Optical cable fixing assembly for optical fiber connector

Abstract

The present invention relates to the technical field of optical cable fixing, and discloses an optical cable fixing assembly for an optical fiber connector, comprising a bottom shell, wherein the inner wall of the bottom shell is fixedly connected to a fixed seat rod, the end face of the fixed seat rod away from one end of the bottom shell is fixedly connected to an inner shell, the surface of the inner shell away from the fixed seat rod is fixedly connected to an axle seat, the inner wall of the axle seat is rotatably connected to a rotating shaft, and the surface of the rotating shaft close to the axle seat is fixedly connected to a top cover. When the present invention is used, when two optical cables that need to be fixed are connected and loaded into the required device, the top cover is rotated in the driving component of the device to open or close and drive. When the top cover rotates, it drives the hook rod to run, and the hook rod drives the arc panel to run. When the arc panel runs, it drives the elastic pull rope to run along the surface of the change-direction rotating shaft and the fixed rope seat, and drives it to rotate. Through the automatic stretching effect of the fixed rope seat, the elastic pull rope is driven to reset.

Description

Technical Field

[0001] The present invention relates to the technical field of optical cable fixing equipment, in particular to an optical cable fixing assembly for an optical fiber connector. Background Art

[0002] Optical cables are manufactured to meet optical, mechanical, or environmental performance specifications. They are communication cable assemblies that utilize one or more optical fibers enclosed in a sheath as the transmission medium and can be used individually or in groups. Fixed connections in optical cable lines require a lot of work, so they are crucial to line quality.

[0003] Fiber optic connector cable fixing assemblies are devices used to secure optical cables, typically used in conjunction with fiber optic connectors to ensure stability and reliability during the connection process. Existing cable fixing methods include fusion splicing and mechanical connection. These methods typically use a specific optical cable and connector to secure the cable. However, existing connectors are difficult to adjust in diameter, resulting in only one type of cable being secure. This makes it difficult to adapt to cables of different diameters, resulting in a high workload for cable fixing, reduced work efficiency, and a waste of manpower and resources. Summary of the Invention

[0004] The object of the present invention is to provide an optical cable fixing assembly for an optical fiber connector to solve the problems raised in the above background technology.

[0005] To solve the above technical problems, the present invention is achieved through the following technical solutions:

[0006] The present invention is an optical cable fixing assembly for an optical fiber connector, comprising a bottom shell, an inner wall of the bottom shell being fixedly connected to a fixing seat rod, an end surface of the fixing seat rod away from the bottom shell being fixedly connected to an inner shell, a surface of the inner shell away from the fixing seat rod being fixedly connected to a shaft seat, and further comprising:

[0007] A driving component, the driving component includes a hook rod, an inner wall of the hook rod is fixedly connected to a curved panel, and an inner wall of the curved panel away from the hook rod is fixedly connected to an elastic pull rope;

[0008] A fixing component, the fixing component comprising a guide rack, a fixed arc plate fixedly connected to a surface of the guide rack, and an arc plate groove slidably connected to a surface of the fixed arc plate;

[0009] The stabilizing component includes a rotating shaft sleeve, the inner wall of the rotating shaft sleeve is provided with an inner bevel gear plate, and the surface of the inner bevel gear plate is meshedly connected with a steering bevel gear plate.

[0010] Furthermore, the inner wall of the shaft seat is rotatably connected to a rotating shaft, the surface of the rotating shaft close to the shaft seat is fixedly connected to a top cover, the surface of the bottom shell close to the shaft seat is fixedly connected to an outer shell, the inner wall of the inner shell is fixedly connected to an optical cable fixing block, the number of the fixed seat rods is four, and the four fixed seat rods are symmetrically distributed around the inner wall center of the bottom shell, and the number of the shaft seats is two, and the two shaft seats are symmetrically distributed around the surface of the inner shell.

[0011] Furthermore, the driving component includes a changing shaft, the surface of the changing shaft is rotatably connected to a multi-axis base, the surface of the inner shell close to the multi-axis base is fixedly connected to a fixed rope seat, the number of the hook rods is set to three, the three hook rods are equidistantly distributed along the surface of the arc panel, the surface of the hook rod away from the arc panel is fixedly connected to the surface of the top cover, the surface of the elastic pull rope contacts the surface of the changing shaft, the end face of the elastic pull rope away from one end of the arc panel is fixedly connected to the surface of the fixed rope seat, the number of the elastic pull ropes is set to two, the two elastic pull ropes are symmetrically distributed on the surface of the arc panel, the number of the multi-axis bases is set to two, the two multi-axis bases are symmetrically distributed on the surface of the changing shaft, and the end face of the multi-axis base away from one end of the changing shaft is fixedly connected to the surface of the inner shell.

[0012] Furthermore, the surface of the arc panel close to the elastic pull rope is fixedly connected to a stretching arc rod, the end face of the stretching arc rod away from one end of the arc panel is fixedly connected to a connecting rack, the surface of the connecting rack is slidably connected to a rack groove plate, the surface of the connecting rack is meshingly connected to a toothed plate, the inner wall of the toothed plate is fixedly connected to a toothed plate rotating shaft, the number of the stretching arc rods is provided at two, and the two stretching arc rods are symmetrically distributed on the surface of the arc panel, the surface of the stretching arc rod contacts the surface of the changing shaft, the surface of the rack groove plate away from the connecting rack is fixedly connected to the surface of the inner shell, and the surface of the toothed plate rotating shaft is rotatably connected to the inner wall of the outer shell.

