Optical fiber composite overhead ground wire insulation connection device based on communication security

Abstract

The invention relates to the technical field of ground wire insulation connection, and discloses an optical fiber composite overhead ground wire insulation connection device based on communication security, which comprises a connector, and a first protective cover and a second protective cover which are mutually covered, and the first protective cover and the second protective cover are correspondingly provided with a first connection block and a second connection block. Screw holes are formed in the first connecting block and the second connecting block, the two sets of screw holes are communicated with each other, bolts are meshed in the screw holes, a flexible gasket is installed on the inner wall of the first connecting block and located at an opening in one end of each screw hole, and the connector is arranged in the first protective cover and the second protective cover; the screw holes are formed in the radial direction of the first protective cover and the second protective cover, so that when bolts fall into the screw holes, the connector is limited in the first protective cover and the second protective cover through deformation of the flexible gaskets, and the situation that the connector slides in the using process is avoided.

Description

Technical Field

[0001] The invention relates to the field of ground wire insulation connection, and more specifically, to an optical fiber composite overhead ground wire insulation connection device based on communication safety. Background Art

[0002] When two sets of existing wires are connected, a connector is needed. The insulation layer of one end of the wire is stripped off and then inserted into the connector, so that the electrical connection of the two sets of wires is achieved through the connector.

[0003] Some existing connectors are rectangular. In order to protect the connectors, most of them need to install a protective cover on the outside of the connector. Most of the existing protective covers are screwed together by upper and lower protective covers, and the connector is placed inside the protective cover. However, due to the lack of limiting the connector, the connector is easy to slide inside the protective cover, making it easy to be damaged during long-term use. Summary of the invention

[0004] The invention provides an optical fiber composite overhead ground wire insulation connection device based on communication safety, which solves the technical problem that the connector is prone to slip inside a protective cover in the related art.

[0005] The present invention provides an optical fiber composite overhead ground wire insulation connection device based on communication safety, comprising a connector and a first protective cover and a second protective cover covering each other, wherein a first connecting block and a second connecting block are correspondingly arranged on the first protective cover and the second protective cover, and screw holes are opened on the first connecting block and the second connecting block, and the two groups of screw holes are connected to each other, and bolts are engaged in the screw holes, and a flexible gasket is installed on the inner wall of the first connecting block, and the flexible gasket is located at one end opening of the screw hole, and the connector is arranged inside the first protective cover and the second protective cover.

[0006] Furthermore: one side of the flexible gasket is bonded to the inner wall of the first protective cover through an adhesive layer, and each flexible gasket is provided with two sets of adhesive layers, which are located at the upper and lower sides of the screw hole.

[0007] A production equipment for an optical fiber composite overhead ground wire insulation splicing device based on communication safety, comprising a first annular conveying mechanism and a second annular conveying mechanism, on which A clamp and B clamp are arranged respectively, A clamp and B clamp are used to clamp a first protective cover and a second protective cover respectively, a first loading mechanism, a drilling and milling mechanism, a patch mechanism and a first unloading mechanism are arranged in sequence along the conveying direction on the periphery of the first annular conveying mechanism, the first unloading mechanism comprises a conveying component and an air-drying component, the air-drying component is connected to the conveying component, the air-drying component is used to air-dry the adhesive layer on the flexible gasket, and a second loading mechanism and a second unloading mechanism are arranged in sequence along the conveying direction on the second annular conveying mechanism.

[0008] Furthermore: the first support plate and the second support plate are respectively installed on the first annular conveying mechanism and the second annular conveying mechanism, the A clamp is installed on the first support plate, the B clamp is installed on the second support plate, and the first linear drive component is installed on the second support plate. The first linear drive component is connected to the B clamp, and the first linear drive component is used to drive the B clamp to rise and fall vertically.

