A transfer fixture for molding data cable port housing

Abstract

This utility model relates to the field of data cable manufacturing technology, and in particular to a transfer fixture for forming the port shell of a data cable. It is used to fix the data cable port and place it into a mold for forming the port shell. The fixture includes a main body with a front beam and a rear beam that are parallel to each other. Side beams are provided at both ends of the front and rear beams to connect them as a single unit. The front beam has multiple evenly distributed insertion parts for connecting the data cable port. The rear beam is movably connected to multiple clamping components corresponding to the insertion parts. This design ensures that the data cable is not constrained by the clamping components when being picked up or put down, preventing wear and tear on the data cable. Furthermore, after clamping, the data cable is ensured to enter the mold and prevented from falling out. It also prevents the data cable from being damaged inside the mold due to twisting caused by insecure fixing, allowing for more efficient processing and forming of the data cable shell.

Description

Technical Field

[0001] This utility model relates to the field of data cable manufacturing technology, and in particular to a transfer fixture for forming the port shell of a data cable. Background Technology

[0002] In the data cable production process, a fixture is needed to move the semi-finished data cable between various workstations. For example, in the injection molding process of the data cable port shell, a data cable production fixture and injection molding equipment as described in the utility model patent authorization announcement number CN221960757U are used to injection mold the data cable port shell. This fixture has a first main body with a plug-in part and a second main body with a clamping mechanism. The plug-in part connects to the port of the data cable, and the clamping mechanism clamps the wire part of the data cable, so that the data cable can be fixed and sent into the mold for molding. However, existing similar production fixtures still have the following drawbacks:

[0003] Firstly, the process of fixing the data cable to the fixture involves a snap-fit ​​mechanism. The data cable is forced into the fixture by its own force, overcoming the spring's elasticity. However, wear can still occur during this process, and the structure doesn't provide a secure hold. If the fixture vibrates significantly, the data cable can detach from the fixture, making it unsuitable for high-speed transport and hindering the data cable's transfer time. This limits the processing speed of the data cable. Furthermore, preventing excessive wear requires reducing the spring force, which further increases the instability of the clamping mechanism.

[0004] Secondly, because the data cable port needs to be inserted into the connector and then snapped into the clamping mechanism, the directions of insertion and snapping are different. If a robotic arm is used, such as the data cable transfer module described in the utility model patent announcement number CN221955293U, the robotic arm would need to perform multiple actions. This not only makes the robotic arm's structural design complex, but also requires multiple steps to complete the operation, which takes more time and cannot achieve rapid loading. Therefore, traditional data cable fixing fixtures still have a low loading and unloading rate during use.

[0005] Therefore, it is necessary to propose a new technical solution to address the aforementioned problems. Utility Model Content

[0006] To overcome the shortcomings mentioned above, this utility model aims to provide a technical solution that can solve the above problems.

[0007] A transfer fixture for forming data cable port shells is used to fix the data cable port and place it into a mold for forming the port shell. The fixture includes a main body with a front beam and a rear beam that are parallel to each other. Side beams are provided at both ends of the front beam and the rear beam to connect them as a whole. The front beam has a plurality of evenly distributed plug-in parts for connecting the data cable port. The rear beam is movably connected with a plurality of clamping components corresponding to the plug-in parts. The clamping components include two clamping claws that are symmetrically arranged and rotatably connected to the rear beam. The back of the clamping claws is provided with a spring that abuts against the rear beam to push the two clamping claws to close. The lower end of the clamping claws has a pushing position. The two clamping claws open by applying a normal force to the pushing position to overcome the spring force.

[0008] Preferably, it also includes a fixture fixing plate adapted to the fixture body. The fixture fixing plate is provided with a positioning groove. The fixture body is positioned on the fixture fixing plate by docking with the positioning groove. The fixture fixing plate is also provided with a pushing mechanism, a clamping mechanism and an inserting mechanism. The pushing mechanism is used to apply a normal force to the pushing position. The clamping mechanism is used to clamp the side beam to fix the fixture body on the fixture fixing plate. The inserting mechanism is used to insert the data cable port into the plug-in part.

