A cam socket terminal mechanism for connector production and its usage method

Abstract

The present invention discloses a cam plug-in terminal mechanism for connector production, including a lower fixing base, on which a main body feeding component, a glue discharging module, a colloid shaping module, an inserting end shifting module, a cam plug-in module, a terminal folding material module and a terminal pressing module are fixedly installed. A glue discharging module is arranged on one side of the main body feeding component, a colloid shaping module is erected above the glue discharging module, an inserting end shifting module is arranged on one side of the glue discharging module, and a cam plug-in module, a terminal folding material module and a terminal pressing module are respectively erected above the inserting end shifting module. A terminal feeding channel is formed on the cam plug-in module, and the inlet of the terminal feeding channel is butted against the outlet of the terminal feeding module. By controlling multiple cams with one power motor, the present invention realizes the intermittent operation of multiple structures, improves the cooperation relationship between multiple structures and reduces the manufacturing cost.

Description

Technical Field

[0001] The present invention relates to the field of automated machinery, and particularly to a cam plug-in terminal mechanism for connector production and its usage method. Background Art

[0002] A connector includes a connector body and terminals embedded in the connector body. The terminals and the connector body are separately produced. To achieve the production of the connector, the terminals need to be inserted into the connector body. Existing terminal plug-in mechanisms are each responsible for different operations by multiple power systems. For example, operations such as terminal cutting, terminal positioning, and terminal insertion all require an independent power device to provide power, resulting in an increase in equipment costs. Moreover, intermittent adjustments are required between multiple power devices. To achieve the coordination between multiple power systems and prevent errors, multiple sensors need to be used in cooperation. At the same time, after the device has been working for a certain period of time, since it is impossible to adjust each power system perfectly, recalibration is required after the equipment has been working for a certain period of time, and the recalibration process is rather cumbersome. To reduce production costs and improve work efficiency, and to improve the coordination relationship between multiple power systems, a terminal plug-in mechanism with high coordination performance between multiple power systems needs to be prepared. Summary of the Invention

[0003] The main object of the present invention is to provide a cam plug-in terminal mechanism for connector production and its usage method, which can provide power for multiple power systems through one power source, reduce production costs, improve work efficiency, and improve the coordination relationship between multiple power systems.

[0004] To achieve the above object, the technical solution adopted by the present invention is as follows:

[0005] A cam socket terminal mechanism for connector production, including a lower fixing base, on which a main body feeding component, a glue discharging module, a colloid shaping module, an inserting end shifting module, a cam socket module, a terminal folding material module and a terminal pressing module are fixedly installed. A glue discharging module is arranged on one side of the main body feeding component, a colloid shaping module is erected above the glue discharging module, an inserting end shifting module is arranged on one side of the glue discharging module, and a cam socket module, a terminal folding material module and a terminal pressing module are respectively erected above the inserting end shifting module. The cam socket module includes a cam fixing frame, a terminal feeding module, a cam rotating motor, a camshaft, a first cam linkage component, a second cam linkage component, a third cam linkage component and a fourth cam linkage component. The cam rotating motor is fixedly installed on the cam fixing frame, the output end of the cam rotating motor is fixedly connected with the camshaft, the camshaft is rotatably installed on the cam fixing frame, the first cam linkage component, the second cam linkage component, the third cam linkage component and the fourth cam linkage component are sequentially connected to the camshaft, a terminal feeding channel is opened on the cam fixing frame, and the inlet of the terminal feeding channel is butted against the outlet of the terminal feeding module.

[0006] Further, an inserting opening is opened below the terminal feeding channel, an inserting avoidance opening is opened above the inserting opening, the inserting avoidance opening is slidably connected with the third cam linkage component, a clamping opening is opened on one side of the inserting opening, the clamping opening is slidably connected with the second cam linkage component, the lower part of the inserting opening is slidably connected with the fourth cam linkage component, and the first cam linkage component is slidably connected between the terminal feeding channel and the terminal feeding module.

