A connector electrical performance testing machine

Abstract

The application discloses a connector electric performance testing machine. The technical scheme comprises: a first transmission channel with a first trough for the connector to enter; a first pushing mechanism mainly composed of a first cylinder and a pushing block, the pushing block being vertically arranged at one side of the end of the first transmission channel, the pushing block being provided with a second trough in front for the connector to enter, and the first cylinder being connected to the rear end of the pushing block; a second pushing mechanism mainly composed of a second cylinder and a top rod, the top rod being parallelly arranged at the other side of the end of the first transmission channel, and the second cylinder being connected to the rear end of the top rod; and a second transmission channel with a third trough for the connector to enter, the third trough being horizontally arranged at the front end of the top rod. The advantages are as follows: through cooperation of the first transmission channel, the first pushing mechanism, the second pushing mechanism, the second transmission channel, the first testing mechanism and the second testing mechanism, automatic detection of the connector is realized.

Description

Technical Field

[0001] This invention relates to a connector electrical performance testing machine. Background Technology

[0002] Connectors, also known as plugs or sockets, generally refer to electrical connectors. They are devices that connect two active devices to transmit current or signals. Traditionally, electrical testing of connectors is done manually using handheld testing devices, which is extremely inefficient. Summary of the Invention

[0003] The technical problem to be solved by the present invention is to provide a connector electrical performance testing machine.

[0004] To solve the above problems, the technical solution adopted by the present invention includes:

[0005] The first conveying channel has a first trough for the connector to enter;

[0006] The first pushing mechanism mainly consists of a first cylinder and a pusher block. The pusher block is vertically arranged on one side of the end of the first conveying channel. The front of the pusher block has a second material groove into which a connector enters. The first cylinder is connected to the rear end of the pusher block.

[0007] The second pushing mechanism mainly consists of a second cylinder and a push rod. The push rod is arranged parallel to the other side of the end of the first conveying channel, and the second cylinder is connected to the rear end of the push rod.

[0008] The second conveying channel has a third material trough for the connector to enter, and the third material trough is horizontally arranged at the front end of the top rod;

[0009] The first testing mechanism mainly consists of a first testing module, a test pin, and a third cylinder. The test pin is inserted into the first testing module and is vertically positioned above the end of the second conveying channel for contacting one end of the connector pin.

[0010] The second testing mechanism mainly consists of a second testing module, a test pin, and a fourth cylinder. The test pin is inserted into the second testing module and is vertically set on one side of the end of the second conveying channel for contacting the other end of the connector pin.

[0011] After the connector on the first material trough enters the second material trough, it is pushed to the third material trough by the push rod and then sent to the first and second testing mechanisms for testing.

[0012] The connector electrical performance testing machine is characterized in that it further includes: a third transmission channel with a fourth material trough for connectors to enter, wherein an inclined plate is provided on one side of the beginning of the third transmission channel and a fifth cylinder is connected to the other side.

[0013] The connector electrical performance testing machine is characterized in that: the first material tank is C-shaped and has a baffle on one side of its bottom.

[0014] The connector electrical performance testing machine is characterized in that: a mounting base is provided at the intersection of the first transmission channel, the first pushing mechanism, the second pushing mechanism, and the second transmission channel; the end of the first transmission channel and the beginning of the second transmission channel are fixed on the mounting base; and the push block of the first pushing mechanism and the push rod of the second pushing mechanism are slidably inserted through the mounting base.

[0015] The connector electrical performance testing machine is characterized in that: the rear end of the test probe is connected to the test terminal via a connector cable.

[0016] The connector electrical performance testing machine is characterized in that: a detection switch is provided in front of the end of the first conveying channel corresponding to the mounting base.

[0017] The connector electrical performance testing machine is characterized in that: the front end of the test probe has a cylindrical moving contact and the rear end has a square insertion part.

[0018] The connector electrical performance testing machine is characterized in that: the first testing module is fixed on the first slide block, the first slide block is slidably engaged with the first slide rail, and the second testing module is fixed on the second slide block, the second slide block is slidably engaged with the second slide rail.

[0019] The connector electrical performance testing machine is characterized in that it further includes a testing platform, wherein the first conveying channel, the first pushing mechanism, the second pushing mechanism, the second conveying channel, the first testing mechanism, and the second testing mechanism are all installed on the testing platform.

[0020] The connector electrical performance testing machine is characterized in that: a guide rod is provided below the top rod.

[0021] The connector electrical performance testing machine of the present invention has the following advantages: through the cooperation of the first transmission channel, the first pushing mechanism, the second pushing mechanism, the second transmission channel, the first testing mechanism, and the second testing mechanism, automatic detection of connector plugs is achieved. Attached Figure Description

[0022] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0023] Figure 1 This is a schematic diagram of the connector electrical performance testing machine of the present invention;

[0024] Figure 2This is an assembly diagram of the first conveying channel, the first pushing mechanism, the second pushing mechanism, the second conveying channel, the first testing mechanism, and the second testing mechanism of the present invention.

