Abstract: A simple connector structure includes a connecting body. The connecting body has a first accommodating space and a second accommodating space. The first accommodating space is matched with a PCB, and the second accommodating space is matched with a ribbon cable body. In addition, the first accommodating space is provided with at least one first conductive part, and the second accommodating space is provided with at least one second conductive part. Therefore, quick connection and labor cost reduction can be effectively achieved through connecting the first accommodating space with the PCB and connecting the second accommodating space with the ribbon cable body.

Abstract: A flat cable unit with light emitting elements includes lower and upper insulating layers, a plurality of metal conductors and light emitting elements. The plurality of metal conductors are disposed in parallel with each other and between the upper and lower insulating layers, and include two power conductors and multiple device conductors. A conductive contact is formed on one end of the power conductor. The device conductors are exposed to openings of the upper insulting layer so as to form a plurality of connecting portions. Each of the power conductors is provided with a linking portion, one end of the linking portion linked to the power conductor, and the other end of the linking portion linked to any one of the device conductors. A plurality of light emitting elements are disposed on the openings and electrically connect the connecting portions.

Abstract: A flexible flat cable, including a plurality of preprocess conductors and a insulating layer, wherein the insulating layer includes upper and lower insulating layers, each of the preprocess conductors has upper and lower faces and an original width, and the upper and lower faces are being flat and attached tightly and closely to the upper and lower insulating layers, respectively. Ends of the preprocess conductors expose out of the insulating layer and are being processed to form a plurality of contact faces, and each of the contact faces has a processed width which is larger than the original width.

Abstract: An electrical connector includes a dielectric housing, a plurality of conductive terminals, a fixing strip, a plurality of wires, and an upper shell, the dielectric housing having an upper face and a lower face opposite to the upper face, the upper face being provided with a plurality of terminal slots and recesses, the conductive terminals having a contact portion, a base portion, an engaged portion and received in the corresponding terminal slots, the engaged portion being engaged against the corresponding recesses, the fixing strip being transversally disposed on the upper face of the dielectric housing and across the conductive terminals and the terminal slots for securing the conductive terminals in the terminal slots, the wires respectively connecting with the base portions of the conductive terminals, and an upper shell is assembled on the dielectric housing above the fixing strip.

Abstract: An electrical connector comprises a circuit board and a first housing, wherein the circuit board has a butt portion and a lap portion, the butt portion is formed thereon with a plurality of first contacts, the lap portion is formed thereon with a plurality of second contacts, the first contacts and the second contacts are connected with each other, the second spacing between the adjacent second contacts is larger than the first spacing between the adjacent first contacts, and the first contacts are arranged to couple to a butt connector. The first housing is assembled on the circuit board and positioned above the lap portion.

Abstract: The present invention discloses an electric connector assembly including an insulator body, a fixed part, multiple terminals, a flexible flat cable (FFC) and a metal case. The insulator body has a rectangular base, multiple accommodating tanks are located one side of the base, and an inserting part passing through the inner place of the base is located at the edge of the other side of the base. The fixed part is assembled at the inserting part of the insulating body and can accommodating multiple terminals. Each terminal has an upper contact arm and a lower contact arm, which can simultaneously contact with the FFC and maintain the steadiness of the FFC. At least one side surface of the FFC has multiple contact points, which are clipped between the terminals for electrically connection. The metal case covering one side of the insulator body seizes the FFC to achieve the grounding function.

Abstract: A flexible flat cable and a manufacturing method thereof are disclosed. The Flexible flat cable is manufactured by the following steps of: forming a metal layer on an insulated base layer, then forming a protective layer on the metal layer which had been formed above the insulated base layer, to make the metal layer be covered between the insulated base layer and the protective layer for forming a composite shelter, then preparing a conducting layer and an insulated substrate, and then spreading an insulated glue layer on the bottom of the composite shelter and then combining the composite shelter, the conducting layer and the insulated substrate by a thermo-compression bonding process to make the conducting layer be covered between the insulated base layer and the insulated substrate for forming a flexible flat cable having the composite shelter.