[0007] Further, the first cam linkage component includes a first cam body, a first swinging frame, a first swinging arm and a cutting tool head. The first swinging frame is fixedly installed on the cam fixing frame, the first swinging arm is rotatably connected to the first swinging frame through a rotating shaft, a first cam linkage wheel is rotatably installed at one end of the first swinging arm, the first cam linkage wheel is closely attached to the first cam body, a cutting tool head is fixedly installed at the other end of the first swinging arm, and the first cam body is fixedly installed on the camshaft.

[0008] Further, the second cam linkage component includes a second cam body, a second swinging frame, a second swinging arm and a clamping component. The second cam body is fixedly installed on the camshaft, a second cam linkage wheel is rotatably connected to one end of the second swinging arm, the second cam linkage wheel is closely attached and connected to the second cam body, the second swinging arm is rotatably installed on the second swinging frame, the second swinging frame is fixedly installed on the cam fixing frame, a sliding connection wheel is rotatably installed at the other end of the second swinging arm, the sliding connection wheel is slidably clamped in the clamping component, and the clamping component is fixedly installed on the cam fixing frame.

[0009] Further, the third cam linkage assembly includes a third cam body, a lifting fixed frame, a reciprocating lifting assembly, and a plugging head. The third cam body is fixedly installed on the camshaft. The lifting fixed frame is fixedly installed on the cam fixed frame. A lifting guide slide rail is fixedly installed on the lifting fixed frame. A reciprocating lifting assembly is slidably connected to the lifting guide slide rail. One end of the reciprocating lifting assembly is fixedly installed with a linkage rotating wheel, which is closely attached to and connected with the third cam body. The other end of the reciprocating lifting assembly is fixedly installed with a plugging head.

[0010] Further, the fourth cam linkage assembly includes a fourth cam body, a third swing frame, a third swing arm, and a material supporting plate. The fourth cam body is fixedly installed on the camshaft. The third swing frame is fixedly installed on the cam fixed frame. A third swing arm is rotatably installed on the third swing frame. One end of the third swing arm is rotatably connected to a transmission arm. One end of the transmission arm slidably passes through the third swing frame and the cam fixed frame and is fixedly installed with a third linkage wheel, which is closely attached to and connected with the third cam body. The other end of the third swing arm is rotatably connected to a material supporting plate. A sliding guide groove is formed on the cam fixed frame. The material supporting plate slidably passes through the sliding guide groove and is positioned below the plugging opening of the feeding channel.

[0011] Further, the reciprocating lifting assembly includes a reciprocating lifting plate, an upper pressing plate, and a return spring. The upper end surface of the reciprocating lifting plate is fixedly installed with an upper pressing plate. The lower end surface of the upper pressing plate is fixedly connected with a return spring, which is fixedly installed on the second cam linkage assembly.

[0012] Further, the clamping assembly includes a clamping seat, clamping guide columns, a clamping plate, and a clamping linkage block. There are four clamping guide columns. The four clamping guide columns are fixedly installed on the third cam linkage assembly. One end of the clamping guide column away from the third cam linkage assembly is fixedly provided with a spring limiting member. A clamping seat is slidably connected to the clamping guide column. The clamping seat is fixedly installed with a clamping plate. A clamping linkage block is also fixedly installed on the clamping seat. A linkage groove is formed on the clamping linkage block. A sliding connection wheel is slidably installed in the linkage groove.

[0013] Further, a usage method of a cam row and insert terminal mechanism for connector production includes the steps:

[0014] S1 Feeding the connector body. The connector bodies are arranged into the molds of the glue discharging module through the main body feeding assembly. After the feeding of the glue discharging module is completed, the molds are controlled to be transferred to the glue body shaping module. The main bodies in the molds are further positioned through the glue body shaping module, and the positioned connector bodies are transferred to the molds provided in the insert terminal displacement module;

[0015] The S2 terminal is inserted. The rotation of a camshaft drives four cams, and the intermittent operation of the cutting component, the material clamping component, the material supporting component, and the inserting component is controlled by the four cams respectively, realizing the error-free matching relationship of the four components, improving the matching relationship of each component during terminal insertion, and inserting the terminal into the connector body;

[0016] In S3, bending and pressing are performed. The terminal is bent by the terminal material folding component, and after bending, the terminal is pressed and combined with the connector body through the terminal pressing module to complete the insertion work of the terminal and the connector body;

[0017] In S4, blanking is carried out. The pressed connector is transferred to the blanking port for blanking or transferred to the next working station for subsequent processing.