[0013] Furthermore, the surface of the connecting rack away from the tooth plate is fixedly connected to a reset vertical plate, the surface of the shaft seat close to the reset vertical plate is fixedly connected to an auxiliary base, the surface of the auxiliary base is rotatably connected to an auxiliary stretching plate, the end face of the auxiliary stretching plate away from one end of the auxiliary base is fixedly connected to a connecting hook plate, the end face of the reset vertical plate away from one end of the auxiliary base is fixedly connected to a reset spring, the surface of the reset vertical plate is fixedly connected to the inner wall of the connecting hook plate, and the end face of the reset spring away from one end of the reset vertical plate is fixedly connected to the end face of the rack groove plate.

[0014] Furthermore, the fixed component includes a turning handle, a clamping column is provided on the surface of the turning handle, a rope plate is fixedly connected to the surface of the turning handle, two guide racks are provided, and the two guide racks are symmetrically distributed on the surface of the inner shell, the surface of the guide rack away from the fixed arc plate is meshed and connected with the surface of the tooth plate, the surface of the arc plate groove away from the fixed arc plate is fixedly connected to the surface of the inner shell, the surface of the turning handle is rotatably connected to the inner wall of the bottom shell, the end face of the clamping column away from one end of the turning handle is fixedly connected to the surface of the bottom shell, and there are two turning handles, and the two turning handles are symmetrically distributed on the surface of the bottom shell.

[0015] Furthermore, an axial pull rope is fixedly connected to the inner wall of the rope-wrapping plate, and the end face of the axial pull rope away from one end of the rope-wrapping plate is fixedly connected to the inner telescopic plate, and the end face of the inner telescopic plate away from one end of the axial pull rope is fixedly connected to a positioning spring. There are four axial pull ropes, and the four axial pull ropes are divided into two groups, and the number of each group is set to two. The two groups of axial pull ropes are symmetrically distributed on the surface of the rope-wrapping plate, and each group of axial pull ropes is symmetrically distributed on the surface of the inner telescopic plate. The end face of the positioning spring away from one end of the inner telescopic plate is fixedly connected to the inner wall of the bottom shell.

[0016] The top end face of the column shaft sleeve is away from the end surface of the transmission bevel gear plate and is fixedly connected to the surface of the cable fixing block, and the end face of the column shaft sleeve is away from the end surface of the transmission bevel gear plate and is fixedly connected to the surface of the cable fixing block.

[0017] Furthermore, the stabilizing component includes an inclined plate, the end face of the inclined plate is fixedly connected to a column plate, the inner wall of the column plate is fixedly connected to an elastic column, the number of the rotating shaft sleeves is set to two, and the two rotating shaft sleeves are symmetrically distributed on the surface of the rotating shaft, the number of the steering bevel gear plates is set to two, and the two steering bevel gear plates are symmetrically distributed on the surface of the inner bevel gear plate, the number of the inclined plates is set to four, the four inclined plates are divided into two groups, and the number of each group is set to two, the two groups of inclined plates are symmetrically distributed on the surface of the rotating shaft, the number of the elastic columns is set to three, and the three elastic columns are distributed at equal angles on the inner wall of the column plate.

[0018] The cam is fixedly provided with a toothed plate, and the toothed plate is fixedly provided with a toothed plate, and the toothed plate is fixedly provided with a toothed plate, and the toothed plate is fixedly provided with a toothed plate.

[0019] The present invention has the following beneficial effects:

[0020] When the present invention is used, two optical cables that need to be fixed are connected and installed in the required device. At this time, the top cover is rotated in the driving component of the device to open or close, and driven. When the top cover rotates, it drives the hook rod to run, and the hook rod drives the arc panel to run. When the arc panel runs, it drives the elastic pull rope to run along the surface of the direction-changing shaft and the fixed rope seat, and drives it to rotate. Through the automatic stretching effect of the fixed rope seat, the elastic pull rope is driven to reset. When the top cover is opened and closed, it is subjected to auxiliary stretching action, and the sealing of the device is better stabilized through its own tension. At the same time, when the arc panel runs, it drives the stretching arc rod to run, and the stretching arc rod will The connecting rack is driven to slide along the inner wall of the rack groove plate. The connecting rack is connected through surface meshing, which will drive the tooth plate to run, and the tooth plate will drive the tooth plate shaft to rotate along the inner wall of the shell. At the same time, when the connecting rack is running, it will drive the reset vertical plate to run. When the reset vertical plate is running, it will drive the connecting hook plate to run, and the connecting hook plate will drive the auxiliary stretching plate to stretch. At the same time, when the reset vertical plate is running, it will drive the reset spring to run and squeeze it. When the reset spring is subjected to the squeezing force, it generates elastic force. The elastic force generated by the reset spring itself assists the reset vertical plate in resetting operation and opening and closing the top cover through its own elastic force.

[0021] When the present invention is in use, in the fixed component, when the tooth plate runs, it will drive the guide rack to run, and the guide rack will drive the fixed arc plate to slide along the inner wall of the arc plate groove. When the fixed arc plate runs to the required position, the elastic plate on the inner wall of the fixed arc plate contacts the optical cable, and the optical cable is initially positioned. At the same time, it drives the turning handle to run, and the turning handle rotates along the inner wall of the bottom shell. When the turning handle runs, it drives the rope plate to run, and the rope plate drives the axial pull rope to run. The two sets of axial pull ropes drive the corresponding inner telescopic plates to stretch and run, and finally fix the optical cable to the surface of the side away from the fixed arc plate. The optical cable is fixed through the interaction with the fixed arc plate to prevent the optical cable from deviating during installation and causing damage to the optical cable. At the same time, when the inner telescopic plate runs, it drives the positioning spring to stretch and run, and the positioning spring will generate elastic force to assist in resetting the inner telescopic plate. When the cross plate runs, it drives the contact buffer plate to run, and the two contact buffer plates stabilize the optical cable on the inner wall of the cable fixing block, and squeeze the optical cable in the cable fixing block through the two contact buffer plates, so that the contact surface of the optical cable is more fixed.

