55results about "Relay terminal arrangements" patented technology

Relay (1), comprising a first contact part (2) comprising a first contact piece (21), a first terminal (22) connected to the first contact piece (21), and a first contact (23) attached to the first contact piece (21); a second contact part (3) comprising a second contact piece (31), a second terminal (32) connected to the second contact piece (31), and a second contact (33) attached to the second contact piece (31); a pressing member (5) which is movable between an on position, which is a position in which it presses the first contact piece (21) and brings the first contact (23) into contact with the second contact (33), and an off position, which is a position in which it is moved in a direction in which the first contact (23) and the second contact (33) are not in contact and also the first contact (23) and the second contact (33) are separated from each other; a drive part (4) which actuates the pressing element (5); and a restricting element (7) which restricts the movement of the first contact piece (21), wherein the pressing element (5) is designed to press the area of ​​the first contact piece (21) between the first terminal (22) and the first contact (23), wherein the first contact (23) is brought into contact with the second contact (33) by moving the pressing element (5) from the off position to the on position and pressing the first contact piece (21) in the direction towards the second contact piece (31) wherein the first contact (23) and the second contact (33) enter a non-contact state by the elastic force of the first contact piece (21), and the pressing element (5) is pushed back by the first contact piece (21) and moves from the on position to the off position when the pressing by the pressing element (5) has been completed, wherein the movement of the first contact piece (21) is restricted by the restricting element (7) before the pressing element (5) moves from the on position to the off position.

The utility model discloses a direct-current solid-state relay which comprises a mounting plate, a relay shell is arranged on the upper end face of the mounting plate, a protective cover plate is arranged at the upper end of the relay shell, and two friction rotating shafts are symmetrically arranged on the two sides of the outer wall of the protective cover plate. The upper end of the mounting plate is provided with dismounting assemblies located on two sides of the relay shell, each dismounting assembly comprises two positioning seats, a fixing plate and guide plates, the two positioning seats are internally provided with the guide plates, and the relay shell is internally provided with two mounting grooves; the number of the fixing plates is two, the two fixing plates are fixedly installed in the installation groove, the upper end face of the relay shell is provided with an insertion groove, the four corners of the bottom of the protective cover plate are fixedly provided with insertion rods, and one ends of the insertion rods are connected to the insertion groove. The direct-current solid-state relay can be quickly disassembled and assembled, the installation tightness is improved, the relay is effectively protected, and the service life of the relay is prolonged.

An electromagnetic relay includes a fixed terminal, a fixed contact, a movable contact, a movable piece, a coil, a coil terminal, and solder. The fixed contact is connected with the fixed terminal. The movable contact and the fixed contact are arranged to face each other. The movable contact is connected with the movable piece. The movable plate is movable to a closed position and an open position. When the movable piece is in the closed position, the movable contact is in contact with the fixed contact. When the movable piece is in the open position, the movable contact is separated from the fixed contact. The coil generates an electromagnetic force that moves the movable piece between the open position and the closed position. The coil comprises an outgoing line. The coil terminal includes a strapping portion. The lead wire is wound around the binding portion. The strapping portion includes a concave shape. The solder is soldered to the strapping portion in the concave shape, thereby fixing the lead wire to the strapping portion.

The invention relates to a housing for at least one at least 6-pole motor-vehicle relay having at least six electrical connections in the form of flat plugs, having a cover that provides a volume space, open on one side, for receiving the motor-vehicle relay, and at least one base that closes the volume space in a fluid-tight manner in the closed state, wherein the base, in a manner corresponding to the number of electrical connections of the motor-vehicle relay, has at least six electrical contacts for the electrical connection of the motor-vehicle relay, wherein each electrical contact is arranged in a separate contact chamber that is open towards the volume space, wherein each contact chamber is adjoined by a respective sealing space that is accessible from outside the housing, wherein a sealing element having a central channel for guiding electric powers is arranged in each sealing space.

The present application provides a high-capacity relay with a tab terminal, which can achieve miniaturization, reliability improvement or improvement of solderability. In one embodiment, it comprises: (1) a contact opening and closing unit comprising at least one movable contact and at least one fixed contact; (2) an opening and closing drive unit that brings the movable contact into contact with or away from the corresponding fixed contact; (3) at least two pairs of input and output tab terminals electrically connected to at least one pair of input and output terminals of the contact opening and closing unit; and (4) a pair of control tab terminals electrically connected to the control terminals of the opening and closing drive unit, (5) two input and output tab terminals electrically connected to the respective input and output terminals, which are arranged in close proximity to each other in the thickness direction, (6) the thickness and width of the input and output tab terminals and the control tab terminals are the same or at the same level.

