Abstract: An electrical connector (100) includes an insulative body (1) having a wide tongue (123) and a narrow tongue (121) split by a gap (124) therebetween. A metallic shell (32) includes a front pocket (320) defining a large receiving cavity (327) enclosing the wide tongue (123), a small receiving cavity (325) enclosing the narrow tongue (121), and a non-circumferentially enclosed notch structure (33) which protrudes into the gap (124) so as to form the large receiving cavity (327) and the small receiving cavity (325). Besides, the notch structure (33) defines a notch (330) opened to an exterior from a bottom side thereof. First and second sets of contacts (211, 212) are located in the wide tongue and the narrow tongue, respectively, and the first contacts (211) are compatible to version 2.0 Micro Universal Serial Bus.

Abstract: An electrical connector (100) includes an insulative body (1) having a wide tongue (123) and a narrow tongue (121) split by a gap (124) therebetween. A metallic shell (32) includes a front pocket (320) defining a large receiving cavity (327) enclosing the wide tongue (123), a small receiving cavity (325) enclosing the narrow tongue (121), and a non-circumferentially enclosed notch structure (33) which protrudes into the gap (124) so as to form the large receiving cavity (327) and the small receiving cavity (325). Besides, the notch structure (33) defines a notch (330) opened to an exterior from a bottom side thereof. First and second sets of contacts (211, 212) are located in the wide tongue and the narrow tongue, respectively, and the first contacts (211) are compatible to version 2.0 Micro Universal Serial Bus.

Abstract: An electrical connector (100) includes an insulative body (1) having a wide tongue (123) and a narrow tongue (121) split by a gap (124) therebetween. A metallic shell (32) includes a front pocket (320) defining a large receiving cavity (327) enclosing the wide tongue (123), a small receiving cavity (325) enclosing the narrow tongue (121), and a non-circumferentially enclosed notch structure (33) which protrudes into the gap (124) so as to form the large receiving cavity (327) and the small receiving cavity (325). Besides, the notch structure (33) defines a notch (330) opened to an exterior from a bottom side thereof. First and second sets of contacts (211, 212) are located in the wide tongue and the narrow tongue, respectively, and the first contacts (211) are compatible to version 2.0 Micro Universal Serial Bus.

Abstract: An electrical connector (100) includes an insulative body (1) having a wide tongue (123) and a narrow tongue (121) split by a gap (124) therebetween. A metallic shell (32) includes a front pocket (320) defining a large receiving cavity (327) enclosing the wide tongue (123), a small receiving cavity (325) enclosing the narrow tongue (121), and a non-circumferentially enclosed notch structure (33) which protrudes into the gap (124) so as to form the large receiving cavity (327) and the small receiving cavity (325). Besides, the notch structure (33) defines a notch (330) opened to an exterior from a bottom side thereof. First and second sets of contacts (211, 212) are located in the wide tongue and the narrow tongue, respectively, and the first contacts (211) are compatible to version 2.0 Micro Universal Serial Bus.

Abstract: An electrical connector assembly (100) comprises an insulative body (1) integrally including a forward part (12) and a backward part (11). A main shell (32) includes a front pocket (320) enclosing the forward part (12), and a back segment (322) covering an upper portion of the backward part (11) of the body (1). A sub-shell (31) is assembled with the main shell (32), and includes a lower piece (316) covering a lower portion of the backward part (11). Therefore, the main shell (32), the sub-shell (31) are assembled with each other to provide a good shielding enclosure for the insulative body (1), where the contact terminals (2) are held therein.

Abstract: An electrical connector (100) includes an insulative housing (1) and at least one contact (2) received and retained in the housing. The housing defines a mating face (10), a receiving cavity (101) running through the mating face for receiving a mating connector (200) and at least one groove (131) disposed at a sidewall of the receiving cavity and communicating with the receiving cavity. The at least one contact defines a retaining portion (21) retained in the at least one groove, a contacting portion (23) bending into the cavity and at least one guiding portion (24) extending from the contacting portion along a mating direction for guiding the mating connector to enter into the receiving cavity, and a free edge (241) of the at least one guiding portion extends into the corresponding at least one groove.