[0009] Further: the drilling and milling mechanism includes a first lifting assembly and a fixed plate, the fixed plate is connected to the first lifting assembly, the first lifting assembly is used to drive the fixed plate to lift vertically, the fixed plate is installed with a second linear drive assembly and a mounting frame, the second linear drive assembly is connected to the mounting frame, the second linear drive assembly is used to drive the mounting frame to move horizontally linearly, a drilling and milling assembly is installed on the mounting frame, the drilling and milling assembly includes a drilling and milling motor and a drilling and milling cutter, the fixed end of the drilling and milling motor is fixedly connected to the mounting frame, and the drive shaft at the output end is connected to the drilling and milling cutter.

[0010] Furthermore: A robot is installed on one side of the first loading mechanism and the first unloading mechanism, and the robot is used to install the first protective cover on the A fixture and remove it from the A fixture.

[0011] Further: the patch mechanism includes a patch box, a second lifting assembly and a connecting plate are installed in the patch box, the second lifting assembly is connected to the connecting plate, the second lifting assembly is used to drive the connecting plate to lift vertically, a limit plate is slidably installed in the connecting plate, a slide groove is opened inside the connecting plate, sliders on both sides of the limit plate are arranged in the slide groove and form a sliding guide with the slide groove, a patch motor and a patch wheel are installed on the limit plate, the output shaft of the patch motor is connected to the connecting shaft, the connecting shaft passes through the limit plate, and the patch wheel is connected to the bottom of the connecting shaft.

[0012] Furthermore, a plurality of flexible gaskets are wound on the patch wheel, and tearing sections are arranged between the plurality of flexible gaskets.

[0013] Further: a first screw drive assembly is installed on the first support plate, the first screw drive assembly is connected to the A clamp, the first screw drive assembly is used to drive the A clamp to move horizontally along the width direction of the first protective cover, a second screw drive assembly is installed on the connecting plate, the second screw drive assembly is connected to the limit plate, the second screw drive assembly is used to drive the limit plate to move along the groove direction of the slide groove, and the groove direction of the slide groove is consistent with the length direction of the second protective cover.

[0014] Furthermore: the air-drying component includes an air-drying rack and an air blower, both of which are installed on the first unloading mechanism. The air blower is connected to the air-drying rack through a pipeline. The air-drying rack is arranged in an arch shape, and an exhaust duct is installed on the top inner wall.

[0015] The beneficial effects of the present invention are:

[0016] During use of the protective cover of the present invention, the screw holes are opened along the radial direction of the first protective cover and the second protective cover, so that when the bolt falls into the screw hole, the connector is limited inside the first protective cover and the second protective cover by the deformation of the flexible gasket, thereby preventing the connector from sliding during use;

[0017] During use, the manufacturing device of the present invention, driven by the first annular conveying mechanism and the second annular conveying mechanism, can realize drilling and milling on both sides of the first protective cover and the second protective cover during assembly, as well as installation of the rubber patch, so that the screw holes on the first protective cover and the second protective cover can accurately correspond, avoiding the problem of difficulty in connecting the first protective cover and the second protective cover due to mismatch of the screw holes. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a structural schematic diagram of an optical fiber composite overhead ground wire insulation connection device based on communication safety of the present invention;

[0019] Figure 2 It is a top view of a production device for an optical fiber composite overhead ground wire insulation splicing device based on communication safety of the present invention;

[0020] Figure 3 It is a cross-sectional view of a drilling and milling mechanism of a production equipment of an optical fiber composite overhead ground wire insulation splicing device based on communication safety of the present invention;

[0021] Figure 4 It is a top view of a patch mechanism of a production equipment of an optical fiber composite overhead ground wire insulation splicing device based on communication safety of the present invention;

[0022] Figure 5 It is a schematic diagram of the first unloading mechanism of the production equipment of the optical fiber composite overhead ground wire insulation splicing device based on communication safety of the present invention;

[0023] Figure 6 The invention is a production device for an optical fiber composite overhead ground wire insulation splicing device based on communication safety. Figure 4 A magnified image of point A;

[0024] Figure 7 It is a schematic diagram of a flexible gasket of a production device of an optical fiber composite overhead ground wire insulation splicing device based on communication safety of the present invention.

