228results about "One pole connections" patented technology

A plug-in connection comprises a plug-in connector (1) and a mating plug-in connector that can be plugged together with the latter. The plug-in connector (1) has a housing (2) into which an electrical conductor (3) is inserted. The electrical conductor (3) is electrically contacted with a contact partner (4) likewise arranged in the housing (2) by means of their surfaces coming to rest on each other. The contact partner (4) is contacted via its circumferential end face (5) with a contact partner of the mating plug-in connector in such a way that the end faces come to rest on each other. The plugging-together is effected and supported by a screw (6). The screw includes insulation (e.g., insulating element (12) or a coating) such that the screw (6) does not touch voltage-carrying parts such as the electrical conductor (3) and / or the contact partner (4).

The invention relates to a spring-loaded terminal connection for connecting an electrical conductor by means of spring force. The spring-loaded terminal connection comprises at least one busbar and a clamping spring having a clamping leg with a clamping edge for clamping an electrical conductor at a clamping point on a contact section of the busbar. The spring-loaded terminal connection also comprises a retaining element formed integrally with the clamping spring and configured to hold the clamping leg in an open position. The invention also relates to a conductor terminal having such a spring-loaded terminal connection.

The present invention relates to an electrical plug connector for an electrical connection system. The electrical plug connector comprises a plug connector housing comprising a housing body and a busbar portion. The busbar portion is at least partially accommodated in the plug connector housing. The busbar portion includes a busbar conductor, and a busbar end which is integrally formed with the busbar conductor. The busbar end includes a connection portion that is configured for being plugged to a mating connector to establish an electrical connection. The busbar end further includes a retention means which is configured to engage with a corresponding retention means to receive pull forces being imposed on the busbar portion in a direction opposite to a mating direction. The plug connector housing has a corresponding retention means that engages with the retention means when the busbar portion is at least partially accommodated in the plug connector housing.

A single-pole plug connector system including of a plug connector and a mating plug connector, wherein the plug connector has a plug connector housing, a plug connector contact seal, and a plug connector contact element, and wherein the mating plug connector has a mating plug connector housing, a mating plug connector contact seal, a mating plug connector touch-protection device or means, and a mating plug connector contact element. The plug connector contact seal is in functional engagement with a plug connector sealing spring, and therefore the plug connector contact seal is arranged so as to be displaceable within the plug connector housing in the plug-in direction counter to a force of the plug connector sealing spring. Furthermore, the mating plug connector contact seal is in functional engagement with a mating plug connector sealing spring, and therefore the mating plug connector contact seal is arranged so as to be displaceable within the mating plug connector housing in the mating plug-in direction counter to a force of the mating plug connector sealing spring.

The disclosed technology can provide an improved connection system for multiple conductors. A grounding connector system can include a connector body with a main bonding receptacle and a secondary bonding receptable, to receive and provide an electrical connection between a first conductor and one or more second conductors. The secondary bonding receptacle can include tapered side walls or a substantially planar area.

The invention is a new electrical connector (C), comprising at least one main body (1) suited to be mechanically coupled with a corresponding main body (T) of a corresponding electrical connector (C1), two or more fastening elements (2, 3, 4) suited to fasten the cable to said main body (1), an electrical contact pin (5) housed in said main body (1), a locking element (6) suited to lock the cable conductor to the contact pin (5), suited to fit around said contact pin (5), and wherein the connection of said locking element (6) to said contact pin results in that said locking element (6) is completely or partially inserted into at least one generically linear opening or slot (5f) or notch of said contact pin (5).

The utility model discloses a connector terminal, an electric connection assembly and a connector. The connector terminal includes: a fixing portion having first and second sides spaced apart from each other in a transverse direction; the first side plate is connected with the first side of the fixing part; the second side plate is connected with the second side of the fixing part; one end of the cantilever part is connected with the first side plate and the other end is suspended; one end of the elastic arm part is connected with the second side plate, and the other end is connected with the second side of the fixing part. The cantilever part is in a V shape which is arched outwards, the elastic arm part is in a bridge shape which is arched outwards, the cantilever part and the elastic arm part are opposite to each other at an interval in the transverse direction, and the cantilever part of the connector terminal is used for electrically contacting with the elastic arm part of another adjacent connector terminal so as to electrically connect the two adjacent connector terminals. According to the utility model, the two adjacent connector terminals in the connector are directly and electrically contacted with each other, and an additional adapter connector is not needed, so that the structure of a connector product is simplified, the manufacturing cost is reduced, and the size of the connector product is reduced.