Abstract: A cable connector includes a flat cable having a plurality of first electric conductive sections formed on a first end and a plurality of second electric conductive sections formed on a second end thereof. A circuit board is electrically connected to the first end of the flat cable. The circuit board has a plurality of first conductive sections and a plurality of second conductive sections respectively formed thereon. The plurality of first conductive sections is electrically connected to the plurality of first electric conductive sections of the flat cable. The plurality of first conductive sections and the plurality of second conductive sections are electrically connected to each other via a displacement circuit disposed in the circuit board.

Abstract: A method for assembling a flexible bus connector is disclosed, which includes the following steps. The first is a preparing step. An insulative housing and a plurality of terminals are provided. The insulative housing defines an opening and a plurality of passageways, and forms an upper side wall, a lower side wall, and a rear wall corresponding to the opening. The second is an assembling step. Each terminal includes at least a contact portion, a support portion and a soldering portion. The contact portion and the support portion are located near the opening when assembled, and the soldering portion extending toward the rear wall of the insulative housing. The third is a positioning step. A lower end of the soldering portion is located on a position where the lower end is lower than an inner surface of the lower side wall of the insulative housing.

Abstract: A flexible cable positioning device is disclosed. The flexible cable positioning device comprises a baseboard, a positioning housing, a cover and a flexible cable. The baseboard has a plurality of contact points. The positioning housing is located on the baseboard and corresponded to the contact points. The cover is mounted on the positioning housing, and has a plurality of protruding parts corresponding to the contact points. The flexible cable is accommodated removably in the positioning housing, and the flexible cable has a contact part disposed between the contact points and the protruding parts. The cover is for pressing and fixing the flexible cable into the positioning housing, and the protruding parts are for fixing the contact part of the flexible cable to the contact points of the baseboard. Therefore, the contact part of the flexible cable is electrically connected with the contact points of the baseboard firmly and stably.

Abstract: The present invention relates to an electrical connector for fastening a flexible flat cable. The electrical connector includes an insulating body, a plurality of terminals, a pair of shims and a flip cover. The flip cover has rotatable portions pivotally disposed within the guiding grooves of the terminals, which enable the flip cover to rotate between a position for an open loop and a position for a closed loop. When the flip cover is in the position for an open loop, the rotatable portions are embedded into the guiding grooves. When the flip cover is in the position for a closed loop, the rotatable portions are propped against the upper arms and the lower arms simultaneously such that the upper contact portions are propped downwards tightly against the flexible flat cable to securely hold and position the flexible flat cable.

Abstract: An electrical connector is provided, which includes an insulative housing and a flexible bus inserted into the insulative housing. The insulative housing includes a base defining a slot therein, and a mating portion connected with the base. Mounting portions are integrally formed on opposite sides of the base for receiving fixing sheets. The flexible bus has a top surface and a bottom surface, the bottom surface forming a plurality of contact points on an end thereof. When the flexible bus extends into the slot of the insulative housing, contact points of the flexible bus are exposed out of a side of the mating portion for electrically connecting with a mating connector.

Abstract: The present invention discloses a flexible flat cable connector comprising an insulating body, a plurality of conductive terminals and a cover. The conductive terminals are inserted into the terminal grooves of the insulating body, and the cover is assembled on the top of the containing space of the insulating body. The first switch terminal and the second switch terminal are disposed in the insulating body, and the first switch terminal is located above the second switch terminal. When a flexible flat cable which has a lobe located at the one side is inserted into the containing space, the lobe of the flexible flat cable can contact against on the first switch terminal which then presses downwardly to the second switch terminal so as to detect whether or not the flexible flat cable is correctly positioned, and cause the flexible flat cable to conduct with the conductive terminal.

Abstract: A board-to-board connector has a first insulative housing and a plurality of first terminals received in the first insulative housing. The first insulative housing defines a plurality of first passageways arrayed in two rows opposing to each other. Positioning portions are formed on the first insulative housing and respectively protrude into the first passageways. Each first terminal includes a base, a first soldering portion extending outwardly from a bottom of a side of the base, and a bifurcate upper contact portion extending upwardly from the base. The upper contact portion has two contact sections, a concave portion being defined between the two contact sections for corresponding to the positioning portion. When the first terminals are inserted into the first insulative housing, the concave portions of the first terminals lock with the positioning portions in the first passageways for assuring reliable engagement of the first terminals to the first insulative housing.