[0025] Figure 3 This is a schematic diagram of the structure of the first testing mechanism of the present invention;

[0026] Figure 4 This is a schematic diagram of the structure of the second testing mechanism of the present invention;

[0027] Figure 5 This is a schematic diagram of the structure of the first material conveying channel of the present invention;

[0028] Figure 6 This is a schematic diagram of the connector structure of the present invention;

[0029] Figure 7 This is a schematic diagram of the structure of the test probe of the present invention. Detailed Implementation

[0030] like Figures 1 to 7 As shown, the connector electrical performance testing machine of the present invention mainly consists of a first transmission channel 1, a first pushing mechanism 3, a second pushing mechanism 7, a second transmission channel 10, a first testing mechanism 12, and a second testing mechanism 17.

[0031] The first conveying channel 1 has a first material groove 2 for the connector 37 to enter. The first material groove 2 is C-shaped, and a baffle 24 is provided on one side of its bottom. After the connector 37 is inserted into the first material groove 2, its rear pins extend out of the first material groove 2 and face upward. At the same time, the housing of the connector 37 moves forward in a straight line along the baffle 24 to ensure the smooth sliding of the connector 37 and prevent it from falling off. The first pushing mechanism 3 is mainly composed of a first cylinder 4 and a push block 5. The push block 5 is vertically arranged on one side of the end of the first conveying channel 1. The front of the push block 5 has a second material groove 6 for the connector 37 to enter. The first cylinder 4 is connected to the rear end of the push block 5. The second pushing mechanism 7 is mainly composed of a second cylinder 8 and a push rod 9. The push rod 9 is parallel to the other side of the end of the first conveying channel 1. The second cylinder 8 is connected to the rear end of the push rod (9). The second conveying channel 10 has a third material groove 11 for the connector 37 to enter. The third material groove 11 is horizontally arranged at the front end of the push rod 9. The first testing mechanism 12 mainly consists of a first testing module 13, a test pin 14, and a third cylinder 15. The test pin 14 is inserted into the first testing module 13 and is vertically positioned above the end of the second conveying channel 10, for contacting one end of the pin 16 of the connector 37. The second testing mechanism 17 mainly consists of a second testing module 18, a test pin 14, and a fourth cylinder 19. The test pin 14 is inserted into the second testing module 18 and is vertically positioned on one side of the end of the second conveying channel 10, for contacting the other end of the pin 16 of the connector. After the connector on the first material trough 2 enters the second material trough 6, it is pushed to the third material trough 11 by the push rod 9 and then conveyed to the first testing mechanism 12 and the second testing mechanism 17 for testing. The rear ends of the test pins 14 on the first testing mechanism 12 and the second testing mechanism 17 are connected to the testing terminal 27 via a connector cable 26.

[0032] Furthermore, it also includes a third conveying channel 20, which has a fourth material trough 21 for connectors to enter. One side of the third conveying channel 20 is equipped with an inclined plate 22, and the other side is connected to a fifth cylinder 23. When a connector 37 passes inspection, it is conveyed to the qualified area via the third conveying channel 20. When a connector 37 fails inspection, the fifth cylinder 23 is activated, moving the third conveying channel 20 to one side and conveying it to the unqualified area via the inclined plate 22.

[0033] Furthermore, a mounting base 25 is provided at the intersection of the first conveying channel 1, the first pushing mechanism 3, the second pushing mechanism 7, and the second conveying channel 10. The end of the first conveying channel 1 and the beginning of the second conveying channel 10 are fixed on the mounting base 25, and the push block 5 of the first pushing mechanism 3 and the push rod 9 of the second pushing mechanism 7 are slidably inserted into the mounting base 25. This facilitates the installation and connection of the aforementioned components.

[0034] Furthermore, a detection switch 28 is provided in front of the end of the first conveying channel 1 on the mounting base 25. This switch is used to detect whether there is a connector 37 on the push block 5. The push block is only pushed forward when a connector 37 is detected to prevent it from being pushed without contact with the material.

[0035] Furthermore, the test pin 14 has a cylindrical moving contact 29 at its front end and a square insertion portion 30 at its rear end. The cylindrical moving contact 29 enables it to make stable contact with the pins on the connector 37. The square insertion portion 30 enables it to be stably inserted into the ribbon cable 26.

[0036] Furthermore, the first test module 13 is fixed on the first slide block 31, which is slidably engaged with the first slide rail 32. The second test module 18 is fixed on the second slide block 33, which is slidably engaged with the second slide rail 34. This ensures stable sliding of the first test module 13 and the second test module 18, guaranteeing contact with the pins of the connector 37.