Provided in the present application are an antenna spring and an electronic device. The mounting space for the antenna spring can be reduced, and the space utilization rate in the electronic device is improved, thereby facilitating miniaturization design of the electronic device. The electronic device comprises a frame, an antenna spring, a circuit board and an electrically conductive elastic piece, wherein the antenna spring, the circuit board and the electrically conductive elastic piece are all mounted on an inner side of the frame. The frame comprises a frame antenna; the antenna spring is located between the frame antenna and the circuit board; the antenna spring comprises a fixed portion, an abutting portion and a connecting portion, wherein the fixed portion and the abutting portion are both fixedly connected to the connecting portion, the fixed portion is fixedly connected to the frame antenna, and the projection of the abutting portion on the connecting portion and the fixed portion are spaced apart from each other; and the electrically conductive elastic piece is mounted on the side of the circuit board facing the antenna spring, and abuts against the abutting portion.

The invention is a jump starting system for conducting a charging operation with various combinations of two automotive batteries in which one or both batteries is either a conventional battery, a battery with embossed electrical contact sockets, or a battery with internal electrical contact slots, where electrical connection between batteries is established by means of a battery jumper plug cable having four electrical jumper plugs electrically attached to respective ends of a positive insulated conductor and a negative insulated conductor.

An electric connector assembly for a high-voltage terminal including a contact tube made of electroconductive material, a high-voltage terminal comprising an electric connector assembly and a busbar made of electroconductive material, and a method for assembling a high-voltage terminal.

An electrical connector (figure 1, 10, 12) comprises an electrical contact 20 having an inner conductor 40, an outer conductor 56, and an intermediate element 44 located between the inner conductor 40

The invention is based on a single-pole connector system consisting of a connector and a mating connector, wherein the connector has a locking shape and the mating connector has a locking mechanism corresponding to the locking shape, or vice versa, wherein the locking mechanism is triggered in a locking manner by a first pressure in the plugging direction.

On-board power connectors, especially for high-voltage on-board power supplies, - a first connection part (12) arranged in a first housing part (2), wherein - the first housing part (2) has a longitudinal extension along a longitudinal axis (4) and has an end-face opening (14) and the first connecting part (12) is movably mounted in the first housing part (2) along the longitudinal axis (4), - a second connection part arranged in a second housing part (40), wherein - the second housing part (40) has a longitudinal extension along a longitudinal axis (36) and has an opening at the end face, - wherein the connector is in the connected state - the longitudinal axes (4, 36) of the first and second housing parts (2, 40) run collinearly and - the second housing part (40) is fixed at least in the longitudinal direction relative to the first housing part (2) and the second connection part is in mechanical contact with the first connection part (12), wherein - the first connecting part (12) is resiliently mounted in the first housing part (2) along the longitudinal axis (4) by a spring element (26), characterized by - that one of the connecting parts (12) has a sleeve-shaped receptacle (28) with a closed bottom (28a) and one of the connecting parts has a rod-shaped plug-in element (32) congruent with the receptacle (28) and - that in the sleeve-shaped receptacle (28) a spacer (18) extends from the bottom (28a) of the sleeve-shaped receptacle (28) towards the end-face opening (14) of the sleeve-shaped receptacle (28), wherein - the rod-shaped plug-in element (32) has a recess (46) extending from the end face of the plug-in element (32) in a longitudinal axis for the spacer (18) of the sleeve-shaped receptacle (28) and that in the connected state the spacer (18) is inserted into the recess (46).

Contact device with a conductive core (10) and an insulating sheath (12) at least partially encompassing the core (10), characterized in that the core (10) protrudes from the sheath (12) on both sides at least on one side with a predefinable overhang and forming electrical connection points (14, 16), and that the sheath (12) has an engagement point (18) for an actuating tool and a fixing section (20) on its outer circumference.

The invention relates to a single-pole connector system consisting of a connector and a mating connector, wherein the connector comprises a connector housing, a connector contact seal, and a connector contact element, and wherein the mating connector comprises a mating connector housing, a mating connector contact seal, a mating connector touch guard, and a mating connector contact element. The connector contact seal engages functionally with a connector sealing spring, such that the connector contact seal is displaceable within the connector housing in the insertion direction against a force exerted by the connector sealing spring.Furthermore, the mating connector contact seal is in functional engagement with a mating connector sealing spring, so that the mating connector contact seal is displaceable within the mating connector housing in the mating direction against a force of the mating connector sealing spring.