Provided is a grid-connected distribution box (1) including a case (10) having an internal space, a grid module (100) disposed in the internal space and having a main input terminal (110) into which main power is input and at least one output terminal (130, 150) connected to at least one load (Load1, Load2), a relay module (200) arranged at one side of the grid module (100), and a control module (300) disposed in the internal space and having a sub-input terminal (330, 350) to which at least one sub-power source (E1, E2) is input, and configured to provide the at least one sub-power source (E1, E2) to the relay module (200).

The application relates to a wiring power-off integrated relay and a cable connection and protection method, which comprises a trapezoidal cylinder body, a plurality of piston rods uniformly arranged around the outer periphery of the trapezoidal cylinder body; an easy sublimation substance is arranged in the cylinder body; a long strip arc surface-shaped conductive bridge is fixed to the outer end of the piston rod; the outer end of the conductive bridge is covered with a long strip arc surface-shaped insulating baffle; electric connectors for connecting external wires are arranged on the two end faces of the trapezoidal cylinder body respectively; the piston rod drives the conductive bridge to simultaneously electrically contact or disconnect with the two electric connectors; in the initial state, the insulating baffles are circumferentially enclosed and start to cover the wires with wire insulation skins; the wiring power-off integrated relay and the cable connection and protection method can realize wire connection and relay circuit protection in one, realize integration of the whole with the wires, are small in size, and do not need to be installed in an electric box or a switch cabinet.

An electrical device for allowing or not allowing a current source to supply a load (524) according to commands received via a radio frequency network whose participants are identified by an address of their own, comprising a terminal block (602) configured to be connected by cables (604) to a current measuring device (603) external to said device; said terminal block (602) being connected to a logic unit which is configured to determine a current intensity from the signal present at said terminal block (602);whereby, when an activation point of said load (524) is a control terminal (122) of a power contactor (100) with said current measuring device (603) which is disposed on a cable (131, 132) connecting said load (524) to a starting terminal (119, 121) of said power contactor (100), the current intensity communicated externally by said device (500A) via its radio frequency communication device is the current intensity consumed by said load (524).

The present invention provides a voltage input connection structure for a relay and a relay, which relate to the technical field of electrical elements. The voltage input connection structure for a relay includes a connector assembly (2), a plurality of relay coil pins (1), and an incorrect insertion prevention member (3). The connector assembly (2) includes a connection member (21) having a plurality of signal insertion holes (2122), and the plurality of relay coil pins (1) are inserted into the plurality of signal insertion holes (2122). The incorrect insertion prevention member (3) is provided on the relay shell (100) and connected to the connection member (21). The incorrect insertion prevention member (3) is arranged to limit the position of the connection member (21) relative to the incorrect insertion prevention member (3) and is used to position the connection member (21). The incorrect insertion prevention member has a foolproof function, ensuring the correct arrangement order of the multiple relay coil pins and preventing reverse connection due to confusion, thereby improving the pass rate of finished relays.

To provide a contact structure that reduces the risk of lifting during a short circuit. [Solution] In the closed position, the contact bridge 6a is in contact with the proximal fixed contact portion and the distal fixed contact portion, electrically connecting the proximal fixed contact portion and the distal fixed contact portion to each other, and in the open position, it is separated from the proximal fixed contact portion and the distal fixed contact portion. The proximal fixed contact portion protrudes from the proximal base toward the distal base, and the distal fixed contact portion protrudes from the distal base toward the proximal base, and the contact bridge is positioned at a height 18a in the switching direction, at least in the closed position, between the height of the proximal base in the switching direction and the height of the proximal fixed contact portion in the switching direction, and between the height of the distal base in the switching direction and the height of the distal fixed contact portion in the switching direction.

The utility model discloses a relay which comprises a relay main body, a wiring groove is arranged on the relay main body, a wiring board is arranged in the wiring groove, a mounting hole communicated with the wiring groove is arranged on the relay main body, and a compression screw is in threaded connection in the mounting hole. The surface of the wiring board is provided with a circular limiting groove and a long-strip-shaped positioning groove, the limiting groove is communicated with the positioning groove, the wire can be clamped into the positioning groove, the end of the wire can be located in the limiting groove, the limiting groove is aligned with the compression screw, and the compression screw can enter the limiting groove and compress the wire at the groove bottom of the limiting groove. According to the utility model, the positioning of the lead can be realized, the risk of lead displacement is reduced, and the pressing and fixing effect of the fastening screw on the lead is ensured, so that the connection stability of the lead and the wiring board is improved, and the normal use of the relay is ensured.