[0022] When the present invention is in use, inside the stabilizing component, when the top cover is running, it will drive the rotating shaft to rotate along the inner wall of the shaft seat, and the rotating shaft will drive the inner bevel gear plate on the surface to run, and the inner bevel gear plate will drive the steering bevel gear plate to run through the meshing connection of the surface. When the steering bevel gear plate is running, it will drive the bidirectional threaded rod to run, and through the threaded connection of the surface of the bidirectional threaded rod, it will drive the slider to move up and down along the inner wall of the rotating shaft sleeve, and the slider will drive the slider sleeve to slide along the outer wall of the rotating shaft sleeve to perform external stabilization on the slider. When the slider is running, it will drive the inclined plate to run, and the inclined plate will drive the column plate to run. Each group of card column plates stabilizes the external optical cable. At the same time, the optical cable will collide with the elastic column, and the elastic force of the elastic column will stabilize the optical cable. At the same time, the elastic column will stabilize the external part of the optical cable to avoid the displacement of the optical cable during installation and cause damage to the optical cable. At the same time, when the top cover is running, it will collide with the pressure column, and the pressure column will slide along the surface of the inner elastic column. At the same time, it will drive the internal pressure arc plate to run, further stabilizing the optical cable entering the surface of the optical cable fixing block, and better fixing the optical cable in the device to avoid collision of the optical cable after installation.

[0023] Of course, any product implementing the present invention does not necessarily need to achieve all of the advantages described above at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following briefly introduces the drawings required for describing the embodiments. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0025] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0026] Figure 2 It is a cross-sectional view of the overall structure of the present invention;

[0027] Figure 3 This is a schematic diagram of the structure of the driving component of the present invention;

[0028] Figure 4 For the present invention Figure 3 A magnified view of part A in FIG;

[0029] Figure 5 This is a rear cross-sectional view of the fixing component structure of the present invention;

[0030] Figure 6 This is a cross-sectional view of the fixing component structure of the present invention;

[0031] Figure 7 For the present invention Figure 6 A magnified view of part B in FIG;

[0032] Figure 8 This is a cross-sectional view of the structure of the stabilizing component of the present invention;

[0033] Figure 9 For the present invention Figure 8 Enlarged view of part C in .

[0034] In the accompanying drawings, the components represented by the reference numerals are as follows:

[0035] In the figure: 1. driving component; 2. fixing component; 3. stabilizing component; 4. bottom shell; 5. fixed seat rod; 6. inner shell; 7. shaft seat; 8. rotating shaft; 9. top cover; 10. outer shell; 11. optical cable fixing block; 21. hook rod; 22. arc panel; 23. elastic pull rope; 24. direction-changing rotating shaft; 25. multi-axis base; 26. fixed rope seat; 27. stretching arc rod; 28. connecting rack; 29. ​​rack groove plate; 30. tooth plate; 31. tooth plate rotating shaft; 32. auxiliary base; 33. auxiliary stretching plate; 34. connecting hook plate; 35. reset vertical plate; 36. reset spring; 41. guide rack; 42. fixed arc plate ;43. Arc plate groove;44. Turn handle;45. Clamping column;46. Rope plate;47. Axial pull rope;48. Inner telescopic plate;49. Positioning spring;50. Elastic connecting column;51. Rotating column;52. Cross plate;53. Contact buffer plate;54. Cross plate slide;55. Output bevel gear plate;56. Transmission bevel gear plate;57. Threaded column;58. Column shaft sleeve;61. Rotating shaft sleeve;62. Inner bevel gear plate;63. Steering bevel gear plate;64. Bevel plate;65. Clamping column plate;66. Elastic column;67. Pressure column;68. Inner pressure arc plate;69. Inner elastic column;70. Bidirectional threaded rod;71. Slider;72. Slider sleeve. DETAILED DESCRIPTION

[0036] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0037] See also Figure 1 - Figure 9 As shown, the present invention is an optical fiber cable fixing assembly for an optical fiber connector, comprising a bottom shell 4, a fixing seat rod 5 fixedly connected to the inner wall of the bottom shell 4, an inner shell 6 fixedly connected to the end face of the fixing seat rod 5 away from the bottom shell 4, and a shaft seat 7 fixedly connected to the surface of the inner shell 6 away from the fixing seat rod 5, and further comprising:

[0038] Driving component 1, driving component 1 includes a hook rod 21, which rotates the top cover 9 to open or close, and drives it. When the top cover 9 rotates, it drives the hook rod 21 to run, and the hook rod 21 drives the arc panel 22 to run. The inner wall of the hook rod 21 is fixedly connected to the arc panel 22. When the arc panel 22 runs, it drives the elastic pull rope 23 to run along the surface of the changing shaft 24 and the fixed rope seat 26, and drives it to rotate. Through the automatic stretching effect of the fixed rope seat 26, the elastic pull rope 23 is driven to reset. When the top cover 9 is opened and closed, it is assisted in stretching it, and the sealing of the device is better stabilized by its own tension. The inner wall of the arc panel 22 away from the hook rod 21 is fixedly connected to the elastic pull rope 23;

[0039] The fixing component 2 includes a guide rack 41. When the tooth plate 30 runs, the guide rack 41 is driven to run, and the guide rack 41 drives the fixed arc plate 42 to slide along the inner wall of the arc plate groove 43. When the fixed arc plate 42 runs to the desired position, the elastic plate on the inner wall of the fixed arc plate 42 contacts the optical cable to perform preliminary positioning of the optical cable. The surface of the guide rack 41 is fixedly connected to the fixed arc plate 42, and the surface of the fixed arc plate 42 is slidably connected to the arc plate groove 43.