Abstract: An electrical connector assembly (100) comprises an insulative body (1) integrally including a forward part (12) and a backward part (11). A main shell (32) includes a front pocket (320) enclosing the forward part (12), and a back segment (322) covering an upper portion of the backward part (11) of the body (1). A sub-shell (31) is assembled with the main shell (32), and includes a lower piece (316) covering a lower portion of the backward part (11). Therefore, the main shell (32), the sub-shell (31) are assembled with each other to provide a good shielding enclosure for the insulative body (1), where the contact terminals (2) are held therein.

Abstract: A process for production of a magnet which comprises step of supplying a slurry S containing magnetic powder and a dispersing medium into the cavity C of a molding apparatus 12, a step of compression molding the slurry S while applying a magnetic field to the slurry S to obtain a molded article and a step of sintering the molded article to obtain a magnet, wherein the molding apparatus 12 comprises a die 121 having a through-hole 121a into which the slurry S is supplied, a slurry supply gate 121d being formed in the inner wall surface 121b, a die 122 inserted in the through-hole 121a and a die 123 that forms a cavity C together with the dies 123, 122, the slurry S being supplied in an amount such that it is less than the volume of the cavity C when the die 122 has been inserted in the through-hole 121a and has blocked the slurry supply gate 121d, and in the step of obtaining the molded article, the slurry S is compression molded after the die 122 has blocked the slurry supply gate 121d.

Abstract: An electrical connector (100) includes an insulative housing (1) and at least one contact (2) received and retained in the housing. The housing defines a mating face (10), a receiving cavity (101) running through the mating face for receiving a mating connector (200) and at least one groove (131) disposed at a sidewall of the receiving cavity and communicating with the receiving cavity. The at least one contact defines a retaining portion (21) retained in the at least one groove, a contacting portion (23) bending into the cavity and at least one guiding portion (24) extending from the contacting portion along a mating direction for guiding the mating connector to enter into the receiving cavity, and a free edge (241) of the at least one guiding portion extends into the corresponding at least one groove.

Abstract: A receptacle connector (100) includes a metal shield (3) having the cover (31) and an opposite base (32). The cover (31) includes a pair of top lateral wings (312). The base includes a pair of bottom lateral wings (322) for mating with the respective top lateral wings (312). The top lateral wing (312) defines a first portion of a whole lateral wing board, while the bottom lateral wing (322) defines a second portion adapted to contribute towards completing the whole lateral wing board. Thus, the metal shield (3) is integrated by the cover (31) and the base (32), each of which is molded by a single sheet.

Abstract: A process for production of a magnet which comprises step of supplying a slurry S containing magnetic powder and a dispersing medium into the cavity C of a molding apparatus 12, a step of compression molding the slurry S while applying a magnetic field to the slurry S to obtain a molded article and a step of sintering the molded article to obtain a magnet, wherein the molding apparatus 12 comprises a die 121 having a through-hole 121a into which the slurry S is supplied, a slurry supply gate 121d being formed in the inner wall surface 121b, a die 122 inserted in the through-hole 121a and a die 123 that forms a cavity C together with the dies 123, 122, the slurry S being supplied in an amount such that it is less than the volume of the cavity C when the die 122 has been inserted in the through-hole 121a and has blocked the slurry supply gate 121d, and in the step of obtaining the molded article, the slurry S is compression molded after the die 122 has blocked the slurry supply gate 121d.

Abstract: An micro coaxial cable connector assembly, comprising: an elongate insulative housing having a base portion, a tongue portion extending from the base portion, and a plurality of passageways defined through the base portion and the tongue portion; a plurality of contacts received in the passageways of the insulative housing; a FPC received in the tongue portion; a plurality of wires soldered on the FPC received in the tongue portion; a conductive grounding shield covered onto the insulating housing and the tongue portion; a insulative film adhibited under the conductive grounding shield so that the assembly of the electrical connector is convenient.