[0025] In the figure: 11, first protective cover; 12, second protective cover; 13, connector; 14, first connecting block; 15, second connecting block; 16, screw hole; 17, bolt; 18, flexible gasket; 181, adhesive layer; 182, tearing section; 2, first annular conveying mechanism; 21, first support plate; 22, A clamp; 23, first screw transmission assembly; 3, second annular conveying mechanism; 31, second support plate; 32, B clamp; 33, first linear drive assembly; 4, first feeding mechanism; 5, second feeding mechanism; 6, drill Milling mechanism; 61. first lifting assembly; 62. fixing plate; 63. second linear drive assembly; 64. mounting frame; 65. drilling and milling assembly; 66. drilling and milling motor; 67. drilling and milling cutter; 7. patch mechanism; 71. patch box; 72. second lifting assembly; 73. connecting plate; 74. limiting plate; 75. patch motor; 76. connecting shaft; 77. patch wheel; 78. second screw transmission assembly; 8. first unloading mechanism; 81. air drying assembly; 82. air drying rack; 83. blower; 84. exhaust duct; 9. second unloading mechanism. DETAILED DESCRIPTION

[0026] The subject matter described herein will now be discussed with reference to example embodiments. It should be understood that the discussion of these embodiments is only to enable those skilled in the art to better understand and implement the subject matter described herein, and the functions and arrangements of the elements discussed may be changed without departing from the scope of protection of the contents of this specification. Each example may omit, replace or add various processes or components as needed. In addition, the features described relative to some examples may also be combined in other examples.

[0027] Embodiment 1

[0028] like Figure 1 and Figure 7 As shown, an optical fiber composite overhead ground wire insulation connection device based on communication safety includes a connector 13 and a first protective cover 11 and a second protective cover 12 that cover each other, and a first connecting block 14 and a second connecting block 15 are correspondingly provided on the first protective cover 11 and the second protective cover 12. Screw holes 16 are opened on the first connecting block 14 and the second connecting block 15, and the two groups of screw holes 16 are connected to each other. Bolts 17 are engaged in the screw holes 16. A flexible gasket 18 is installed on the inner wall of the first connecting block 14, and the flexible gasket 18 is located at one end of the opening of the screw hole 16. The connector 13 is arranged inside the first protective cover 11 and the second protective cover 12.

[0029] One side of the flexible gasket 18 is bonded to the inner wall of the first protective cover 11 through an adhesive layer 181 , and each flexible gasket 18 is provided with two sets of adhesive layers 181 , which are located at the upper and lower sides of the screw hole 16 .

[0030] During use of the insulating splicing device of the present invention, two groups of wires are connected to the connector 13, and then the first protective cover 11 and the second protective cover 12 are combined and sleeved on the outer wall of the connector 13, and the connector 13 is sleeved inside the first protective cover 11 and the second protective cover 12, and then the bolts 17 are screwed into the screw holes 16, and the bolts 17 pass through the first protective cover 11 and the second protective cover 12 one by one through the screw holes 16, and the two are connected to each other. When the bolts 17 extend from the screw holes 16 of the first protective cover 11, one end face of the bolts 17 abuts against the flexible gasket 18, and as the bolts 17 continue to extend, The middle part of the squeezed flexible gasket 18 bulges inward and contacts the outer wall of the connector 13. The connector 13 is restricted inside the first protective cover 11 and the second protective cover 12 by the bolt 17. The flexible gasket 18 can prevent the connector 13 from being damaged. The bolt 17 is a flat-head bolt 17, which can prevent the flexible gasket 18 from being broken. The flexible gasket 18 is adhered to the inner wall of the first protective cover 11 through the adhesive layer 181, so the flexible gasket 18 will not move inside the first protective cover 11, and the connector 13 will not slide inside the first protective cover 11 and the second protective cover 12.

