Motor test wiring board

Abstract

The utility model relates to a motor test wiring board, which not only can improve the production efficiency of a motor using a needle type wiring terminal, but also can save labor and copper wire resources, and is good in applicability, a first groove is arranged on the front surface of a wiring board body, and a second groove is arranged on the back surface of the wiring board body. A wire passing hole is formed between the first groove and the second groove which are opposite to each other, and a through hole is formed in the inner top surface of the second groove; a first conductive metal block is arranged in the first groove, a threaded hole is formed in the upper end face of the first conductive metal block, and a bolt is screwed in the threaded hole; a second conductive metal block is arranged in the second groove, a first threaded hole is formed in the upper end face of the second conductive metal block, a conductive metal pressing block is arranged in the square through hole, a first bolt is arranged in each through hole in a penetrating mode, and the lower end of each first bolt is located in the square through hole after passing through the corresponding first threaded hole. The wiring board has the advantages that the wiring board not only can improve the production efficiency of a motor using a pin type wiring terminal, but also is good in applicability.

Description

Technical Field

[0001] This utility model belongs to the field of motor manufacturing technology, and specifically relates to a motor test terminal block. Background Technology

[0002] Before a motor leaves the factory, the motor manufacturer will test the motor to check its performance. A motor test terminal block is needed for this test, such as CN 210427641 U, entitled "A New Type of Terminal Block for AC Impedance Testing of Generator Rotors". This terminal block includes an upper epoxy plate (1) and a lower epoxy plate (2) of the same size. The upper epoxy plate (1) and the lower epoxy plate (2) are separated by a screw (3), which is connected to the upper epoxy plate (1) and the lower epoxy plate (2) by upper and lower fixing bolts respectively. The upper epoxy plate has multiple fixing holes for terminals (4). The terminals (4) are connected to external instruments by inserting test leads or by using inserts. The terminals (4) are fixedly connected to the upper epoxy plate (1) by bolts below the terminals (4). A connection line between the terminals (4) is provided in the middle of the upper epoxy plate (1), and the connection line between the terminals (4) is soldered. The connection between the terminals (4) is made of 6 square millimeters pure copper single-core hard wire. The upper epoxy board (1) is provided with two rows of terminal panels, the upper terminal panel is provided with input and output terminals, and the lower terminal panel is provided with voltmeter, ammeter and wattmeter terminals; the voltmeter, ammeter, wattmeter, input and output terminals are provided with corresponding voltmeter, ammeter, wattmeter, input and output markings, and the wattmeter terminal is marked with the same name of the voltage and current terminals. This new type of generator rotor AC impedance test terminal block requires OT terminals to function. Specifically, the ends of the six wires in the motor (two sets of three wires each) are each equipped with OT terminals. However, some customers require pin-type terminals for the six wires in their motors. This forces motor manufacturers to manufacture the six wires as OT terminals during production to meet testing requirements, only to re-cut the wires and replace them with pin-type terminals after the test is passed. This results in a waste of both wiring and labor time. To solve this problem, we have designed a motor test terminal block. Utility Model Content

[0003] Design objective: To overcome the shortcomings of the prior art, this paper designs a motor test terminal block that not only improves the production efficiency of motors using pin terminals, but also saves labor and copper wire resources, while having good applicability.

[0004] Design scheme: To achieve the above design objectives.

[0005] 1. The front side of the connector body has six first grooves and the back side of the connector body has six second grooves. Each of the six first grooves is directly opposite a corresponding second groove. A wire-passing hole is provided between each of the directly opposite first and second grooves, with one end of the wire-passing hole communicating with the corresponding first groove and the other end communicating with the corresponding second groove. The first groove extends upwards through the upper surface of the connector body. The inner top surface of the second groove has a through hole that extends upwards through the upper surface of the connector body. Each of the first grooves contains a first conductive metal block. The upper surface of the first conductive metal block has a threaded hole that passes through both the upper and lower surfaces of the first conductive metal block. A bolt is screwed into each of the threaded holes. The second groove contains... Each component is provided with a second conductive metal block. The front of the second conductive metal block has a square through hole that extends through both sides of the second conductive metal block. The upper end face of the second conductive metal block has a threaded hole that extends downward and communicates with the square through hole. The threaded hole is located directly below the corresponding through hole. A conductive metal pressure block is provided inside the square through hole. A bolt is inserted into each through hole, and the lower end of the bolt is located inside the square through hole after passing through the corresponding threaded hole. A conductive connector is provided in each wire hole. The design of one end of the conductive connector being conductively connected to the corresponding first conductive metal block and the other end of the conductive connector being conductively connected to the corresponding second conductive metal block is one of the technical features of this utility model.The purpose of this design is as follows: The front of the connector body has six first grooves, and the back of the connector body has six second grooves. Each of the six first grooves is directly opposite a corresponding second groove. A wire-passing hole is provided between each of the directly opposite first and second grooves, with one end of the wire-passing hole communicating with the corresponding first groove and the other end communicating with the corresponding second groove. The first groove extends upwards through the upper surface of the connector body. The inner top surface of the second groove has a through hole that extends upwards through the upper surface of the connector body. Each of the first grooves contains a first conductive metal block. The upper surface of the first conductive metal block has a threaded hole that passes through both the upper and lower surfaces of the first conductive metal block. A bolt is screwed into each of the threaded holes. Each of the second grooves contains a second conductive metal block. The front of the second conductive metal block has a square through hole that passes through both sides of the second conductive metal block. The upper surface of the second conductive metal block has a threaded hole. Extending downwards and communicating with a square through hole, the threaded hole is located directly below the corresponding through hole. A conductive metal pressure block is provided inside the square through hole, and a bolt is inserted through each through hole. The lower end of the bolt is located inside the square through hole after passing through the corresponding threaded hole. A conductive connector is provided inside each wire hole. One end of the conductive connector is conductively connected to the corresponding first conductive metal block, and the other end of the conductive connector is conductively connected to the corresponding second conductive metal block. In use, the pin terminal is inserted between the bottom surface of the square through hole and the lower end surface of the conductive metal pressure block. Then, the lower end of the bolt is tightened to contact the upper end surface of the conductive metal pressure block and press the conductive metal pressure block tightly. The other end of the motor test terminal block can be connected to the OT terminal through the bolt. This motor test terminal block can directly test motors using pin terminals, thereby saving labor and copper wire resources, and speeding up the production of motors using pin terminals.