To obtain a sufficiently large magnetic flux at a contact point while suppressing an increase in size or cost of an electromagnetic relay.SOLUTION: An electromagnetic relay includes a fixed terminal, a fixed contact, a movable contact, a movable piece, and a first magnet. The fixed terminal has a plate-like shape. The fixed contact is provided on the fixed terminal. The movable contact is arranged opposite the fixed contact. The movable piece is provided with the movable contact. The movable piece is movable between a closed position and an open position. When the movable piece is in the closed position, the movable contact comes into contact with the fixed contact. When the movable piece is in the open position, the movable contact is separated from the fixed contact. The first magnet is arranged to penetrate the fixed terminal in the plate thickness direction of the fixed terminal.SELECTED DRAWING: Figure 3

A solid state relay (SSR) module (100) may include a first solid state switch (206) configured to establish and break an electrical connection between an input terminal (208) and an output terminal (214). The module (100) includes an electronic controller (220) configured to turn the first solid state switch (206) on or off and a top cover (202) formed of an electrically insulative thermoplastic material. The power circuit board (204) is disposed within a cavity in the top cover (202). The top cover (210) defines openings (302) through which the input and output terminals extend (208, 214). The module (100) also includes a bottom cover (228) formed of a thermally conducive material in thermal communication with the first solid state switch (206), a compliant thermal interface paste (604) disposed between the bottom cover (228) and the first solid state switch (206), and a resilient thermal interface pad (608) attached to the bottom cover (228) by an adhesive layer (614) on the resilient thermal interface pad (608).

The utility model provides a relay and a high-voltage control box, and belongs to the relay technology field, the relay comprises a relay main body and a high-voltage connecting end, the high-voltage connecting end is arranged on a first end face of the relay main body, the high-voltage connecting end comprises a connecting plate, and the connecting plate is suitable for being connected in a high-voltage loop through welding. The connecting plate is arranged to replace a traditional bolt, the connecting plate and the high-voltage loop are connected in a welding mode, the welding connection strength is high, the stability is better, parts such as bolts and nuts are not needed in the connecting process, parts are saved, the size is reduced, the weight of the structure is reduced to a certain degree, and the cost is reduced to a certain degree. And the mounting efficiency is further improved through a welding mode.

A relay, includes a housing and multiple contact modules. An interior of the housing has an accommodation space, and each contact module includes a terminal assembly, a movable contact plate, and a drive assembly. The terminal assembly includes two terminals spaced apart and disposed on the housing. The terminal at least partially extends into the accommodation space to form a static contact. The movable contact plate is movably disposed in the accommodation space, and is configured to contact two static contacts to conduct the two terminals. The drive assembly includes a drive shaft and a drive unit that drives the drive shaft. The drive shaft is connected to the movable contact plate, and the drive unit is configured to drive the movable contact plate via the drive shaft. Multiple drive shafts corresponding to the multiple contact modules are disposed coaxially, and are relatively movable in their axial direction.

A battery distribution unit (100) for a battery module (102) has a housing (110) including a bottom (120) configured to mount to a battery housing (104) of the battery module and including a component cavity (114). A contactor (140) received in the component cavity has a contactor housing (150) having a top end (154) and a bottom end (156). Terminals (242) at the bottom end of the contactor are coupled to corresponding termination ends (170) of corresponding stationary contacts (160) and a heat exchanger cap (134) at the bottom end of the contactor. The heat exchanger cap is disposed in the component cavity at the bottom of the housing. The heat exchanger cap is in thermal communication with the stationary contacts of the contactor and is configured to be in thermal communication with the battery housing of the battery module to dissipate heat from the stationary contacts into the battery housing of the battery module.

The utility model discloses a flip cover connecting structure of a relay and a solid-state relay, the flip cover connecting structure comprises a housing and at least one flip cover, and the flip cover is rotatably connected to the housing and can be turned to open or close; an opening limiting structure is arranged between the turning cover and the shell in a matched mode, and the opening limiting structure enables the turning cover to be kept in an opening state after the turning cover is turned over and opened. According to the utility model, when the relay is installed on a vertical surface, the flip cover does not automatically fall back to a closed state due to gravity, thereby facilitating wiring operation of workers.