[0031] Embodiment 2

[0032] like Figure 2-Figure 7 As shown, a production equipment for an optical fiber composite overhead ground wire insulation splicing device based on communication safety includes a first annular conveying mechanism 2 and a second annular conveying mechanism 3, on which A clamps 22 and B clamps 32 are arranged respectively, A clamps 22 and B clamps 32 are respectively used to clamp the first protective cover 11 and the second protective cover 12, a first loading mechanism 4, a drilling and milling mechanism 6, a patch mechanism 7 and a first unloading mechanism 8 are arranged in sequence along the conveying direction on the periphery of the first annular conveying mechanism 2, the first unloading mechanism 8 includes a conveying component and an air-drying component 81, the air-drying component 81 is connected to the conveying component, the air-drying component 81 is used to air-dry the adhesive layer 181 on the flexible gasket 18, and the second annular conveying mechanism 3 is arranged in sequence along the conveying direction with a second loading mechanism 5 and a second unloading mechanism 9.

[0033] The first support plate 21 and the second support plate 31 are respectively installed on the first annular conveying mechanism 2 and the second annular conveying mechanism 3, the A clamp 22 is installed on the first support plate 21, the B clamp 32 is installed on the second support plate 31, and the first linear drive component 33 is installed on the second support plate 31. The first linear drive component 33 is connected to the B clamp 32, and the first linear drive component 33 is used to drive the B clamp 32 to rise and fall vertically.

[0034] The drilling and milling mechanism 6 includes a first lifting assembly 61 and a fixed plate 62, the fixed plate 62 is connected to the first lifting assembly 61, the first lifting assembly 61 is used to drive the fixed plate 62 to lift vertically, the fixed plate 62 is installed with a second linear drive assembly 63 and a mounting frame 64, the second linear drive assembly 63 is connected to the mounting frame 64, the second linear drive assembly 63 is used to drive the mounting frame 64 to move horizontally, a drilling and milling assembly 65 is installed on the mounting frame 64, the drilling and milling assembly 65 includes a drilling and milling motor 66 and a drilling and milling cutter 67, the fixed end of the drilling and milling motor 66 is fixedly connected to the mounting frame 64, and the driving shaft at the output end is connected to the drilling and milling cutter 67.

[0035] A robot is installed on one side of the first loading mechanism 4 and the first unloading mechanism 8 , and the robot is used to install the first protective cover 11 on the A fixture 22 and remove it from the A fixture 22 .

[0036] The patch mechanism 7 includes a patch box 71, in which a second lifting component 72 and a connecting plate are installed. The second lifting component 72 is connected to the connecting plate 73. The second lifting component 72 is used to drive the connecting plate 73 to lift and lower vertically. A limit plate 74 is slidably installed in the connecting plate 73. A slide groove is provided inside the connecting plate 73. Slide blocks on both sides of the limit plate 74 are arranged in the slide groove and form a sliding guide with the slide groove. A patch motor 75 and a patch wheel 77 are installed on the limit plate 74. The output shaft of the patch motor 75 is connected to the connecting shaft 76. The connecting shaft 76 passes through the limit plate 74, and the patch wheel 77 is connected to the bottom of the connecting shaft 76.

[0037] A plurality of flexible gaskets 18 are wound on the patch wheel 77 , and tearing sections 182 are provided between the plurality of flexible gaskets 18 .

[0038] A first screw transmission assembly 23 is installed on the first support plate 21, and the first screw transmission assembly 23 is connected to the A clamp 22. The first screw transmission assembly 23 is used to drive the A clamp 22 to move horizontally along the width direction of the first protective cover 11. A second screw transmission assembly 78 is installed on the connecting plate 73, and the second screw transmission assembly 78 is connected to the limit plate 74. The second screw transmission assembly 78 is used to drive the limit plate 74 to move along the groove direction of the slide groove, and the groove direction of the slide groove is consistent with the length direction of the second protective cover 12.

[0039] The air-drying component 81 includes an air-drying rack 82 and a blower 83. The blower 83 and the air-drying rack 82 are both installed on the first unloading mechanism 8. The blower 83 is connected to the air-drying rack 82 through a pipeline. The air-drying rack 82 is arranged in an arch shape, and an exhaust duct 84 is installed on the top inner wall.