[0009] Preferably, the jacking mechanism includes a jacking cylinder fixedly mounted on the fixture fixing plate and a jacking member connected to the piston end of the jacking cylinder, with the jacking member abutting at the jacking position.

[0010] Preferably, the jacking mechanism has at least one set, each set of jacking mechanisms has two jacking cylinders that are connected to each other, and the jacking components of two adjacent jacking cylinders form a coupling structure and are coupled to each other. At least two jacking columns for connecting jacking positions are formed on the jacking components, and the jacking columns of adjacent jacking components are staggered through the coupling structure.

[0011] Preferably, the pushing mechanism is installed at the lower end of the fixture fixing plate, and multiple through holes are provided on the fixture fixing plate. The pushing column is movably inserted through the through holes, so that the upper end of the pushing column can be exposed above the through holes to connect with the clamping component.

[0012] Preferably, a plurality of through holes corresponding to the wire clamping components are provided on the rear beam, the lower part of the wire clamping gripper is rotatably connected in the through hole, and the spring abuts against the inner wall of the through hole. The lower ends of the two wire clamping grippers are extended in opposite directions and formed with spaced actuating parts, and the lower ends of the actuating parts form a pushing position.

[0013] Preferably, the clamping mechanism is provided in two sets, and the two sets of clamping mechanisms are respectively connected to the two side beams. The clamping mechanism includes a clamping cylinder installed at the lower end of the fixture fixing plate, a hinge seat connected to the piston end of the clamping cylinder, a swing seat provided on both sides of the fixture fixing plate, and a buckle rotatably connected to the swing seat and hinged to the hinge seat. The buckle is used to fasten the side beam to the fixture fixing plate.

[0014] Preferably, the insertion mechanism includes a linear guide rail mounted on the lower end of the fixture fixing plate, a push block slidably connected to the linear guide rail, an insertion cylinder mounted on the lower end of the fixture fixing plate and poweredly connected to the push block, a push rod connected to the push block and extending to the upper end of the fixture fixing plate, and a port fixing member fixedly connected to the push rod. The fixture fixing plate has an elongated hole through which the push rod passes, the elongated hole being adapted to the stroke of the insertion cylinder. The port fixing member has multiple port fixing slots facing forward corresponding to the insertion part, and multiple data line positioning slots corresponding to the wire clamping component are opened at the rear end of the port fixing slots.

[0015] Preferably, clamping portions are formed at both ends of the front or rear beam.

[0016] Compared with the prior art, the beneficial effects of this utility model are:

[0017] Through the structural design of the clamping component, the data cable can be firmly clamped to the main body of the fixture, ensuring that the data cable is firmly fixed even when the fixture is running rapidly or experiencing significant shaking. Furthermore, the clamping component does not restrict the data cable during loading and unloading, preventing wear and tear. After clamping, the data cable is secured within the mold, preventing it from slipping out and avoiding damage caused by twisting due to insecure fixing. This allows for more efficient processing and forming of the data cable casing.

[0018] By incorporating a pushing mechanism, a clamping mechanism, and an inserting mechanism, the robot arm can perform simple operations without complex manipulation. It can simply place the data cable vertically onto the fixture body. This simplifies the robot arm's structure, reduces its load-bearing capacity, and streamlines its operation. As a result, the time-consuming steps that would otherwise be required by the robot arm are transferred to the fixture mounting plate, allowing the robot arm to quickly rotate and retrieve the data cable again. This, in turn, improves the division of labor within the mechanism and increases production speed.