To improve heat dissipation in a fixed terminal and also reduce a thermal effect from the fixed terminal to a substrate, while preventing an increase in size of an electromagnetic relay.SOLUTION: An electromagnetic relay comprises a housing, a first fixed terminal, a movable contact piece, and a drive unit. The first fixed terminal includes a first main member and a first layer member. The first main member protrudes from the inside of the housing to the outside thereof. The first layer member is a component separate from the first main member. The first layer member is stacked on the first main member. The first layer member protrudes from the inside of the housing to the outside thereof. The first layer member has a shape branching from the first main member. The movable contact piece is disposed inside the housing and faces the first fixed terminal. The drive unit moves the movable contact piece in a contact direction and in a separating direction.SELECTED DRAWING: Figure 5

The utility model provides a protective cover, an anti-contact finger assembly, a relay, a charging device and a carrier, the protective cover comprises an upper cover and an upper installation part, the upper installation part is connected to one side of the upper cover and is used for being connected with a relay housing, and the protective cover also comprises a limiting structure surrounding the periphery of the upper installation part. The limiting structure is provided with a plurality of wire outlets distributed in the circumferential direction. According to the utility model, the charging wires connected with the relay are separated from each other by using the plurality of wire outlets of the protective cover, so that the mutual contact between the terminals of the charging wires is avoided, the accidental conduction of the charging wires is prevented, and the use safety of the carrier is ensured.

An electrical junction box (1) includes a pair of relays (20A, 20B), bus bars (40A, 40B), and a housing (10). Each of the pair of relays has a quadrilateral shape having one side surface (21) facing the slit (S) and an opposing side surface (22) opposing the one side surface when viewed from a housing direction in which the relays enter the housing. The busbars (40A, 40B) have a shape in which the entire busbars are located within a range (H1) sandwiched between a straight line (L1) obtained by virtually extending an opposing side surface (22) of one of the relays (20A) and a straight line (L2) obtained by virtually extending an opposing side surface (22) of the other of the relays (20B) when viewed from the housing direction.

The utility model belongs to the technical field of solid-state relays, in particular to a solid-state relay structure, which comprises a shell of a solid-state relay, an input circuit, an isolation (coupling) circuit and an output circuit are arranged in the shell, four corners of the shell are respectively and fixedly connected with a contact piece, the upper part of the contact piece is fixedly connected with a threaded connection column, and the threaded connection column is fixedly connected with the shell. The surface of the threaded connecting column is sleeved with a pressing piece. According to the utility model, the wire is placed between the pressing sheet and the contact sheet, the threaded connection column is wound to enhance the friction force, then the threaded cap and the threaded connection column are screwed in a rotating manner to press and fix the wire, and the clamping block is inserted into the corresponding clamping groove to prevent the wire from loosening caused by the reverse rotation of the threaded cap. Installation can be achieved with one hand, and operation is more convenient.

The utility model relates to a sliding type lock catch structure and a relay, the sliding type lock catch structure comprises a base, a rear cover and a sliding plate, two opposite sides of the base are provided with first guide members, the rear cover is fixed on the base, and one side of the rear cover away from the base is provided with a first buckle structure. The two opposite sides of the sliding plate are provided with second guiding pieces buckled with the first guiding pieces in a sliding mode, the sliding plate is located on the side, away from the base, of the rear cover, the bottom of the sliding plate is provided with a second buckle structure matched with the first buckle structure, and the sliding plate can slide relative to the rear cover so as to be switched between the first position and the second position. The first buckle structure and the second buckle structure can be buckled with each other at the first position and the second position. The relay comprises a relay terminal and a sliding type lock catch structure, a mounting groove is formed in the side, facing the rear cover, of the base, and the relay terminal is arranged in the mounting groove. The utility model provides a simple sliding type state switching structure, and the structure can also provide an effective mistaken unlocking prevention effect.

To prevent inclination toward a counterpart member before connecting a terminal.SOLUTION: An electromagnetic relay 100 comprises a fixed contact, a movable contact, an electromagnetic drive part, a housing 1, a contact terminal 41, and a coil terminal 40. The electromagnetic drive part moves the movable contact toward the fixed contact in response to power supply to a coil. The housing 1 houses the fixed contact, the movable contact, and the electromagnetic drive part. The contact terminal 41 is connected to either the fixed contact or the movable contact. The contact terminal 41 protrudes downward from the housing 1. The coil terminal 40 is connected to the coil. The coil terminal 40 protrudes downward from the housing 1. At least one of the contact terminal 41 and the coil terminal 40 is a specific terminal 5. The specific terminal 5 has a deformation part 53 between an upper end and a lower end of the specific terminal 5.SELECTED DRAWING: Figure 1