[0018] Furthermore, the specific steps of the terminal insertion include: the material supporting component first supports the terminal strip to prevent the terminal strip from sagging due to gravity. The head of the terminal strip is clamped by the material clamping component, and then the terminal strip is cut by the cutting component to form a terminal strip of the required length. At this time, the material supporting component is in a state of avoiding the terminal strip, and the inserting component presses down to insert the terminal.

[0019] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0020] The present invention realizes the power supply of multiple power systems through a single power motor, improves the matching relationship between multiple power systems, reduces the equipment manufacturing cost and maintenance cost at the same time. Multiple power systems are connected to a single camshaft, only one calibration is required, and basically no further calibration is needed subsequently, improving the work efficiency. Description of the Drawings

[0021] Figure 1 is a three-dimensional view of the present invention;

[0022] Figure 2 is a front view of the present invention;

[0023] Figure 3 is an enlarged three-dimensional view of the cam row insertion module of the present invention;

[0024] Figure 4 is an enlarged three-dimensional view of the cam row insertion module of the present invention from another angle;

[0025] Figure 5 is a front view structure diagram of the cam row insertion module of the present invention;

[0026] Figure 6 is a top view structure diagram of the cam row insertion module of the present invention;

[0027] Figure 7 is a right view structure diagram of the cam row insertion module of the present invention;

[0028] Figure 8 This is a three-dimensional view of a partial structure of the cam socket module of the present invention;

[0029] Figure 9 This is a schematic three-dimensional view of a partial structure of the cam socket module of the present invention.

[0030] Explanation of reference numerals:

[0031] 1. Main body loading component; 2. Glue discharging module; 3. Colloid shaping module; 4. Insert end shifting module; 5. Cam socket module; 6. Terminal folding module; 7. Terminal pressing module; 8. Cam fixing bracket; 9. Terminal feeding module; 51. Cam rotating motor; 52. Camshaft; 53. First cam linkage component; 54. Second cam linkage component; 55. Third cam linkage component; 56. Fourth cam linkage component; 531. First cam body; 532. First swing bracket; 533. First swing arm; 534. Cutting tool head; 535. First cam linkage wheel; 541. Second cam body; 542. Second swing bracket; 543. Second swing arm; 544. Material clamping component; 545. Second cam linkage wheel; 546. Sliding connection wheel; 551. Third cam body; 552. Lifting fixing bracket; 553. Reciprocating lifting component; 554. Inserting head; 555. Linkage rotating wheel; 561. Fourth cam body; 562. Third swing bracket; 563. Third swing arm; 564. Material supporting plate; 565. Transmission arm; 566. Third linkage wheel; 5531. Reciprocating lifting plate; 5532. Upper pressing plate; 5533. Return spring; 5441. Material clamping seat; 5442. Material clamping guiding column; 5443. Material clamping plate; 5444. Material clamping linkage block; 5445. Spring limiting part; 5446. Linkage groove. Detailed implementation manners

[0032] The following elaborates on the preferred embodiments of the present invention in conjunction with the accompanying drawings, so that the advantages and features of the present invention can be more easily understood by those skilled in the art, thereby making the protection scope of the present invention more clearly defined.