[0040] The stabilizing component 3 includes a rotating shaft sleeve 61, and the inner wall of the rotating shaft sleeve 61 is provided with an inner bevel gear plate 62. When the top cover 9 is running, it will drive the rotating shaft 8 to rotate along the inner wall of the shaft seat 7, and the rotating shaft 8 will drive the inner bevel gear plate 62 on the surface to run. The inner bevel gear plate 62 is connected through the meshing connection of the surface, and it will drive the steering bevel gear plate 63 to run. The surface of the inner bevel gear plate 62 is meshed with the steering bevel gear plate 63. When the steering bevel gear plate 63 runs, it will drive the bidirectional threaded rod 70 to run.

[0041] The inner wall of the shaft seat 7 is rotatably connected to the rotating shaft 8, and the surface of the rotating shaft 8 close to the shaft seat 7 is fixedly connected to the top cover 9, the surface of the bottom shell 4 close to the shaft seat 7 is fixedly connected to the outer shell 10, and the inner wall of the inner shell 6 is fixedly connected to the optical cable fixing block 11. There are four fixed seat rods 5, and the four fixed seat rods 5 are symmetrically distributed around the inner wall center of the bottom shell 4. There are two shaft seats 7, and the two shaft seats 7 are symmetrically distributed around the surface of the inner shell 6.

[0042] The driving component 1 includes a changing shaft 24, the surface of which is rotatably connected to a multi-axis base 25, and the surface of the inner shell 6 close to the multi-axis base 25 is fixedly connected to a fixed rope seat 26. There are three hook rods 21, and the three hook rods 21 are equidistantly distributed along the surface of the arc panel 22. The surface of the hook rod 21 away from the arc panel 22 is fixedly connected to the surface of the top cover 9, and the surface of the elastic pull rope 23 contacts the surface of the changing shaft 24. The end face of the elastic pull rope 23 away from the arc panel 22 is fixedly connected to the surface of the fixed rope seat 26. There are two elastic pull ropes 23, and the two elastic pull ropes 23 are symmetrically distributed on the surface of the arc panel 22. There are two multi-axis bases 25, and the two multi-axis bases 25 are symmetrically distributed on the surface of the changing shaft 24. The end face of the multi-axis base 25 away from the changing shaft 24 is fixedly connected to the surface of the inner shell 6.

[0043] The surface of the arc panel 22 near the elastic pull rope 23 is fixedly connected to the stretching arc rod 27. When the arc panel 22 runs, the stretching arc rod 27 will be driven to run, and the stretching arc rod 27 will drive the connecting rack 28 to slide along the inner wall of the rack groove plate 29. The end surface of the stretching arc rod 27 away from the arc panel 22 is fixedly connected to the connecting rack 28. When the connecting rack 28 runs, it will drive the reset vertical plate 35 to run. The surface of the connecting rack 28 is slidably connected to the rack groove plate 29, and the surface of the connecting rack 28 is meshed with the toothed plate 30. 28 is connected through surface meshing, which will drive the tooth plate 30 to operate, and the tooth plate 30 will drive the tooth plate shaft 31 to rotate along the inner wall of the outer shell 10. The inner wall of the tooth plate 30 is fixedly connected to the tooth plate shaft 31. There are two stretching arc rods 27, and the two stretching arc rods 27 are symmetrically distributed on the surface of the arc plate 22. The surface of the stretching arc rod 27 contacts the surface of the changing shaft 24. The surface of the rack groove plate 29 away from the side connected to the rack 28 is fixedly connected to the surface of the inner shell 6, and the surface of the tooth plate shaft 31 is rotatably connected to the inner wall of the outer shell 10.

[0044] The surface of the connecting rack 28 away from the tooth plate 30 is fixedly connected to the reset vertical plate 35. When the reset vertical plate 35 is in operation, the connecting hook plate 34 is driven to operate. The surface of the shaft seat 7 close to the reset vertical plate 35 is fixedly connected to the auxiliary base 32. The surface of the auxiliary base 32 is rotatably connected to the auxiliary stretching plate 33. The end surface of the auxiliary stretching plate 33 away from the auxiliary base 32 is fixedly connected to the connecting hook plate 34. The connecting hook plate 34 drives the auxiliary stretching plate 33 to stretch. The end surface of the reset vertical plate 35 away from the auxiliary base 32 is fixedly connected A return spring 36 is connected. When the return plate 35 is in operation, the return spring 36 is driven to operate and squeeze it. When the return spring 36 is subjected to the squeezing force, an elastic force is generated. The elastic force generated by the return spring 36 itself assists the return plate 35 in resetting operation and opening and closing the top cover 9 through its own elastic force. The surface of the return plate 35 is fixedly connected to the inner wall of the connecting hook plate 34, and the end face of the return spring 36 away from the end of the return plate 35 is fixedly connected to the end face of the rack groove plate 29.

[0045] The fixing component 2 includes a turning handle 44, which drives the turning handle 44 to operate. The turning handle 44 rotates along the inner wall of the bottom shell 4. When the turning handle 44 operates, it drives the rope plate 46 to operate. The surface of the turning handle 44 is provided with a clamping column 45. When the turning handle 44 is rotated to the required position, the clamping column 45 is operated to fix it with the surface of the clamping column 45. The surface of the turning handle 44 is fixedly connected to the rope plate 46. The rope plate 46 will drive the axial pull rope 47 to operate. The two sets of axial pull ropes 47 will drive the corresponding inner telescopic plate 48 to stretch and operate, and finally fix it with the surface of the optical cable away from the fixed arc plate 42. The optical cable is fixed through the interaction with the fixed arc plate 42 to prevent the optical cable from being installed. When the tumbler 41 is in operation, it deviates, causing damage to the optical cable, driving the tumbler 44 to operate, and the tumbler 44 rotates along the inner wall of the bottom shell 4. When the tumbler 44 operates, it drives the rope plate 46 to operate. There are two guide racks 41, and the two guide racks 41 are symmetrically distributed on the surface of the inner shell 6. The surface of the guide rack 41 away from the fixed arc plate 42 is meshed with the surface of the tooth plate 30, and the surface of the arc plate groove 43 away from the fixed arc plate 42 is fixedly connected to the surface of the inner shell 6. The surface of the tumbler 44 is rotatably connected to the inner wall of the bottom shell 4, and the end face of the clamping column 45 away from the end of the tumbler 44 is fixedly connected to the surface of the bottom shell 4. There are two tumblers 44, and the two tumblers 44 are symmetrically distributed on the surface of the bottom shell 4.