[0019] Additional aspects and advantages of this invention will be set forth in part in the description which follows, and in part will be obvious from the description, or may be learned by practice of the invention. Attached Figure Description

[0020] To more clearly illustrate the technical solutions in the embodiments of this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0021] Figure 1 This is a structural schematic diagram of the present invention from one perspective;

[0022] Figure 2 This is a schematic diagram of the structure of the fixture body and the fixture fixing plate in the separated state of the present invention;

[0023] Figure 3 This is a structural schematic diagram from another perspective of the present invention;

[0024] Figure 4 This is a top view of the structure of this utility model;

[0025] Figure 5 This is a partial cross-sectional schematic diagram of the corresponding clamping component of this utility model;

[0026] Figure 6 This is a structural schematic diagram of the pushing mechanism and the clamping component in this utility model.

[0027] The reference numerals and names in the figure are as follows:

[0028] Fixture body 10, front beam 11, rear beam 12, through hole 121, side beam 13, insertion part 14, wire clamping part 15, wire clamping gripper 151, spring 152, push position 153, actuation part 154, clamping part 16, fixture fixing plate 20, positioning groove 21, elongated hole 22, push mechanism 30, push cylinder 31, push component 32, push column 33, clamping mechanism 40, clamping cylinder 41, hinge seat 42, swing seat 43, buckle 44, inserting mechanism 50, linear guide rail 51, push block 52, inserting cylinder 53, push rod 54, port fixing component 55, port fixing groove 56. Detailed Implementation

[0029] The technical solutions in the embodiments of this utility model will be clearly and completely described below. Obviously, the described embodiments are only some embodiments of this utility model, and not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of this utility model.

[0030] Please see Figure 1-6In this embodiment of the present invention, a transfer fixture for forming a data cable port shell is provided for fixing the data cable port and placing it into a mold for forming the port shell. The fixture includes a main body 10, which has a front beam 11 and a rear beam 12 that are parallel to each other. Side beams 13 are provided at both ends of the front beam 11 and the rear beam 12 to connect them as a whole. The front beam 11 is provided with a plurality of evenly distributed plug-in parts 14 for connecting the data cable port. The rear beam 12 is movably connected with a plurality of clamping components 15 corresponding to the plug-in parts 14. The clamping components 15 include two clamping grippers 151 that are symmetrically arranged and rotatably connected to the rear beam 12. The back of the clamping gripper 151 is provided with a spring 152 that abuts against the rear beam 12 to push the two clamping grippers 151 to close. The lower end of the clamping gripper 151 has a pushing position 153. The two clamping grippers 151 open by applying a normal force to the pushing position 153 to overcome the elastic force of the spring 152.

[0031] By configuring the cable clamping components 15 as two structures that can close together to clamp the cable or open together to loosen the cable, the data cable can be more firmly fixed to the fixture body 10 by using the elastic clamping method. While achieving elastic clamping, the cable clamping gripper 151 is designed to use a normal force applied from below to cause the cable clamping gripper 151 to flip open. With this design, when placing the cable, a protruding structure at the fixed position of the transfer fixture can apply an upward pushing force to the cable clamping gripper 151, causing it to flip open. This allows the data cable to be easily placed between the two cable clamping grippers 151. When the transfer fixture is placed in or out of the mold or other transfer position, as long as the transfer fixture disengages from the protruding structure, the spring 152 on the back of the cable clamping gripper 151 can clamp the data cable, ensuring secure clamping. The data cable remains stable at subsequent workstations. After the data cable port shell is formed, when the transfer fixture is placed at the corresponding material picking position, the clamping component 15 can be pushed open by the protruding structure at the material picking position, allowing the data cable to be easily removed. This design ensures that the data cable is firmly clamped on the fixture body 10, guaranteeing its secure fixation even during rapid operation or significant shaking. It also prevents the data cable from being constrained by the clamping component 15 during loading and unloading, thus preventing wear. Furthermore, after clamping, the data cable is prevented from being misaligned when entering the mold, and it is also prevented from being damaged by the mold due to twisting caused by insecure fixing. This allows for more efficient processing and forming of the data cable shell.