[0033] See Figures 1-9As shown in the figure, a cam socket terminal mechanism for connector production includes a lower fixed seat, on which a main body feeding component 1, a glue discharging module 2, a colloid shaping module 3, an insertion end displacement module 4, a cam socket module 5, a terminal folding module 6, and a terminal pressing module 7 are fixedly installed. A glue discharging module 2 is arranged on one side of the main body feeding component 1. The main body feeding component 1 is used for feeding the connector main body. The connector main body is fed and arranged in the main body feeding component 1 through a vibrating feeding device or other feeding devices. The connector main body is respectively fed into the mold grooves of the glue discharging component through a pushing rod (not shown) arranged on the main body feeding component 1. The mold completed with feeding is driven by the glue discharging component to the lower part of the colloid shaping module 3. The lifting device and the pressing plate arranged on the colloid shaping module 3 are used to prevent the position deviation of the connector main body. Then, the connector main body is pushed into the mold of the insertion end displacement module 4 through a pushing device (not shown). Above the insertion end displacement module 4, a cam socket module 5, a terminal folding module 6, and a terminal pressing module 7 are respectively arranged. The cam socket module 5 includes a cam fixing frame 8, a terminal feeding module 9, a cam rotating motor 51, a camshaft 52, a first cam linkage component 53, a second cam linkage component 54, a third cam linkage component 55, and a fourth cam linkage component 56. The cam rotating motor 51 is fixedly installed on the cam fixing frame 8. The output end of the cam rotating motor 51 is fixedly connected to the camshaft 52. The camshaft 52 is rotatably installed on the cam fixing frame 8. The first cam linkage component 53, the second cam linkage component 54, the third cam linkage component 55, and the fourth cam linkage component 56 are sequentially connected to the camshaft 52. A terminal feeding channel is opened on the cam fixing frame 8. The inlet of the terminal feeding channel is docked with the outlet of the terminal feeding module 9.

[0034] An insertion opening is opened below the terminal feeding channel. An insertion avoidance opening is opened above the insertion opening. The insertion avoidance opening is slidably connected to the third cam linkage component 55. A clamping opening is opened on one side of the insertion opening. The clamping opening is slidably connected to the second cam linkage component 54. The lower part of the insertion opening is slidably connected to the fourth cam linkage component 56. A first cam linkage component 53 is slidably connected between the terminal feeding channel and the terminal feeding module 9.

[0035] The first cam linkage component 53 includes a first cam body 531, a first swing frame 532, a first swing arm 533, and a cutting tool head 534. The first swing frame 532 is fixedly installed on the cam fixing frame 8. The first swing arm 533 is rotatably connected to the first swing frame 532 through a rotating shaft. A first cam linkage wheel 535 is rotatably installed at one end of the first swing arm 533. The first cam linkage wheel 535 is in close fit with the first cam body 531. A cutting tool head 534 is fixedly installed at the other end of the first swing arm 533. The first cam body 531 is fixedly installed on the camshaft 52.

[0036] The second cam linkage assembly 54 includes a second cam body 541, a second swing frame 542, a second swing arm 543 and a material clamping assembly 544. The second cam body 541 is fixedly installed on the camshaft 52. One end of the second swing arm 543 is rotatably connected with a second cam linkage wheel 545, and the second cam linkage wheel 545 is closely attached to the second cam body 541. The second swing arm 543 is rotatably installed on the second swing frame 542, and the second swing frame 542 is fixedly installed on the cam fixing frame 8. The other end of the second swing arm 543 is rotatably installed with a sliding connection wheel 546, and the sliding connection wheel 546 is slidably clamped in the material clamping assembly 544, and the material clamping assembly 544 is fixedly installed on the cam fixing frame 8.

[0037] The third cam linkage assembly 55 includes a third cam body 551, a lifting fixing frame 552, a reciprocating lifting assembly 553 and a material inserting head 554. The third cam body 551 is fixedly installed on the camshaft 52. The lifting fixing frame 552 is fixedly installed on the cam fixing frame 8. A lifting guide rail is fixedly installed on the lifting fixing frame 552, and a reciprocating lifting assembly 553 is slidably connected to the lifting guide rail. One end of the reciprocating lifting assembly 553 is fixedly installed with a linkage rotating wheel 555, and the linkage rotating wheel 555 is closely attached to the third cam body 551. The other end of the reciprocating lifting assembly 553 is fixedly installed with a material inserting head 554.