[0046] The inner wall of the rope plate 46 is fixedly connected with an axial pull rope 47, and the end face of the axial pull rope 47 away from the rope plate 46 is fixedly connected with an inner telescopic plate 48. When the inner telescopic plate 48 runs, it will drive the positioning spring 49 to stretch and run, and the end face of the inner telescopic plate 48 away from the axial pull rope 47 is fixedly connected with a positioning spring 49. The positioning spring 49 will generate elastic force to assist in resetting the inner telescopic plate 48. There are four axial pull ropes 47, and the four axial pull ropes 47 are divided into two groups, and the number of each group is set to two. The two groups of axial pull ropes 47 are symmetrically distributed on the surface of the rope plate 46, and each group of axial pull ropes 47 is symmetrically distributed on the surface of the inner telescopic plate 48. The end face of the positioning spring 49 away from the inner telescopic plate 48 is fixedly connected to the inner wall of the bottom shell 4.

[0047] The inner wall of the optical cable fixing block 11 is provided with an elastic connecting post 50. When the optical cable runs into the optical cable fixing block 11, it will come into contact with the surface of the elastic connecting post 50, driving it to rotate. When the elastic connecting post 50 runs, it will drive the rotating post 51 to rotate along the inner wall of the optical cable fixing block 11. The end face of the elastic connecting post 50 is fixedly connected to the rotating post 51, and the rotating post 51 drives the output bevel gear plate 55 to rotate. The end face of the rotating post 51 is fixedly connected to the output bevel gear plate 55, and the output The output bevel gear plate 55 drives the transmission bevel gear plate 56 to rotate along the inner wall of the column shaft sleeve plate 58 through the surface meshing action. The surface of the output bevel gear plate 55 is meshed with the transmission bevel gear plate 56. When the transmission bevel gear plate 56 is running, it drives the threaded column 57 to move up and down through the threaded connection on the inner wall. The inner wall of the transmission bevel gear plate 56 is threadedly connected with the threaded column 57. The threaded column 57 drives the cross plate 52 to slide along the inner wall of the cross plate slide groove 54. The transmission bevel gear plate 56 The surface of one side of the threaded column 57 is rotatably connected to a column shaft sleeve plate 58, and the surface of the threaded column 57 away from the column shaft sleeve plate 58 is fixedly connected to the cross plate 52. When the cross plate 52 runs, it will drive the contact buffer plate 53 to run, and the two contact buffer plates 53 will stabilize the optical cable on the inner wall of the optical cable fixing block 11 through the two contact buffer plates 53 to squeeze the optical cable in the optical cable fixing block 11, so that the contact surface of the optical cable is more fixed.

[0048] The stabilizing component 3 includes an inclined plate 64. When the slider 71 runs, the inclined plate 64 is driven to run, and the inclined plate 64 drives the column plate 65 to run. The end face of the inclined plate 64 is fixedly connected with the column plate 65. The column plates 65 of each group stabilize the external optical cable. The inner wall of the column plate 65 is fixedly connected with an elastic column 66. The optical cable collides with the elastic column 66. The elastic force of the elastic column 66 stabilizes the optical cable. At the same time, the elastic column 66 stabilizes the external part of the optical cable to avoid deviation of the optical cable during installation. Shift, causing damage to the optical cable, the number of the rotating shaft housings 61 is set to two, the two rotating shaft housings 61 are symmetrically distributed on the surface of the rotating shaft 8, the number of the steering bevel gear plates 63 is set to two, the two steering bevel gear plates 63 are symmetrically distributed on the surface of the inner bevel gear plate 62, the number of the inclined plates 64 is set to four, the four inclined plates 64 are divided into two groups, and the number of each group is set to two, the two groups of inclined plates 64 are symmetrically distributed on the surface of the rotating shaft 8, the number of the elastic columns 66 is set to three, and the three elastic columns 66 are distributed at equal angles on the inner wall of the column plate 65.

[0049] The inner wall of the inner shell 6 is fixedly connected with an inner elastic column 69, and the inner elastic column 69 is slidably connected with a pressure column 67 away from the surface of the inner shell 6. When the top cover 9 is running, it will collide with the pressure column 67, and the surface of the pressure column 67 is fixedly connected with an inner pressure arc plate 68. The pressure column 67 will slide along the surface of the inner elastic column 69. At the same time, it will drive the inner pressure arc plate 68 to run, further stabilizing the optical cable entering the surface of the optical cable fixing block 11, and better fixing the optical cable in the device to avoid collision of the optical cable after installation. The inner wall of the steering bevel plate 63 is fixedly connected with a two-way threaded rod 70, and the threaded connection on the surface of the two-way threaded rod 70 will drive the slider 71 to move up and down along the inner wall of the shaft sleeve 61. The surface of the two-way threaded rod 70 is threadedly connected with a slider 71, and the slider 71 will The slider sleeve 72 will be driven to slide along the outer wall of the rotating shaft sleeve 61 to perform external stabilization on the slider 71. The surface of the slider 71 is fixedly connected to the slider sleeve 72. There are four inner elastic columns 69. The four inner elastic columns 69 are divided into two groups, and the number of each group is set to two. The two groups of inner elastic columns 69 are symmetrically distributed on the inner wall of the inner shell 6. The pressure columns 67 of each group are symmetrically distributed on the surface of the inner pressure arc plate 68. There are two sliders 71. The two sliders 71 are symmetrically distributed on the inner wall of the rotating shaft sleeve 61. The surface of the slider 71 is slidably connected to the inner wall of the rotating shaft sleeve 61. The surface of the slider sleeve 72 close to the bidirectional threaded rod 70 is slidably connected to the surface of the rotating shaft sleeve 61. The end face of the slider 71 away from the slider sleeve 72 is fixedly connected to the end face of the inclined plate 64 away from the column plate 65.