An assembly comprising a first part (12) and a second part (14) movable relative to each other in translation along a connecting axis (D) between a locked configuration and an unlocked configuration. The first part comprises one of a rail and one of a groove, and the second part comprises the other, the rail being configured to slide axially in the groove. The assembly includes a ring (16) rotatably mounted on the first part about the connecting axis, the ring having at least one pin (46). The second part defines a locking ramp (88), a first housing (90), and an unlocking ramp (92). The assembly (10) includes a return mechanism for exerting a restoring force on the ring to a rest position.The locking ramp and the first housing are configured so that a manual movement (D1) causes a first slip (G1) of the pin on the locking ramp, and an automatic movement (D2) of the ring angularly in one direction between the rest position and a first intermediate position, then an automatic movement of the ring angularly in the opposite direction from the first intermediate position to a locking position under the action of the return system, the pin being received in the first housing, the first housing defining a first axial stop (94) adapted to block the pin axially.The unlocking ramp (92) is configured so that a manual movement of the rotating ring in said direction from the locking position removes the pin from the first housing and causes a second slide of the pin on the unlocking ramp, the unlocking ramp reacting axially on the pin to move the first part and the second part away from each other from the locked configuration.

An electric connector connectable to a mating electric connector includes and inner part, an outer part and a self-locking mechanism. The inner part is adapted to be connected to an electrical conductor. The outer part is adapted to connect to the mating electric connector. The inner and outer parts are connected coaxially and rotatably to one another. The self-locking mechanism selectively blocks rotation of one of the inner or outer parts with respect to the other one of the inner or outer parts in a first circumferential direction, and permits rotation of one of the inner or outer parts with respect to the other one of the inner or outer parts in a second circumferential direction opposite the first circumferential direction.

A connector (10) comprises a terminal holder (13) which holds a female terminal (11).The terminal holder (13) comprises a cylindrical portion (13a), a first cutout portion (13d) provided in an upper region (T1), a second cutout portion (13e) provided in a lower region (T2) and having a greater length in an axial direction (X) than the first cutout portion (13d), a locking portion (13i) projecting inward in the radial direction from the upper region (T1) and the lower region (T2), the locking portion (13i) being locked by a flank portion (11a1) formed on an outer peripheral surface of the female terminal (11), and a stopper portion (13g) projecting inward in the radial direction from the upper region (T1) and positioned to be spaced apart from the locking portion (13i) in the axial direction (X), the stopper portion (13g) being formed by the flank portion (11a1) is locked.

A connection structure includes a first terminal including a first contact part, the first contact part including a plurality of first projections arranged at a first array pitch in a first direction and arranged at a second array pitch in a second direction, and a second terminal including a second contact part, the second contact part being brought into contact with the first contact part while being opposed to the first contact part, the second contact part including a plurality of second projections arranged at a third array pitch in the first direction and arranged at a fourth array pitch in the second direction. One of the first array pitch and the third array pitch is equal to a first integral multiple of another, and one of the second array pitch and the fourth array pitch is equal to a second integral multiple of another.

A power distribution block for distributing electrical power is disclosed. The power distribution block includes a plate made of a conductive material. The plate is configured to operate at 1200 amperage and 600 volts. The plate includes holes of various sizes arranged in series. The holes are configured to mount connectors or conductive blocks to the plate in different configurations depending on the need for distribution of the electrical power. Each connector is rated for specific current-carrying capacity. Further, each connector includes at least one input terminal and multiple output terminals, enabling the distribution of electrical power to different loads while maintaining secure and low-resistance connections. The power distribution block includes a cover configured to be placed over the plate to protect the plate and the connectors from environmental factors, physical damage and accidental contact. The power distribution block presents a high-capacity terminal block adaptable to various electrical applications.

An electrical connector and an electrical connector assembly are described herein. The electrical connector includes a conductive terminal, an insulative terminal housing configured to at least partially house the terminal, and a molded housing configured to at least partially house the terminal housing. The electrical connector further includes a first seal disposed on the terminal and a second seal disposed on the terminal housing. The terminal is configured to be inserted into position within the terminal housing in response to the first seal being disposed on the terminal, and the first seal is compression sealed between the terminal and the terminal housing. The terminal housing is configured to be inserted into position within the molded housing in response to the second seal being disposed on the terminal housing, and the second seal is compression sealed between the terminal housing and the molded housing.