[0038] The fourth cam linkage assembly 56 includes a fourth cam body 561, a third swing frame 562, a third swing arm 563 and a material supporting plate 564. The fourth cam body 561 is fixedly installed on the camshaft 52. The third swing frame 562 is fixedly installed on the cam fixing frame 8. A third swing arm 563 is rotatably installed on the third swing frame 562. One end of the third swing arm 563 is rotatably connected with a transmission arm 565. One end of the transmission arm 565 slidably passes through the third swing frame 562 and the cam fixing frame 8 and is fixedly installed with a third linkage wheel 566, and the third linkage wheel 566 is closely attached to the third cam body 551. The other end of the third swing arm 563 is rotatably connected with a material supporting plate 564. A sliding guide groove is formed on the cam fixing frame 8, and the material supporting plate 564 slidably passes through the sliding guide groove and is located below the material inserting opening of the feeding channel.

[0039] The reciprocating lifting assembly 553 includes a reciprocating lifting plate 5531, an upper pressing plate 5532 and a return spring 5533. The upper end surface of the reciprocating lifting plate 5531 is fixedly installed with an upper pressing plate 5532. The lower end surface of the upper pressing plate 5532 is fixedly connected with a return spring 5533, and the return spring 5533 is fixedly installed on the second cam linkage assembly 54.

[0040] The material clamping assembly 544 includes a material clamping base 5441, material clamping guide columns 5442, a material clamping plate 5443 and a material clamping linkage block 5444. There are four material clamping guide columns 5442, and the four material clamping guide columns 5442 are fixedly installed on the third cam linkage assembly 55. One end of the material clamping guide column 5442 away from the third cam linkage assembly 55 is fixedly provided with a spring limit member 5445. A material clamping base 5441 is slidably connected to the material clamping guide column 5442. The material clamping base 5441 is fixedly installed with a material clamping plate 5443. The material clamping base 5441 is also fixedly installed with a material clamping linkage block 5444. A linkage groove 5446 is formed in the material clamping linkage block 5444, and a sliding connection wheel 546 is slidably installed in the linkage groove 5446.

[0041] Specific working steps:

[0042] S1. Feeding the connector body. The connector bodies are arranged into the molds of the glue discharging module 2 through the main body feeding assembly 1. After the feeding of the glue discharging module 2 is completed, the molds are controlled to be transferred to the glue body shaping module 3, and the main bodies in the molds are further positioned through the glue body shaping module 3, and the positioned connector bodies are transferred to the molds provided in the pin inserting and shifting module 4.

[0043] S2. Terminal insertion. The rotation of a camshaft 52 drives four cams, and the intermittent operation of the cutting assembly, the material clamping assembly 544, the material supporting assembly and the pin inserting assembly is respectively controlled by the four cams, so as to realize the error-free matching relationship of the four assemblies, improve the matching relationship of each assembly during terminal insertion, and realize the insertion of the terminal into the connector body.

[0044] S3. Bending and pressing. The terminal is bent through the terminal bending component, so that the connecting part above the terminal is separated from the terminal, the useless part on the terminal is removed, and the terminal is pressed and combined with the connector body through the terminal pressing module 7 during bending, completing the insertion work of the terminal and the connector body.

[0045] S4. Discharging. The pressed connector is transferred to the discharging port for discharging or transferred to the next working station for subsequent processing.

[0046] The specific steps of the terminal insertion include: the material supporting assembly first supports the terminal strip to prevent the terminal strip from sagging due to gravity, the material clamping assembly 544 clamps the head of the terminal strip, and then the cutting assembly cuts the terminal strip to form a terminal strip with a required length. At this time, the material supporting assembly is in a state of avoiding the terminal strip, and the pin inserting assembly presses down to insert the terminal.

[0047] The above are only the preferred embodiments of the present invention, and the protection scope of the present invention is not limited to the above embodiments. Any equivalent modifications or changes made by those of ordinary skill in the art according to the disclosure of the present invention shall be included in the protection scope recorded in the claims.