[0006] 2. The terminal block body consists of an upper terminal block and a lower terminal block. The upper terminal block has a screw through-hole at each of its four corners, extending through both its upper and lower ends. The lower terminal block has a screw hole at each of its four corners. The design of fixing the upper terminal block to the lower terminal block with screws after the screw through-holes align with their corresponding screw holes is the second technical feature of this utility model. The purpose of this design is that the terminal block body consists of an upper terminal block and a lower terminal block. The upper terminal block has a screw through-hole at each of its four corners, extending through both its upper and lower ends. The lower terminal block has a screw hole at each of its four corners. The upper terminal block is fixedly connected to the lower terminal block with screws after the screw through-holes align with their corresponding screw holes. This not only facilitates the production of a motor test terminal block but also facilitates its maintenance.

[0007] 3. The design that both the upper and lower terminal boards are made of bakelite board is the third technical feature of this utility model. The purpose of this design is to improve the safety of using a motor test terminal board by making both the upper and lower terminal boards of bakelite board.

[0008] 4. The design that the height of the square through hole is greater than the thickness of the conductive metal pressure block is the fourth technical feature of this utility model. The purpose of this design is that the height of the square through hole is greater than the thickness of the conductive metal pressure block, so that this motor test terminal block can connect to pin terminals of different sizes, thereby improving the applicability of the motor test terminal block.

[0009] Technical Solution: A motor test terminal block includes a terminal block body. The front of the terminal block body has six first grooves, and the back of the terminal block body has six second grooves. Each of the six first grooves is directly opposite a corresponding second groove. A wire-passing hole is provided between each of the directly opposite first and second grooves, with one end of the wire-passing hole communicating with the corresponding first groove and the other end communicating with the corresponding second groove. The first grooves extend upwards through the upper surface of the terminal block body. The inner top surface of each second groove has a through hole that extends upwards through the upper surface of the terminal block body. Each of the first grooves contains a first conductive metal block. The upper surface of each first conductive metal block has a threaded hole that passes through both the upper and lower end faces of the first conductive metal block. Each threaded hole is screwed with a bolt; each of the second grooves is provided with a second conductive metal block. The front of the second conductive metal block has a square through hole that extends through both sides of the second conductive metal block. The upper end face of the second conductive metal block has a threaded hole that extends downward and communicates with the square through hole. The threaded hole is located directly below the corresponding through hole. A conductive metal pressure block is provided in the square through hole. A bolt is inserted into each through hole. The lower end of the bolt is located in the square through hole after passing through the corresponding threaded hole. Each wire hole is provided with a conductive connector. One end of the conductive connector is conductively connected to the corresponding first conductive metal block, and the other end of the conductive connector is conductively connected to the corresponding second conductive metal block.

[0010] Compared with the prior art, the present invention provides a motor test terminal block that can not only improve the production efficiency of motors using pin terminals, but also save labor and copper wire resources, while having good applicability. Attached Figure Description

[0011] Figure 1 This is a top view of a motor test terminal block.

[0012] Figure 2 This is a front view schematic diagram of a motor test terminal block.