Abstract: A receptacle connector (100) includes a metal shield (3) having the cover (31) and an opposite base (32). The cover (31) includes a pair of top lateral wings (312). The base includes a pair of bottom lateral wings (322) for mating with the respective top lateral wings (312). The top lateral wing (312) defines a first portion of a whole lateral wing board, while the bottom lateral wing (322) defines a second portion adapted to contribute towards completing the whole lateral wing board. Thus, the metal shield (3) is integrated by the cover (31) and the base (32), each of which is molded by a single sheet.

Abstract: An electrical connector (100) adapted for connecting/disconnecting with/from a complementary connector in a front-to-back direction, comprises a shell (1), an insulative housing (2), a pair of locking members (3) and a plurality of contacts (4) received in the insulative housing. The shell comprises top surface (113), a pair of lateral surfaces (114) and a bottom surface (117), said surfaces defines a receiving space, one of the surfaces forms a pair of resilient tabs (1170) bent into the receiving space. The insulative housing received in the receiving space. The locking members assembled on the longitudinal opposite ends of the insulative housing and received in the receiving space, each forms a stopping projection (37) projecting therefrom into the receiving space. The resilient tabs, respectively, resist with the stopping projections of the locking members to stop the locking member from moving.

Abstract: An electrical connector (100) adaptor for connecting with a complementary connector in a mating direction, comprises a shell (1), an insulative housing (2) received in the shell and a plurality of contacts (3) received in the housing. The shell comprises a top surface (11), a pair of lateral surfaces (13, 14), respectively, connecting with the top surface, and a rear surface (15), respectively, bent from the lateral surfaces. The two-part rear surface comprises a base plate (151) and a shielded plate (152) extending rearwardly from the base plate. Each contact comprises a tail portion (32) exposed out of the insulative housing. The shielded plate is above and covers the tail portions of the contacts.

Abstract: An micro coaxial cable connector assembly, comprising: an elongate insulative housing having a base portion, a tongue portion extending from the base portion, and a plurality of passageways defined through the base portion and the tongue portion; a plurality of contacts received in the passageways of the insulative housing; a FPC received in the tongue portion; a plurality of wires soldered on the FPC received in the tongue portion; a conductive grounding shield covered onto the insulating housing and the tongue portion; a insulative film adhibited under the conductive grounding shield so that the assembly of the electrical connector is convenient.

Abstract: An electrical connector (100) adapted for connecting/disconnecting with/from a complementary connector in a front-to-back direction, includes a shell (1), an insulative housing (2) and a number of contacts (4) received in the housing. The shell includes a main body (111), a connecting tab (115) and a mating portion (112). The main body further includes a receiving space surrounded by a top surface (113), a bottom surface (117), and a pair of lateral surfaces (114). The connecting tab only connects with one edge of said surface of the main body. The mating portion extends from the connecting tab in the front-to-back direction. The insulative housing includes a base portion (21) received in the receiving space of the main body of the shell, and a tongue portion (22) extending from the base portion along the mating direction and received in the mating portion of the shell.

Abstract: An electrical connector (100) adapted for connecting/disconnecting with/from a complementary connector in a front-to-back direction, comprises a shell (1), an insulative housing (2), a pair of locking members (3) and a plurality of contacts (4) received in the insulative housing. The shell comprises top surface (113), a pair of lateral surfaces (114) and a bottom surface (117), said surfaces defines a receiving space, one of the surfaces forms a pair of resilient tabs (1170) bent into the receiving space. The insulative housing received in the receiving space. The locking members assembled on the longitudinal opposite ends of the insulative housing and received in the receiving space, each forms a stopping projection (37) projecting therefrom into the receiving space. The resilient tabs, respectively, resist with the stopping projections of the locking members to stop the locking member from moving.