[0050] When in use, when two optical cables that need to be fixed are connected and installed in the required device, the top cover 9 is rotated in the device driving component 1 to open or close, and driven. When the top cover 9 rotates, it will drive the hook rod 21 to run, and the hook rod 21 will drive the arc panel 22 to run. When the arc panel 22 runs, it will drive the elastic pull rope 23 to run along the surface of the changing shaft 24 and the fixed rope seat 26, and drive it to rotate. Through the automatic stretching effect of the fixed rope seat 26, the elastic pull rope 23 is driven to reset. When the top cover 9 is opened and closed, it is assisted in stretching it, and through its own tension, the sealing of the device is better stabilized. At the same time, when the arc panel 22 runs, it will drive the stretching arc rod 27 to run, and the stretching arc rod 27 will drive the connecting rack 2 8 slides along the inner wall of the rack groove plate 29, and the connecting rack 28 is connected by surface meshing, which will drive the tooth plate 30 to operate, and the tooth plate 30 will drive the tooth plate rotating shaft 31 to rotate along the inner wall of the shell 10. At the same time, when the connecting rack 28 is operating, it will drive the reset vertical plate 35 to operate. When the reset vertical plate 35 is operating, it will drive the connecting hook plate 34 to operate, and the connecting hook plate 34 will drive the auxiliary stretching plate 33 to stretch. At the same time, when the reset vertical plate 35 is operating, it will drive the reset spring 36 to operate and squeeze it. When the reset spring 36 is subjected to the squeezing force, it generates an elastic force. The elastic force generated by the reset spring 36 itself assists the reset vertical plate 35 in resetting operation and opening and closing of the top cover 9 through its own elastic force.At this time, in the fixed component 2, when the tooth plate 30 runs, it will drive the guide rack 41 to run, and the guide rack 41 will drive the fixed arc plate 42 to slide along the inner wall of the arc plate groove 43. When the fixed arc plate 42 runs to the desired position, the elastic plate on the inner wall of the fixed arc plate 42 contacts the optical cable to perform preliminary positioning of the optical cable. At the same time, it drives the turning handle 44 to run, and the turning handle 44 rotates along the inner wall of the bottom shell 4. When the turning handle 44 runs, it drives the rope plate 46 to run, and the rope plate 46 drives the axial pull rope 47 When the inner telescopic plate 48 is in operation, the two sets of axial pull ropes 47 will drive the corresponding inner telescopic plate 48 to stretch and run, and finally fix the optical cable with the surface of the side away from the fixed arc plate 42. Through the interaction with the fixed arc plate 42, the optical cable is fixed to prevent the optical cable from deviating during installation and causing damage to the optical cable. At the same time, when the inner telescopic plate 48 is in operation, it will drive the positioning spring 49 to stretch and run, and the positioning spring 49 will generate elastic force to assist in resetting the inner telescopic plate 48. At the same time, when the rotating After rotating 44 to the desired position, operate the card column 45 so that it is fixed with the surface of the card column 45. When the optical cable runs into the cable fixing block 11, it will come into contact with the surface of the elastic connecting column 50, driving it to rotate. When the elastic connecting column 50 runs, it will drive the rotating column 51 to rotate along the inner wall of the cable fixing block 11. The rotating column 51 drives the output bevel gear plate 55 to rotate. The output bevel gear plate 55 drives the transmission bevel gear plate 56 along the inner wall of the column shaft sleeve plate 58 through the surface meshing action. The transmission bevel gear plate 56 rotates, and when the transmission bevel gear plate 56 is running, the threaded column 57 is driven to move up and down through the threaded connection on the inner wall. The threaded column 57 drives the cross plate 52 to slide along the inner wall of the cross plate slide groove 54. When the cross plate 52 is running, it drives the contact buffer plate 53 to run. The two contact buffer plates 53 stabilize the optical cable on the inner wall of the optical cable fixing block 11. The optical cable in the optical cable fixing block 11 is squeezed by the two contact buffer plates 53, so that the contact within the contact surface of the optical cable is more fixed.At this time, in the stabilizing component 3, when the top cover 9 is running, it will drive the rotating shaft 8 to rotate along the inner wall of the shaft seat 7, and the rotating shaft 8 will drive the inner bevel gear plate 62 on the surface to run. The inner bevel gear plate 62 is connected through the meshing connection of the surface, and it will drive the steering bevel gear plate 63 to run. When the steering bevel gear plate 63 is running, it will drive the bidirectional threaded rod 70 to run. Through the threaded connection on the surface of the bidirectional threaded rod 70, it will drive the slider 71 to move up and down along the inner wall of the rotating shaft sleeve 61. The slider 71 will drive the slider sleeve 72 to slide along the outer wall of the rotating shaft sleeve 61 to perform external stabilization on the slider 71. When the slider 71 is running, it will drive the inclined plate 64 to run, and the inclined plate 64 will drive the card column When the plate 65 is running, each group of the column plates 65 stabilizes the external optical cable. At the same time, the optical cable will collide with the elastic column 66, and the elastic force of the elastic column 66 will stabilize the optical cable. At the same time, the elastic column 66 will stabilize the external part of the optical cable to avoid the damage of the optical cable caused by the deviation of the optical cable during installation. At the same time, when the top cover 9 is running, it will collide with the pressure column 67, and the pressure column 67 will slide along the surface of the inner elastic column 69. At the same time, it will drive the inner pressure arc plate 68 to run, and further stabilize the optical cable entering the surface of the optical cable fixing block 11, and better fix the optical cable in the device to avoid collision of the optical cable after installation.