[0013] Figure 3 This is a rear view structural diagram of a motor test terminal block. Detailed Implementation

[0014] Example 1: Refer to Appendix Figures 1-3A motor test terminal block includes a terminal block body 1. The front of the terminal block body 1 has six first grooves 2, and the back of the terminal block body 1 has six second grooves 3. Each of the six first grooves 2 is directly opposite a corresponding second groove 3. A wire-passing hole is provided between each of the directly opposite first grooves 2 and second grooves 3, with one end of the wire-passing hole communicating with the corresponding first groove 2 and the other end communicating with the corresponding second groove 3. The first groove 2 extends upward through the upper end face of the terminal block body 1. The inner top surface of the second groove 3 has a through hole that extends upward through the upper end face of the terminal block body 1. Each of the first grooves 2 contains a first conductive metal block 4. The upper end face of the first conductive metal block 4 has a threaded hole that passes through both the upper and lower end faces of the first conductive metal block 4. A bolt 5 is screwed into each threaded hole. The bottom of the first groove 2... The first conductive metal block 6 is provided in the second groove 3. The front of the second conductive metal block 6 has a square through hole 61 that extends through both sides of the second conductive metal block 6. The upper end of the second conductive metal block 6 has a threaded hole that extends downward and communicates with the square through hole 61. The threaded hole is located directly below the corresponding through hole. The square through hole 61 is provided with a conductive metal pressure block 7. A bolt 8 is inserted into the through hole. The lower end of the bolt 8 is located in the square through hole 61 after passing through the corresponding threaded hole. A conductive connector is provided in the wire hole. One end of the conductive connector is conductively connected to the corresponding first conductive metal block 4, and the other end of the conductive connector is conductively connected to the corresponding second conductive metal block 6.

[0015] The terminal block body 1 consists of an upper terminal block 11 and a lower terminal block 12. The upper terminal block 11 has a screw through-hole at each of its four corners, extending through both its upper and lower ends. The lower terminal block 12 has a screw hole at each of its four corners. The upper terminal block 11 is fixedly connected to the lower terminal block 12 by screws 9 after the screw through-holes and corresponding screw holes are aligned. Both the upper and lower terminal blocks 11 and 12 are made of bakelite board. The height of the square through-hole 61 is greater than the thickness of the conductive metal pressure block 7. The bolt 5 is an internal hexagonal bolt, and the bolt 8 is an external hexagonal bolt. The conductive connector is a metal wire.

[0016] It should be understood that although the above embodiments provide a relatively detailed textual description of the design concept of this utility model, these textual descriptions are merely simple textual descriptions of the design concept of this utility model, and not limitations on the design concept of this utility model. Any combination, addition, or modification that does not exceed the design concept of this utility model shall fall within the protection scope of this utility model.

Claims

1. An electrical machine test panel comprising a panel body (1) characterised in that: The front surface of the terminal block body (1) is provided with six first grooves (2) and the back surface of the terminal block body (1) is provided with six second grooves (3), the six first grooves (2) are respectively arranged opposite to a corresponding second groove (3), a through hole is arranged between the opposite first groove (2) and second groove (3), one end of the through hole communicates with the corresponding first groove (2) and the other end communicates with the corresponding second groove (3), the first groove (2) extends upward through the upper end surface of the terminal block body (1), the inner top surface of the second groove (3) is provided with a through hole which extends upward through the upper end surface of the terminal block body (1); a first conductive metal block (4) is arranged in each first groove (2), a threaded hole is formed in the upper end surface of the first conductive metal block (4) and extends through the upper and lower end surfaces of the first conductive metal block (4), a bolt (5) is arranged in the threaded hole; a second conductive metal block (6) is arranged in each second groove (3), a square through hole (61) is formed in the front surface of the second conductive metal block (6) and extends through the front and back surfaces of the second conductive metal block (6), a threaded hole one is formed in the upper end surface of the second conductive metal block (6) and extends downward to communicate with the square through hole (61), the threaded hole one is located directly below the corresponding through hole, a conductive metal pressing block (7) is arranged in the square through hole (61), a bolt one (8) is arranged in each through hole, the lower end of the bolt one (8) is located in the square through hole (61) after passing through the corresponding threaded hole one; a conductive connecting body is arranged in each through hole, one end of the conductive connecting body is in conductive connection with the corresponding first conductive metal block (4) and the other end is in conductive connection with the corresponding second conductive metal block (6).

2. An electrical machine test terminal strip according to claim 1, characterized in that: The terminal block body (1) is composed of a terminal upper plate (11) and a terminal lower plate (12), a screw through hole is formed in the upper end surface of the terminal upper plate (11) at each corner and extends through the upper and lower end surfaces of the terminal upper plate (11), a screw hole is formed in the upper end surface of the terminal lower plate (12) at each corner, the terminal upper plate (11) is fixedly connected with the terminal lower plate (12) by screws (9) after the screw through holes and the corresponding screw holes are aligned.

3. A motor test terminal strip according to claim 2, characterized in that: The terminal upper plate (11) is made of bakelite and the terminal lower plate (12) is made of bakelite.

4. A motor test terminal strip according to claim 1, wherein: The height of the square through hole (61) is greater than the thickness of the conductive metal pressing block (7).

5. A motor test terminal strip as set forth in claim 1, characterized by: The bolt (5) is an internal hexagonal bolt and the bolt one (8) is an external hexagonal bolt.

6. A motor test terminal strip according to claim 1, characterized in that: The conductive connecting body is a metal wire.

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