lamella cage passes through the socket and includes a ring portion and contact lamellae. The ring portion is adjacent to the opening. The contact lamellae outwardly extend from a side portion of the ring portion and are annularly arranged. One of two ends of each of the contact lamellae includes a fixed end formed on the ring portion, and a free end outwardly extends from the other end of each of the contact lamellae. The contact lamellae include contact portions extending toward an interior portion of the socket. The contact portions are a first position adjacent to the fixed end of each of the contact lamellae and on a second position of a middle portion of each of the contact lamellae.

Abstract: A power connector socket includes a main body and a lamella cage. The main body includes a socket, an opening at a side portion of the socket, and a chamber inside the socket. The lamella cage passes through the socket. The lamella cage includes a ring portion and contact lamellae. The contact lamellae outwardly extend from a side portion of the ring portion and are annularly arranged. The ring portion is in an inner side of the chamber. One of two ends of each of the contact lamellae includes a fixed end formed on the ring portion, a free end outwardly extends from the other end of each of the contact lamellae, and the free ends are positioned at a portion of the main body adjacent to the opening.

Abstract: A method includes the steps: providing a pre-structure comprising a first pre-embedded member and a second pre-embedded member, wherein the first pre-embedded member has a first positioning segment, a connecting segment connected to the first positioning segment, a first piece, and a bridge; the second pre-embedded member has a second positioning segment, a hanging segment connected to the second positioning segment, and a second piece, wherein the bridge is connected to the connecting segment and the second piece; fixing the bridge onto the hanging segment; segmenting the connecting portion of the bridge and the connecting segment to form a first embedded member, which is defined by the first positioning segment, the connecting segment and the first piece, and a second embedded member, which is defined by the second positioning segment, the hanging segment, the second piece and the bridge; separating the second embedded member from the first embedded member.

Abstract: A method includes the steps: providing a pre-structure comprising a first pre-embedded member and a second pre-embedded member, wherein the first pre-embedded member has a first positioning segment, a connecting segment connected to the first positioning segment, a first piece, and a bridge; the second pre-embedded member has a second positioning segment, a hanging segment connected to the second positioning segment, and a second piece, wherein the bridge is connected to the connecting segment and the second piece; fixing the bridge onto the hanging segment; segmenting the connecting portion of the bridge and the connecting segment to form a first embedded member, which is defined by the first positioning segment, the connecting segment and the first piece, and a second embedded member, which is defined by the second positioning segment, the hanging segment, the second piece and the bridge; separating the second embedded member from the first embedded member.

Abstract: A differential signal assembly includes two pairs of differential signal wafers arranged in one row. Each differential signal wafer includes a plurality of mating portions arranged in one column and a plurality of mounting portions arranged in one column. In one of the two pairs of differential signal wafers, each differential signal wafer has a grounding pin and an offset grounding pin respectively arranged at two opposite ends of the column of mounting portions thereof, each offset grounding pin has an offset with respect to the corresponding column of mounting portions, the two distal ends of the mounting portions of each differential signal wafer are two signal mounting portions, cooperating with the two signal mounting portions of the other differential signal wafer. Thus, the grounding pin and the offset grounding pin of each differential signal wafer are configured to shield the adjacent signal mounting portions.

Abstract: The present invention discloses a terminal network of an electrical connector, comprising: a terminal array used to form on a connector surface. The terminal array includes a plurality of terminal rows alternately arranged, wherein each of the terminal rows includes at least one signal transmitting unit and at least one ground unit. Each of the signal transmitting unit and the ground unit is arranged in an alternative form with each other in the same row. Each of the signal transmitting unit and the ground unit in one row are respectively aligned to the ground unit and signal transmitting unit in an adjacent row. By means of the terminal array, crosstalk between or within terminals can be decreased while the use of the ground unit is decreased and the use of the signal transmitting unit is increased.

Abstract: The present invention discloses a coupling terminal structure and electrical connector using the same. The coupling terminal structure comprises: at least a pair of first terminal and second terminal, wherein the first terminal includes a first contact portion, a first neck portion and a first extension portion, the second terminal includes a second contact portion, a second neck portion and a second extension portion. The first contact portion is disposed aside to the second contact portion at a first distance, while the first extension portion is disposed aside to the second extension portion at a second distance. The first distance is greater than the second distance, thereby forming an electromagnetic coupling effect between the first extension portion and the second extension portion to provide better shielding and decrease interference between and within terminals.

Abstract: The present invention discloses a terminal network of an electrical connector, comprising: a terminal array used to form on a connector surface. The terminal array includes a plurality of terminal rows alternately arranged, wherein each of the terminal rows includes at least one signal transmitting unit and at least one ground unit. Each of the signal transmitting unit and the ground unit is arranged in an alternative form with each other in the same row. Each of the signal transmitting unit and the ground unit in one row are respectively aligned to the ground unit and signal transmitting unit in an adjacent row. By means of the terminal array, crosstalk between or within terminals can be decreased while the use of the ground unit is decreased and the use of the signal transmitting unit is increased.

Abstract: The present invention discloses a coupling terminal structure and electrical connector using the same. The coupling terminal structure comprises: at least a pair of first terminal and second terminal, wherein the first terminal includes a first contact portion, a first neck portion and a first extension portion, the second terminal includes a second contact portion, a second neck portion and a second extension portion. The first contact portion is disposed aside to the second contact portion at a first distance, while the first extension portion is disposed aside to the second extension portion at a second distance. The first distance is greater than the second distance, thereby forming an electromagnetic coupling effect between the first extension portion and the second extension portion to provide better shielding and decrease interference between and within terminals.