Claims

1. A cam plug-in terminal mechanism for connector production, comprising a lower fixed seat, on which a main body feeding assembly (1), a glue discharge module (2), a colloid shaping module (3), a plug end shifting module (4), a cam plug-in module (5), a terminal folding module (6) and a terminal pressing module (7) are fixedly mounted, one side of the main body feeding assembly (1) is provided with a glue discharge module (2), a colloid shaping module (3) is mounted above the glue discharge module (2), one side of the glue discharge module (2) is provided with a plug end shifting module (4), and a cam plug-in module (5), a terminal folding module (6) and a terminal pressing module (7) are mounted above the plug end shifting module (4), characterized in that: The cam row insertion module (5) comprises a cam fixing frame (8), a terminal feeding module (9), a cam rotating motor (51), a cam shaft (52), a first cam linkage assembly (53), a second cam linkage assembly (54), a third cam linkage assembly (55) and a fourth cam linkage assembly (56). The cam fixing frame (8) is fixedly mounted with the cam rotating motor (51), the output end of the cam rotating motor (51) is fixedly connected with the cam shaft (52), the cam shaft (52) is freely rotatably mounted on the cam fixing frame (8), and the cam shaft (52) is sequentially connected with the first cam linkage assembly (53), the second cam linkage assembly (54), the third cam linkage assembly (55) and the fourth cam linkage assembly (56). 56), a terminal feeding channel is provided on the cam fixing frame (8), the entrance of the terminal feeding channel is connected to the discharge port of the terminal feeding module (9); an insertion port is provided below the terminal feeding channel, an insertion avoidance port is provided above the insertion port, the insertion avoidance port is slidably connected to the third cam linkage assembly (55), a clamping port is provided on one side of the insertion port, the clamping port is slidably connected to the second cam linkage assembly (54), the insertion port is slidably connected to the fourth cam linkage assembly (56), a first cam linkage assembly (53) is slidably connected between the terminal feeding channel and the terminal feeding module (9); the second cam linkage assembly (54) includes a second cam body (541), a second swing frame (542), a second swing The second cam body (541) is fixedly mounted on the cam shaft (52); one end of the second swing arm (543) is rotatably connected to a second cam linkage wheel (545); the second cam linkage wheel (545) is tightly connected to the second cam body (541); the second swing arm (543) is rotatably mounted on a second swing frame (542); the second swing frame (542) is fixedly mounted on a cam fixing frame (8); the other end of the second swing arm (543) is rotatably mounted to a sliding connection wheel (546); the sliding connection wheel (546) is slidably clamped in the material clamping assembly (544); the material clamping assembly (544) is fixedly mounted on the cam fixing frame (8); The three-cam linkage assembly (55) comprises a third cam body (551), a lifting fixed frame (552), a reciprocating lifting assembly (553) and a material insertion head (554); the third cam body (551) is fixedly mounted on the cam shaft (52); the lifting fixed frame (552) is fixedly mounted on the cam fixing frame (8); a lifting guide rail is fixedly mounted on the lifting fixed frame (552); the reciprocating lifting assembly (553) is slidably connected to the lifting guide rail; a linkage rotating wheel (555) is fixedly mounted on one end of the reciprocating lifting assembly (553); the linkage rotating wheel (555) is tightly fitted and connected to the third cam body (551); and the material insertion head (554) is fixedly mounted on the other end of the reciprocating lifting assembly (553);The fourth cam linkage assembly (56) comprises a fourth cam body (561), a third swing frame (562), a third swing arm (563) and a support plate (564); the fourth cam body (561) is fixedly mounted on the cam shaft (52); the third swing frame (562) is fixedly mounted on the cam fixing frame (8); a third swing arm (563) is rotatably mounted on the third swing frame (562); one end of the third swing arm (563) is rotatably connected to a transmission arm (564). 65), one end of the transmission arm (565) slides through the third swing frame (562) and the cam fixing frame (8) to be fixedly mounted with a third linkage wheel (566), the third linkage wheel (566) is tightly fitted and connected to the third cam body (551), the other end of the third swing arm (563) is rotatably connected to a supporting plate (564), a sliding guide groove is provided on the cam fixing frame (8), the supporting plate (564) slides through the sliding guide groove and is placed below the insertion port of the feed channel. ; 2. A cam plug-in terminal mechanism for connector production according to claim 1, characterized in that: The first cam linkage assembly (53) comprises a first cam body (531), a first swing frame (532), a first swing arm (533) and a cutting blade (534); the first swing frame (532) is fixedly mounted on a cam fixing frame (8); the first swing arm (533) is rotatably connected to the first swing frame (532) via a rotating shaft; a first cam linkage wheel (535) is rotatably mounted on one end of the first swing arm (533); the first cam linkage wheel (535) is tightly fitted to the first cam body (531); a cutting blade (534) is fixedly mounted on the other end of the first swing arm (533); and the first cam body (531) is fixedly mounted on a cam shaft (52).