[0032] Please see Figure 1-3Based on the above technical solution, a further proposal includes a fixture fixing plate 20 adapted to the fixture body 10. The fixture fixing plates 20 are installed on the molding machine, and generally multiple plates are provided, located at the feeding position, molding position, unloading position, or other intermediate positions. The fixture fixing plates 20 are evenly spaced and are used to move the fixture body 10 by clamping it. Specifically, clamping portions 16 are formed extending from both ends of the front beam 11 or rear beam 12. A robotic arm clamps the clamping portions 16, allowing the fixture body 10 to be moved evenly to each fixture fixing plate 20 via a stepping motion, thereby performing corresponding operations on the data lines on the fixture body 10. The fixture body 10 is positioned on the fixture fixing plate 20 by a positioning groove 21. Since the fixture body 10 is mainly composed of a front beam 11, a rear beam 12 and a side beam 13 forming an enclosed structure, the positioning groove 21 is adapted to the enclosed structure. In the design, the positioning groove 21 is set at the edge of the fixture fixing plate 20, which facilitates direct CNC machining. The fixture fixing plate 20 is also provided with a pushing mechanism 30, a clamping mechanism 40 and a inserting mechanism 50. The pushing mechanism 30 is used to apply a normal force to the pushing position 153. The clamping mechanism 40 is used to clamp the side beam 13 to fix the fixture body 10 on the fixture fixing plate 20. The inserting mechanism 50 is used to insert the data cable port into the plug part 14.

[0033] Specifically, the fixture fixing plate 20 is used to set up the corresponding pushing mechanism 30, clamping mechanism 40, and insertion mechanism 50. When the data cable is placed, the pushing mechanism 30, clamping mechanism 40, and insertion mechanism 50 need to be set up. The clamping mechanism 40 clamps the fixture body 10, and then the pushing mechanism 30 drives the clamping component 15 to open. Then, the data cable is placed into the fixture body 10 from directly above, and the data cable is connected to the clamping component 15. The port of the data cable is connected to the insertion mechanism 50. Finally, the insertion mechanism 50 drives the data cable port to be inserted into the connector 14. With this setting, the robot does not need to perform complicated operations. It can simply place the data cable into the fixture body 10 vertically. This simplifies the structure of the robot, reduces the load on the robot, and simplifies the operation steps of the robot. Thus, it can transfer the operation time of the original extra steps of the robot to a certain extent. The data cable is picked up from the fixture fixing plate 20, which facilitates the timely rotation of the robot arm to pick up the data cable again, thereby improving the division of labor of the mechanism and increasing the production rate to a certain extent. When it is in the forming mold, the mold uses a robot arm or other structure to pick up and put down the fixture body 10 on the fixture fixing plate 20. At this time, the fixture fixing plate 20 is tightly equipped with a clamping mechanism 40 to fix the fixture body 10, or the clamping mechanism 40 can be omitted directly, that is, the fixture fixing plate 20 is only used to position the fixture body 10. When it is in the position of picking up the data cable, the corresponding fixture fixing plate 20 needs to be equipped with a pushing mechanism 30 and a clamping mechanism 40, but does not need to be equipped with an inserting mechanism 50. Alternatively, depending on the structure of the data cable port shell after forming, a picking mechanism opposite to the direction of the inserting mechanism 50 can be set to pull the data cable port out of the plug part 14. Its specific structure is basically set in the same direction as the inserting mechanism 50, which will not be described in detail in this technical solution.

[0034] Please see Figure 1 , Figure 2 , Figure 3 and Figure 6 Based on the above technical solution, a push mechanism 30 is further proposed, comprising a push cylinder 31 fixedly installed on the fixture fixing plate 20 and a push component 32 connected to the piston end of the push cylinder 31, with the push component 32 docking at the push position 153. This structure is simple in design and the push mechanism 30 is controllable. In terms of arrangement, the push mechanism 30 can be arranged on each fixture fixing plate 20 of the molding machine. In practical applications, the push mechanism 30 mainly operates at the data cable placement position and the data cable retrieval position, causing the wire clamp 151 to open to complete the wire placement and retrieval operation. When the data cable encounters a problem during the transfer process, the push mechanism 30 corresponding to the fixture fixing seat at the transfer position can open the wire clamp 151 by push, making it easy for manual or robotic arms to easily remove the problematic data cable.