An electrical connector includes a conductive terminal, an insulated terminal housing, a die-cast housing, a first sealing component and a second sealing component. The insulated terminal housing is at least partially accommodating the terminal. The die-cast housing is at least partially accommodating the terminal housing. The first sealing component is sleeved onto the terminal. The terminal is adapted to be axially inserted into the terminal housing in response to the first sealing component being sleeved onto the terminal, with the first sealing component being pressed against and sealed between the terminal and the terminal housing. The second sealing component is sleeved onto the terminal housing. The terminal housing is adapted to be inserted into the die-cast housing in response to the second sealing member being sleeved onto the terminal housing, with the second sealing component being pressed against and sealed between the terminal housing and the die-cast housing.

A high-voltage electrical connector for the space sector, includes a male portion and a female portion, which are intended to produce an electrical contact (CE) between the portions, the male portion comprising: a metallic male external shell; a male dielectric block encapsulated by the male shell and having a male structured region comprising what is called a male recess; the female portion comprising: a metallic female external shell, a female dielectric block encapsulated by the female shell and having a female structured region comprising a female recess; the male or female external shell having at least one opening, the male structured region having a shape that complements a shape of the female structured region, so that the male structured region is capable of being inserted into the female structured region in order to allow the electrical contact and so as to create a leakage duct between the female structured region and the male structured region allowing the air included between the female structured region and the male structured region to flow to the at least one opening.

A glass plate module (10) according to the present invention includes a glass plate (1), a conductive layer (2) laminated on the glass plate (1), at least one connection terminal (3) fixed to the conductive layer (2), and made of a conductive material, and an adhesive material (4) for fixing the connection terminal (3) to the conductive layer (2). The connection terminal (3) includes a connector connection portion (37) that is to be electrically connected to an external connector, one or more installation portions (31, 32) that are installed on the conductive layer (2), and electrically connect the connector connection portion (37) and the conductive layer (2), at least one easily deformable portion (34) that is provided between one of the installation portions (31, 32) and the connector connection portion (37), and is deformable due to an external force, and at least one protrusion (35) provided anywhere between the connector connection portion (37) and the easily deformable portion (34), and protruding in a direction in which the conductive layer (2) extends and that intersects a direction in which the connector connection portion (37) extends.

According to an example aspect of the present invention, there is provided a high voltage connection (1) comprising a housing (2) comprising a base (3) and a perimeter wall (4) protruding from the base (3), thus providing a cavity (13) and an opening (14) into the cavity (13), a circuit board (5) placed within the cavity (13), a connector (6) comprising a tube (7), a banana jack connector (8) and an electric wire (9), wherein the banana jack connector (8) is coupled to a first end (10) of the tube (7), wherein the banana jack connector (8) and the circuit board (5) are electrically connected by the electric wire (9), further electric wiring (11) electrically connected to the circuit board (5), and an insulating material layer (12) within the cavity (13), wherein the circuit board (5), a part of the tube (7) comprising the first end (10), the banana jack connector (8), the electric wire (9) and a first part of the further electric wiring (11) are embedded in the insulation material layer (12), wherein a second part of the further electric wiring (11) and a second end (16) of the tube (7) are located outside of the housing (2).

Modular electrical connector assembly having a socket carrier element having a bearing section, a mating structure and a carrier structure to carry at least one electrical socket element; a pin carrier element having a bearing section, a mating structure and a carrier structure to carry at least one electrical pin element; a socket housing with a receiving section to which the socket carrier element is mounted by the bearing section and with a housing section; and a pin housing with a receiving section to which the pin carrier element is mounted by the bearing section and with a housing section. The bearing section of the socket carrier element is identical to the bearing section of the pin carrier element and the receiving section of the socket housing is identical to the receiving section of the pin housing.

A heating device (100) for a vehicle, includes a Printed Circuit Board (11), at least one heating element (20a,20b,20c), a bus bar (30,31) and a terminal pin (42). The Printed Circuit Board (11) is received inside a casing (12) along one bus bar (30,31). The bus bar (30,31) includes at least one bus bar terminal (30a,30b,30c,31a,31b,31c), wherein at least one bus bar terminal (30a 30b 30c 31a,31b,31c) connects a corresponding heating element (20a,20b,20c) to the Printed Circuit Board (11). The terminal pin (42) is integrally formed with at least one bus bar terminal (30a,30b,30c,31a,31b,31c) and is disposed outside the casing (12).