3. A cam plug-in terminal mechanism for connector production according to claim 1, characterized in that: The reciprocating lifting assembly (553) comprises a reciprocating lifting plate (5531), an upper pressure plate (5532) and a return spring (5533); the upper end surface of the reciprocating lifting plate (5531) is fixedly mounted with the upper pressure plate (5532); the lower end surface of the upper pressure plate (5532) is fixedly connected with the return spring (5533); and the return spring (5533) is fixedly mounted on the second cam linkage assembly (54).

4. A cam plug-in terminal mechanism for connector production according to claim 1, characterized in that: The material clamping assembly (544) comprises a material clamping seat (5441), a material clamping guide column (5442), a material clamping plate (5443) and a material clamping linkage block (5444). There are four material clamping guide columns (5442), which are fixedly mounted on the third cam linkage assembly (55). One end of the material clamping guide column (5442) is fixedly provided with a spring limiter (5445) on the principle of the third cam linkage assembly (55). The material clamping seat (5441) is slidably connected to the material clamping guide column (5442). The material clamping seat (5441) is fixedly mounted with a material clamping plate (5443). The material clamping seat (5441) is also fixedly mounted with a material clamping linkage block (5444). A linkage groove (5446) is provided on the material clamping linkage block (5444), and a sliding connecting wheel (546) is slidably mounted in the linkage groove (5446).

5. A method for using the cam plug-in terminal mechanism for connector production according to any one of claims 1 to 4, characterized in that: Includes steps: S1: Loading the connector body, arranging the connector body into the mold of the debonding module (2) through the body loading component (1); after the debonding module (2) has finished loading, the mold is controlled to be transferred to the colloid shaping module (3); the body in the mold is further positioned by the colloid shaping module (3); and the positioned connector body is transferred to the mold provided by the plug end displacement module (4); S2 terminal plugging, through the rotation of a cam shaft (52) to drive four cams, through the four cams respectively control the cutting component, the clamping component (544), the supporting component and the inserting component intermittent operation, to achieve error-free matching relationship of the four components, improve the matching relationship of each component when the terminal is plugged in, and realize the terminal plugged into the connector body; S3 bending and pressing, the terminal is bent by the terminal bending material assembly, and after bending, the terminal and the connector body are pressed by the terminal pressing module (7), so as to complete the plugging work of the terminal and the connector body; S4 unloading, the connector after pressing is transferred to the unloading port for unloading or transferred to the next station for subsequent processing.

6. The method for using the cam plug-in terminal mechanism for connector production according to claim 5, characterized in that: The specific steps of the terminal plug-in include: the material supporting component firstly supports the material entering the terminal strip to prevent the terminal strip from sagging due to gravity, the head of the terminal strip is clamped by the material clamping component (544), and then the terminal strip is cut by the cutting component to form a terminal strip of the required length. At this time, the material supporting component is in a state of avoiding the terminal strip, and the material inserting component presses down to insert the terminal.

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