[0051] The preferred embodiments of the present invention disclosed above are intended only to help illustrate the present invention. These preferred embodiments do not exhaustively describe all details, nor do they limit the present invention to the specific embodiments described. Obviously, many modifications and variations are possible based on the content of this specification. These embodiments are selected and described in detail in this specification to better explain the principles and practical applications of the present invention, thereby enabling those skilled in the art to better understand and utilize the present invention. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. An optical cable fixing assembly for an optical fiber connector, comprising a bottom shell (4), wherein the inner wall of the bottom shell (4) is fixedly connected to a fixed seat rod (5), an end surface of the fixed seat rod (5) away from the bottom shell (4) is fixedly connected to an inner shell (6), and a surface of the inner shell (6) away from the fixed seat rod (5) is fixedly connected to a shaft seat (7), characterized in that: Also includes: A driving component (1), the driving component (1) comprising a hook rod (21), an inner wall of the hook rod (21) being fixedly connected to a curved panel (22), and an inner wall of the curved panel (22) on a side away from the hook rod (21) being fixedly connected to an elastic pull cord (23); A fixed component (2), the fixed component (2) comprising a guide rack (41), a fixed arc plate (42) being fixedly connected to a surface of the guide rack (41), and an arc plate groove (43) being slidably connected to a surface of the fixed arc plate (42); A stabilizing component (3), the stabilizing component (3) comprising a rotating shaft housing (61), an inner bevel gear plate (62) being provided on the inner wall of the rotating shaft housing (61), a steering bevel gear plate (63) being meshedly connected to the surface of the inner bevel gear plate (62), The fixed component (2) includes a turning handle (44), a clamping column (45) is provided on the surface of the turning handle (44), a rope plate (46) is fixedly connected to the surface of the turning handle (44), the number of the guide racks (41) is set to two, and the two guide racks (41) are symmetrically distributed on the surface of the inner shell (6), the surface of the guide rack (41) away from the fixed arc plate (42) is meshed and connected with the surface of the tooth plate (30), the surface of the arc plate groove (43) away from the fixed arc plate (42) is fixedly connected to the surface of the inner shell (6), the surface of the turning handle (44) is rotatably connected to the inner wall of the bottom shell (4), the end face of the clamping column (45) away from the turning handle (44) is fixedly connected to the surface of the bottom shell (4), the number of the turning handle (4 ... The turning handle (44) is symmetrically distributed on the surface of the bottom shell (4), the inner wall of the rope plate (46) is fixedly connected with an axial pull rope (47), the end surface of the axial pull rope (47) away from the rope plate (46) is fixedly connected with an inner telescopic plate (48), the end surface of the inner telescopic plate (48) away from the axial pull rope (47) is fixedly connected with a positioning spring (49), the number of the axial pull ropes (47) is set to four, the four axial pull ropes (47) are divided into two groups, and the number of each group is set to two, the two groups of axial pull ropes (47) are symmetrically distributed on the surface of the rope plate (46), and each group of axial pull ropes (47) is symmetrically distributed on the surface of the inner telescopic plate (48), and the end surface of the positioning spring (49) away from the inner telescopic plate (48) is fixedly connected to the inner wall of the bottom shell (4).

2. The optical cable fixing assembly for an optical fiber connector according to claim 1, characterized in that: The inner wall of the shaft seat (7) is rotatably connected to a rotating shaft (8), the surface of the rotating shaft (8) close to the shaft seat (7) is fixedly connected to a top cover (9), the surface of the bottom shell (4) close to the shaft seat (7) is fixedly connected to an outer shell (10), the inner wall of the inner shell (6) is fixedly connected to an optical cable fixing block (11), the number of the fixed seat rods (5) is set to four, and the four fixed seat rods (5) are symmetrically distributed around the inner wall center of the bottom shell (4), and the number of the shaft seats (7) is set to two, and the two shaft seats (7) are symmetrically distributed around the surface of the inner shell (6).

3. The optical cable fixing assembly for an optical fiber connector according to claim 2, characterized in that: The driving component (1) includes a direction-changing rotating shaft (24), the surface of the direction-changing rotating shaft (24) is rotatably connected to a multi-axis base (25), the surface of the inner shell (6) close to the multi-axis base (25) is fixedly connected to a fixed rope seat (26), the number of the hook rods (21) is set to three, and the three hook rods (21) are equidistantly distributed along the surface of the arc panel (22), the surface of the hook rod (21) away from the arc panel (22) is fixedly connected to the surface of the top cover (9), the surface of the elastic pull rope (23) is fixedly connected to the direction-changing rotating shaft (2 4), the end surface of the elastic pull rope (23) away from the arc panel (22) is fixedly connected to the surface of the fixed rope seat (26), the number of the elastic pull rope (23) is provided to be two, and the two elastic pull ropes (23) are symmetrically distributed on the surface of the arc panel (22), the number of the multi-axis base (25) is provided to be two, and the two multi-axis bases (25) are symmetrically distributed on the surface of the change-direction rotating shaft (24), and the end surface of the multi-axis base (25) away from the change-direction rotating shaft (24) is fixedly connected to the surface of the inner shell (6).