[0035] In terms of structural compactness design, it is proposed that the push mechanism 30 has at least one set, each set of push mechanism 30 has two push cylinders 31 that are connected to each other, and the push parts 32 of the two adjacent push cylinders 31 form a coupling structure and are coupled to each other. At least two push columns 33 for connecting to the push position 153 are formed on the push parts 32. The push columns 33 of the adjacent push parts 32 are staggered through the coupling structure. That is, each set of push mechanism 30 can push at least four wire clamping jigs. As shown in the figure, the jig body 10 can simultaneously hold 8 data lines. By setting two sets of push mechanisms 30, 8 wire clamping parts 15 can be coordinated at the same time. It utilizes the coupling structure of the adjacent push parts 32 so that the two adjacent push cylinders 31 can be closely brought together, thereby greatly improving the overall structural compactness.

[0036] Furthermore, regarding the positioning of the jacking mechanism 30, it is proposed that the jacking mechanism 30 be installed at the lower end of the fixture fixing plate 20, and that multiple through holes be provided on the fixture fixing plate 20, with the jacking column 33 movably passing through the through holes, so that the upper end of the jacking column 33 can protrude above the through holes to engage with the clamping component 15, thereby enabling the jacking mechanism 30 to be firmly and reliably engaged with the fixture fixing plate 20.

[0037] Please see Figure 5 Based on the above technical solution, it is further proposed that multiple through holes 121 corresponding to the wire clamping component 15 be opened on the rear beam 12. The upper part of the wire clamping gripper 151 is above the through hole 121. As the main structure of the wire clamping gripper 151, it has a certain curvature. After closing, it can restrain the data line between the two wire clamping grippers 151. The lower part of the wire clamping gripper 151 is rotatably connected in the through hole 121, and the spring 152 abuts against the inner wall of the through hole 121. The lower ends of the two wire clamping grippers 151 are extended in opposite directions and formed with spaced actuating parts 154. The lower ends of the actuating parts 154 form a pushing position 153. When the push column 33 pushes, it can simultaneously abut against the two clamping hooks 151 at that position, causing the clamping hooks 151 to rotate in the direction of overcoming the elastic force of the spring 152, thereby completing the opening operation of the two clamping hooks 151. Its structure is ingenious. In order to improve smoothness, the upper end of the push column 33 can be provided with two inclined surfaces or two arc surfaces, which respectively connect to the pushing positions 153 of the two clamping hooks 151. Under the guidance of the inclined surfaces, the clamping hooks 151 and the push column 33 can better cooperate.

[0038] Please see Figure 1-4Based on the above technical solution, it is further proposed that the clamping mechanism 40 is provided with two sets, and the two sets of clamping mechanisms 40 are respectively connected to the two side beams 13. The clamping mechanism 40 includes a clamping cylinder 41 installed at the lower end of the fixture fixing plate 20, a hinge seat 42 connected to the piston end of the clamping cylinder 41, a swing seat 43 provided on both sides of the fixture fixing plate 20, and a buckle 44 rotatably connected to the swing seat 43 and hinged to the hinge seat 42. The buckle 44 is used to fasten the side beam 13 to the fixture fixing plate 20; by utilizing the hinge seat 42 and the swing seat 43, the clamping mechanism 40 can be clamped to the fixture fixing plate 20. The movable seat 43 enables the clamping cylinder 41 to drive the buckle 44 to swing. After the fixture body 10 is placed on the fixture fixing plate 20, the buckle 44 can be flipped and locked onto the side beam 13 by swinging. When it is necessary to remove the fixture body 10 from the fixture fixing plate 20, the buckle 44 is swung in the opposite direction to disengage from the side beam 13, so that the fixture body 10 can be removed from the fixture fixing plate 20. Its structure is simple and achieves a firm fit between the fixture body 10 and the fixture fixing plate 20.