This utility model provides a gas density relay, including a relay body, a multi-port interface, an on / off valve, a self-sealing interface, and a device under test (DUT) interface. The multi-port interface includes a first port, a second port, and a third port. The relay body interface is connected to and communicates with the first port. One end of the self-sealing interface is connected to and communicates with the second port, and the other end is used to connect to a gas filling device or a calibration device. One end of the on / off valve is connected to and communicates with the third port, and the other end of the on / off valve is connected to and communicates with one end of the DUT interface. The on / off valve is used to disconnect or connect the gas path between the third port and the DUT interface. The other end of the DUT interface is used to connect to the electrical device under test. By controlling the opening or closing of the self-sealing interface and the on / off valve, the self-sealing interface is connected to the gas filling device or the calibration device, thereby realizing the gas density relay's non-disassembly calibration and filling function, improving operation and maintenance efficiency, reducing the risk of gas leakage, and enhancing safety.

Provided is a grid-connected distribution box including a case having an internal space, a grid module disposed in the internal space and having a main input terminal into which main power is input and at least one output terminal connected to at least one load, a relay module arranged at one side of the grid module, and a control module disposed in the internal space and having a sub-input terminal to which at least one sub-power source is input, and configured to provide the at least one sub-power source to the relay module.

The electromagnetic relay includes a fixed terminal, a fixed contact, a movable contact, a movable piece, a coil, a coil terminal, and a solder joint. The fixed contact is connected to the fixed terminal. The movable contact is arranged to face the fixed contact. The movable contact is connected to the movable piece. The movable piece is movable between a closed position and an open position. In the closed position, the movable contact touches the fixed contact. In the open position, the movable contact is separated from the fixed contact. The coil generates an electromagnetic force to move the movable piece. The coil encloses a conductor wire. The coil terminal encloses a tied section. The conductor wire is wound around the tied section. The tied section encloses a recessed shape.The solder is applied to the connected section in the recessed shape, thereby securing the conductor wire to the connected section.

The utility model relates to the technical field of batteries, and discloses a battery device and a power utilization device. The battery device comprises a relay and a battery module, the relay is electrically connected with the battery module, the relay comprises a shell, a connecting terminal and a conductive piece, the connecting terminal comprises a first flow guide part and a second flow guide part which are connected in a preset direction, and one part of the first flow guide part protrudes out of the shell and is used for being electrically connected with the battery module; the second flow guide part is made of copper, and the first flow guide part is made of aluminum; the conductive piece moves in the preset direction to be in contact with or separated from the second flow guide part; and the maximum cross sectional area of the first flow guide part is larger than that of the second flow guide part. According to the application, the use amount of copper materials of the connecting terminal can be reduced, the self weight is reduced, the cost of the relay and the battery device is reduced while the diversion function of the connecting terminal is realized, the lightweight design of the battery device is facilitated, and the energy density of the battery device is improved.

A small independent thermal overload relay comprises a shell, a wiring system, a bimetallic strip, a guide plate structure and an actuating mechanism, the wiring system comprises a plurality of wiring units, and each wiring unit comprises a first wiring terminal, a first contact plate, a second contact plate and a second wiring terminal. The first wiring terminal and the second wiring terminal are arranged on the two sides of the bimetallic strip in the length direction of the shell, and the bimetallic strip is electrically connected between the first contact plate and the second contact plate. According to the small-sized independent thermal overload relay, the wiring system, the guide plate structure and the actuating mechanism are arranged along the height direction of the shell, the plurality of wiring units are arranged along the width direction of the shell, and the contact plate, the wiring terminal and the bimetallic strip are arranged along the length direction of the shell, so that the overall structure of the thermal overload relay is compact and ordered; and the wiring terminal of the wiring unit is connected with the contactor for use through wiring, so that the thermal overload relay can be independently installed and is suitable for contactors of different models.

A safety switching device (10) for the safety-related interruption of a safety circuit (18) comprises a housing (12) and electronics (14) arranged in the housing. The electronics (14) have two switching elements (16) which can be arranged in the safety circuit (18) via a first, second, third, and fourth connection (20; 201-204) on the housing and close the circuit redundantly when a control signal is present at each switching element (16). Furthermore, a fifth connection (20; 205) and a sixth connection (20; 206) are provided on the housing (12) to which a first and a second input signal can be applied, corresponding to the control signals of the switching elements (16), so that when the first and second input signals are present at the fifth and sixth connections (205, 206), the safety circuit (18) is closed.In addition, the electronics (14) arranged in the housing (12) have a further electrical element (28) which is designed to draw energy for its own operation from an electrical signal applied to the first, third, fifth and / or sixth terminal (201, 203, 205, 206).