4. The optical cable fixing assembly for an optical fiber connector according to claim 3, characterized in that: The surface of the arc panel (22) close to the elastic pull rope (23) is fixedly connected to a stretching arc rod (27), the end surface of the stretching arc rod (27) away from the arc panel (22) is fixedly connected to a connecting rack (28), the surface of the connecting rack (28) is slidably connected to a rack groove plate (29), the surface of the connecting rack (28) is meshedly connected to a tooth plate (30), the inner wall of the tooth plate (30) is fixedly connected to a tooth plate rotating shaft (31), the number of the stretching arc rods (27) is set to two, the two stretching arc rods (27) are symmetrically distributed on the surface of the arc panel (22), the surface of the stretching arc rod (27) is in contact with the surface of the change-direction rotating shaft (24), the surface of the rack groove plate (29) away from the connecting rack (28) is fixedly connected to the surface of the inner shell (6), and the surface of the tooth plate rotating shaft (31) is rotatably connected to the inner wall of the outer shell (10).

5. The optical cable fixing assembly for an optical fiber connector according to claim 4, characterized in that: The surface of the connecting rack (28) away from the tooth plate (30) is fixedly connected to a reset vertical plate (35), the surface of the shaft seat (7) close to the reset vertical plate (35) is fixedly connected to an auxiliary base (32), the surface of the auxiliary base (32) is rotatably connected to an auxiliary stretching plate (33), the end surface of the auxiliary stretching plate (33) away from the auxiliary base (32) is fixedly connected to a connecting hook plate (34), the end surface of the reset vertical plate (35) away from the auxiliary base (32) is fixedly connected to a reset spring (36), the surface of the reset vertical plate (35) is fixedly connected to the inner wall of the connecting hook plate (34), and the end surface of the reset spring (36) away from the reset vertical plate (35) is fixedly connected to the end surface of the rack groove plate (29).

6. The optical cable fixing assembly for an optical fiber connector according to claim 5, characterized in that: The inner wall of the optical cable fixing block (11) is provided with an elastic connecting column (50), the end face of the elastic connecting column (50) is fixedly connected to a rotating column (51), the end face of the rotating column (51) is fixedly connected to an output bevel gear plate (55), the surface of the output bevel gear plate (55) is meshedly connected to a transmission bevel gear plate (56), the inner wall of the transmission bevel gear plate (56) is threadedly connected to a threaded column (57), the surface of the transmission bevel gear plate (56) close to the threaded column (57) is rotatably connected to a column shaft sleeve (58), the surface of the threaded column (57) away from the column shaft sleeve (58) is fixedly connected to a transverse plate (52), the A contact buffer plate (53) is fixedly connected to the surface of the transverse plate (52) on the side close to the elastic connecting column (50), and a transverse plate sliding groove (54) is provided on the inner wall of the optical cable fixing block (11) on the side close to the transverse plate (52). The number of the elastic connecting columns (50) is set to two, and the two elastic connecting columns (50) are symmetrically distributed around the center of the inner wall of the optical cable fixing block (11). The surface of the rotating column (51) passes through the inner wall of the optical cable fixing block (11) and is rotatably connected to the inner wall of the optical cable fixing block (11). The end face of the column shaft sleeve (58) away from the transmission bevel tooth plate (56) is fixedly connected to the surface of the optical cable fixing block (11).

7. The optical cable fixing assembly for an optical fiber connector according to claim 6, characterized in that: The stabilizing component (3) includes an inclined plate (64), an end surface of the inclined plate (64) is fixedly connected to a column plate (65), an inner wall of the column plate (65) is fixedly connected to an elastic column (66), the number of the rotating shaft housing (61) is set to two, and the two rotating shaft housings (61) are symmetrically distributed on the surface of the rotating shaft (8), the number of the steering bevel gear plates (63) is set to two, and the two steering bevel gear plates (63) are symmetrically distributed on the surface of the inner bevel gear plate (62), the number of the inclined plates (64) is set to four, the four inclined plates (64) are divided into two groups, and the number of each group is set to two, the two groups of inclined plates (64) are symmetrically distributed on the surface of the rotating shaft (8), the number of the elastic columns (66) is set to three, and the three elastic columns (66) are distributed at equal angles on the inner wall of the column plate (65).

8. The optical cable fixing assembly for an optical fiber connector according to claim 7, characterized in that: The inner wall of the inner shell (6) is fixedly connected with an inner elastic column (69), and the surface of the inner elastic column (69) away from the inner shell (6) is slidably connected with a pressure column (67), and the surface of the pressure column (67) is fixedly connected with an inner pressure arc plate (68). The inner wall of the steering bevel plate (63) is fixedly connected with a bidirectional threaded rod (70), and the surface of the bidirectional threaded rod (70) is threadedly connected with a slider (71), and the surface of the slider (71) is fixedly connected with a slider sleeve plate (72). The number of the inner elastic columns (69) is set to four, and the four inner elastic columns (69) are divided into two groups, and the number of each group is set to two. The two groups of inner The elastic columns (69) are symmetrically distributed on the inner wall of the inner shell (6), and each group of the pressure columns (67) is symmetrically distributed on the surface of the inner pressure arc plate (68). The number of the sliders (71) is set to two, and the two sliders (71) are symmetrically distributed on the inner wall of the rotating shaft sleeve (61). The surface of the slider (71) is slidably connected to the inner wall of the rotating shaft sleeve (61). The surface of the slider sleeve (72) close to the bidirectional threaded rod (70) is slidably connected to the surface of the rotating shaft sleeve (61), and the end surface of the slider (71) away from the slider sleeve (72) is fixedly connected to the end surface of the inclined plate (64) away from the column plate (65).

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