[0039] Please see Figure 1-4Based on the above technical solution, a further proposed insertion mechanism 50 includes a linear guide rail 51 installed at the lower end of the fixture fixing plate 20, a push block 52 slidably connected to the linear guide rail 51, an insertion cylinder 53 installed at the lower end of the fixture fixing plate 20 and poweredly connected to the push block 52, a push rod 54 connected to the push block 52 and extending to the upper end of the fixture fixing plate 20, and a port fixing member 55 fixedly connected to the push rod 54. The fixture fixing plate 20 has an elongated hole through which the push rod 54 passes. 22. The elongated hole 22 is adapted to the stroke of the insert cylinder 53. The port fixing member 55 has multiple port fixing slots 56 facing forward and corresponding to the insertion part 14. The rear end of the port fixing slot 56 has multiple data cable positioning slots 21 corresponding to the wire clamping member 15. When placing the data cable, the pushing mechanism 30 is driven first to open the wire clamping gripper 151. The data cable is placed on the fixture body 10 from directly above by manual or robotic arm. The port of the data cable will be connected to the port fixing slot 56, and one section of the data cable will be connected to the port fixing slot 56. The cable is placed onto the clamping component 15. At this time, the pushing mechanism 30 maintains the state of pushing the clamping gripper 151, while the insertion mechanism 50 is driven by the insertion cylinder 53 to drive the pushing block 52. The pushing block 52 uses the pushing rod 54 to drive the port fixing component 55, thereby moving the data cable port on the port fixing component 55 laterally until it is inserted into the plug part 14. After the connection between the data cable port and the plug part 14 is completed, the pushing mechanism 30 retracts, causing the clamping gripper 151 to clamp the data cable under the force of the spring 152, thus completing the connection. The operation of fixing the data cable to the fixture body 10: When the port shell of the data cable is formed and the data cable needs to be removed, the port fixing groove 56 of the inserting mechanism 50 can be changed to a structure corresponding to the port shell. When the fixture body 10 moves to this position, the data cable port shell will be inserted into the port fixing groove 56. Then, the data cable port is pulled out from the plug-in part 14 by the direction drive of the inserting cylinder 53. Finally, the data cable is taken out from the fixture body 10 from bottom to top by the robot arm.

[0040] It will be apparent to those skilled in the art that this invention is not limited to the details of the exemplary embodiments described above, and that it can be implemented in other specific forms without departing from the spirit or essential characteristics of this invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of this invention is defined by the appended claims rather than the foregoing description. Thus, it is intended that all variations falling within the meaning and scope of equivalents of the claims be included within this invention.

Claims

1. A transfer fixture for molding a data cable port casing, used to fix the data cable port and place it into a mold for molding the port casing, characterized in that, The fixture includes a main body (10) with a front beam (11) and a rear beam (12) that are parallel to each other. Side beams (13) are provided at both ends of the front beam (11) and the rear beam (12) to connect them as a whole. The front beam (11) is provided with a plurality of evenly distributed plug-in parts (14) for connecting to the data cable port. The rear beam (12) is movably connected with a plurality of clamping parts (15) corresponding to the plug-in parts (14). The line component (15) includes two wire clamps (151) symmetrically arranged and rotatably connected to the rear beam (12). The back of the wire clamps (151) is provided with a spring (152) that abuts against the rear beam (12) to push the two wire clamps (151) to close. The lower end of the wire clamps (151) has a pushing position (153). The two wire clamps (151) expand by applying a normal force to the pushing position (153) to overcome the elastic force of the spring (152).