[0037] Furthermore, it also includes a test table 35, on which the first conveying channel 1, the first pushing mechanism 3, the second pushing mechanism 7, the second conveying channel 10, the first testing mechanism 12, and the second testing mechanism 17 are all installed.

[0038] Furthermore, a guide rod 38 is provided below the top rod 9. The guide rod 38 is inserted into the mounting base 25 to ensure stable sliding of the top rod 9.

[0039] Working principle: The connector 37 is fed into the first transmission channel 1 via a vibratory feeder or manually. Then, through the cooperation of the first pushing mechanism 3, the second pushing mechanism 7, and the second transmission channel 10, the connector 37 is accurately transferred to the first testing mechanism 12 and the second testing mechanism 17. During testing, the testing module slides towards the connector side via a cylinder, causing the test probe to contact the corresponding pin. Finally, it is connected to the testing terminal via a ribbon cable to realize the electrical performance testing of the connector 37.

[0040] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention are included within the protection scope of the present invention.

Claims

1. A connector electrical performance testing machine for testing connectors (37) with a row of "L"-shaped pins (16), comprising a first conveying channel (1), a first pushing mechanism (3), a second pushing mechanism (7), a second conveying channel (10), and a third conveying channel (20), wherein the first conveying channel (1) has a first material groove (2) for the connector (37) to enter, and the first pushing mechanism (3) consists of a first cylinder (4) and a pusher (5), wherein the pusher (5) is vertically disposed on the first conveying channel. At one end of the conveyor channel (1), the first cylinder (4) is connected to the rear end of the push block (5), and the second pushing mechanism (7) consists of a second cylinder (8) and a push rod (9). The push rod (9) is arranged parallel to the other end of the first conveyor channel (1), and the second cylinder (8) is connected to the rear end of the push rod (9). The second conveyor channel (10) has a third material groove (11) for the connector (37) to enter. The third material groove (11) is arranged horizontally at the front end of the push rod (9). Also includes: The first test mechanism (12) and the second test mechanism (17) are arranged in an "L" shape. The first test mechanism (12) consists of a first test module (13), a test needle (14), and a third cylinder (15). The third transmission channel (20) has a fourth material groove (21) for the connector to enter. The third transmission channel (20) has an inclined plate (22) on one side of its starting end and a fifth cylinder (23) on the other side. The first test module (13) is fixed on the first slide (31). The slide block (31) slides in conjunction with the first slide rail (32); a set of test pins (14) are inserted into the first test module (13) and vertically disposed on the end side of the second conveying channel (10) for contacting one end of the pin (16) of the connector (37); the second test mechanism (17) consists of a second test module (18), test pins (14) and a fourth cylinder (19), the second test module (18) is fixed on the second slide block (33), the second slide block (33) The test pin (14) is slidably engaged with the second slide rail (34); a set of test pins (14) are inserted into the second test module (18) and vertically disposed on the end side of the second conveying channel (10), for contact with the other end of the pin (16) of the connector (37); the front end of the test pin (14) has a cylindrical moving contact (29) and the rear end has a square insertion part (30), which contacts the end of the "L"-shaped pin (16) through the cylindrical moving contact (29), and the square insertion part (30) Connect to the connector cable (26) and connect to the test terminal (27) through the connector cable (26); the push block (5) has a second material groove (6) in front for the connector (37) to enter. After the connector (37) in the first material groove (2) enters the second material groove (6) of the push block (5), it is pushed into the third material groove (11) by the top rod (9) and transmitted to the first test mechanism (12) and the second test mechanism (17) for testing; A mounting base (25) is provided at the intersection of the first conveying channel (1), the first pushing mechanism (3), the second pushing mechanism (7), and the second conveying channel (10). The end of the first conveying channel (1) and the beginning of the second conveying channel (10) are fixed on the mounting base (25). The push block (5) of the first pushing mechanism (3) and the push rod (9) of the second pushing mechanism (7) are slidably inserted on the mounting base (25). A detection switch (28) is provided in front of the end of the first conveying channel (1) on the mounting base (25). The first material trough (2) is C-shaped and has a baffle (24) on one side of its bottom. After the connector (37) is installed in the first material trough (2), its rear pins extend out of the first material trough (2) and face upward. At the same time, the housing of the connector (37) moves forward in a straight line along the baffle (24).

2. The connector electrical performance testing machine according to claim 1, characterized in that, Also includes: The test bench (35) is equipped with the first conveying channel (1), the first pushing mechanism (3), the second pushing mechanism (7), the second conveying channel (10), the first testing mechanism (12), and the second testing mechanism (17).

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