Abstract: An antenna module of mobile phone has an antenna, a feed-in terminal and a grounding terminal. The antenna includes an antenna body for receiving and radiating electromagnetic waves, a feed-in portion and a grounding portion. The feed-in portion forms a first bump array with adhesive on a surface thereon. The grounding portion forms a second bump array with adhesive on a surface thereon. The first bump array and adhesive of the feed-in portion connect with the feed-in terminal, and the second bump array and adhesive of the grounding portion connect with the grounding terminal. The first bump array and the second bump array respectively pierce oxidation coatings on surfaces of the feed-in terminal and the grounding terminal, producing contact positive pressure, electrically connecting the feed-in portion and the grounding portion with the feed-in terminal and the grounding terminal.

Abstract: An integrated module of antenna and connector has an insulative housing receiving a plurality of conductive terminals therein, a metal shell shielding the insulative housing, and a coupling device assembled on the metal shell. The metal shell is grounded and defines a slot with a particular shape. A feed-in terminal is provided on a side of the slot and includes a soldering portion and a contact portion. The soldering portion of the feed-in terminal connects with a circuit board. The coupling device contacts the contact portion of the feed-in terminal, feeding in high-frequency voltage which forms voltage difference relative to a plane of the slot. A resonant electromagnetic field is produced in the slot for working as an antenna for electromagnetic wave radiation. Thus, functions of an antenna and a connector are combined, reducing the occupied space and decreasing the cost.

Abstract: An electrical connector has an insulative housing, a plurality of conductive terminals received in the insulative housing, and an ejecting device. The insulative housing defines a slot for receiving an electrical card, and a groove at a side thereof. The ejecting device is assembled to and slidable along the groove. The ejecting device includes a push block, a guiding lever and a spring element. The push block forms a resilient arm which is lockable with a card hole of the electrical card. A rib is formed in the groove. When the electrical card moves along the groove of the insulative housing and is located on a final position, the resilient arm abuts against a top of the rib for preventing the resilient arm from moving downward. In such a way the electrical card is prevented from breaking off during movement and at a final position, ensuring reliable and stable data transmission.

Abstract: An electrical connector includes an insulative housing receiving a plurality of terminals therein, an upper cover mounted on the insulative housing, a flexible bus, and a casing shielding the upper cover and fixed to the insulative housing. The insulative housing has a mating portion for mating with a mating connector. The flexible bus has a plurality of contacts on an end thereof. The upper cover presses against the flexible bus in assembly, forcing the contacts to contact the terminals. The casing biases against the upper cover, forcing the contacts of the flexible bus to contact the terminals reliably. The flexible bus of the electrical connector does not contact a mating connector directly, thereby lengthening the life of the flexible bus even after repeated plugging.

Abstract: An electrical connector is disclosed including an insulative housing, a pair of lock strips assembled to the insulative housing, and a casing assembled to the insulative housing for retaining the lock strips. The insulative housing includes a plurality of passageways receiving a plurality of conductive terminals therein. Mounting portions are respectively integrally formed on both sides of the passageways. Each mounting portion defines a plug groove, and an abutting portion is formed in the plug groove against burden of too large force. Retention portions are formed on the mounting portions for retaining the lock strips. The lock strips are respectively inserted into the plug grooves from top to bottom. Each lock strip includes a pressing portion projecting thereon. Latch portions extend from the pressing portions and are movable to lock with or disengage from a mating connector. Thus the lock strips are reliably retained.

Abstract: An electrical connector includes an insulative housing, a plurality of terminals, a holding member and a shielding covering having a latch element, wherein the holding member including a plurality of resilient plates, a coupling portion for coupling the resilient plates, and a pair of extending portions. In assembly, the holding member is inserted into the insulative housing in a direction of the rear face of the insulative housing and therefore the extending portion adheres to the rear face, then the shielding covers the insulative housing in a direction of the front face of the insulative housing and therefore the latch element is inserted through the slot and interferentially contacting the extending portion of the holding member.