2. The transfer fixture for forming a data cable port housing according to claim 1, characterized in that, It also includes a fixture fixing plate (20) adapted to the fixture body (10). The fixture fixing plate (20) is provided with a positioning groove (21). The fixture body (10) is positioned on the fixture fixing plate (20) by docking with the positioning groove (21). The fixture fixing plate (20) is also provided with a pushing mechanism (30), a clamping mechanism (40) and an inserting mechanism (50). The pushing mechanism (30) is used to apply a normal force to the pushing position (153). The clamping mechanism (40) is used to clamp the side beam (13) to fix the fixture body (10) on the fixture fixing plate (20). The inserting mechanism (50) is used to insert the data cable port into the plug-in part (14).

3. A transfer fixture for molding a data cable port housing according to claim 2, characterized in that, The jacking mechanism (30) includes a jacking cylinder (31) fixedly installed on the fixture fixing plate (20) and a jacking component (32) connected to the piston end of the jacking cylinder (31), with the jacking component (32) mating with the jacking position (153).

4. A transfer fixture for molding a data cable port housing according to claim 3, characterized in that, The jacking mechanism (30) has at least one set, each set of jacking mechanisms (30) has two jacking cylinders (31) that are connected to each other, and the jacking parts (32) of the two adjacent jacking cylinders (31) form a coupling structure and are coupled to each other. At least two jacking columns (33) for connecting the jacking position (153) are formed on the jacking parts (32), and the jacking columns (33) of the adjacent jacking parts (32) are staggered through the coupling structure.

5. A transfer fixture for molding a data cable port housing according to claim 4, characterized in that, The push mechanism (30) is installed at the lower end of the fixture fixing plate (20), and multiple through holes are provided on the fixture fixing plate (20). The push column (33) is movably inserted through the through holes, so that the upper end of the push column (33) can be exposed above the through holes to connect with the clamping component (15).

6. A transfer fixture for molding a data cable port housing according to any one of claims 1-5, characterized in that, Multiple through holes (121) corresponding to the wire clamping component (15) are provided on the rear beam (12). The lower part of the wire clamping claw (151) is rotatably connected in the through hole (121), and the spring (152) abuts against the inner wall of the through hole (121). The lower ends of the two wire clamping claws (151) are extended in opposite directions and formed with spaced actuating parts (154). The lower ends of the actuating parts (154) form a pushing position (153).

7. A transfer fixture for molding a data cable port housing according to claim 2, characterized in that, The clamping mechanism (40) is provided in two sets, and the two sets of clamping mechanisms (40) are respectively connected to the two side beams (13). The clamping mechanism (40) includes a clamping cylinder (41) installed at the lower end of the fixture fixing plate (20), a hinge seat (42) connected to the piston end of the clamping cylinder (41), a swing seat (43) set on both sides of the fixture fixing plate (20), and a buckle (44) rotatably connected to the swing seat (43) and hinged to the hinge seat (42). The buckle (44) is used to fasten the side beam (13) to the fixture fixing plate (20).

8. A transfer fixture for molding a data cable port housing according to claim 2, characterized in that, The inserting mechanism (50) includes a linear guide rail (51) installed at the lower end of the fixture fixing plate (20), a push block (52) slidably connected to the linear guide rail (51), an inserting cylinder (53) installed at the lower end of the fixture fixing plate (20) and poweredly connected to the push block (52), a push rod (54) connected to the push block (52) and extending to the upper end of the fixture fixing plate (20), and a port fixing member (55) fixedly connected to the push rod (54). The fixture fixing plate (20) has an elongated hole (22) through which the push rod (54) passes. The elongated hole (22) is adapted to the stroke of the inserting cylinder (53). The port fixing member (55) has multiple port fixing slots (56) facing forward and corresponding to the insertion part (14). The rear end of the port fixing slot (56) has multiple data line positioning slots (21) corresponding to the wire clamping part (15).

9. A transfer fixture for molding a data cable port housing according to claim 1, characterized in that, Clamping parts (16) are formed at both ends of the front beam (11) or the rear beam (12).

Images