[0040] The production equipment of the present invention includes loading, assembling, drilling and milling, separation, patching, unloading and drying during use. The specific steps are as follows:

[0041] Loading: The first loading mechanism 4 transports the first protective cover 11 to the A fixture 22, and then the manipulator clamps and moves the first protective cover 11 to be processed into the A fixture 22, and clamps the first protective cover 11 through the A fixture 22. Then the first annular conveying mechanism 2 drives the A fixture 22 to move. At the same time, the second loading mechanism 5 transports the second protective cover 12 to the bottom of the B fixture 32, and the first linear drive component 33 on the second support plate 31 drives the B fixture 32 to descend vertically to clamp the second protective cover 12. After clamping, the first linear drive component 33 drives the B fixture 32 resets and rises, and the second circular conveying mechanism 3 drives the B clamp 32 and the second protective cover 12 thereon to move in a circular manner. It should be noted that the first circular conveying mechanism 2 and the second circular conveying mechanism 3 move at the same speed, and after the A clamp 22 and the B clamp 32 clamp the first protective cover 11 and the second protective cover 12, the opening of the first protective cover 11 faces upward, and the length direction of the first protective cover 11 is perpendicular to the conveyor belt surface of the first circular conveying mechanism 2, the opening of the B clamp 32 faces downward, and the length direction of the second protective cover 12 is perpendicular to the conveyor belt surface of the second circular conveying mechanism 3;

[0042] Assembly: When the A clamp 22 and the B clamp 32 move to a side adjacent to the first annular conveying mechanism 2 and the second annular conveying mechanism 3, the B clamp 32 is located directly above the A clamp 22, and then the first linear drive assembly 33 drives the B clamp 32 to descend again. Since the first annular conveying mechanism 2 and the second annular conveying mechanism 3 move at the same speed, the descent of the B clamp 32 drives the second protective cover 12 to cover the first protective cover 11, and the first protective cover 11 and the second protective cover 12 are assembled successfully by covering.

[0043] Drilling and milling: After the first protective cover 11 and the second protective cover 12 are assembled, the first annular conveying mechanism 2 and the second annular conveying mechanism 3 move the assembled first protective cover 11 and the second protective cover 12 to the inside of the drilling and milling mechanism 6, and then the first annular conveying mechanism 2 and the second annular conveying mechanism 3 are temporarily stopped, and the first lifting assembly 61 drives the fixed plate 62 and the drilling and milling assembly 65 thereon to rise, and then the second linear drive assembly 63 drives the drilling and milling assembly 65 to move horizontally and gradually approach the assembled first protective cover 11 and the second protective cover 12, and the drilling and milling motor 66 drives the output shaft to move the drilling and milling motor 6 ...5 to move the drilling and milling motor 65 to move the drilling and milling motor 65 to move the drilling and milling motor 65 to move the drilling and milling motor 66 to move the drilling and milling motor 65 to move the drilling and milling motor 65 to move the drilling and milling motor 65 to move the drilling and milling motor 65 to move the drilling and milling motor 66 to move the drilling and milling motor 65 to move the drilling and milling motor 65 to move the drilling and milling motor 65 to move the drilling and milling motor 65 to move the drilling and milling motor 65 to move the drilling and milling motor 65 to move the drilling and milling motor 65 The drilling and milling cutter 67 is rotated. After the drilling and milling cutter 67 gradually extends into the first protective cover 11 and the second protective cover 12, the screw holes 16 are drilled and milled on the first connecting block 14 and the second connecting block 15 by the rotation of the drilling and milling cutter 67. Since the first protective cover 11 and the second protective cover 12 have been assembled, the drilling and milling of the first connecting block 14 and the second connecting block 15 at this time can make the positions of the screw holes 16 correspond more accurately, thereby avoiding the screw holes 16 on the first connecting block 14 and the second connecting block 15 from being misaligned and affecting the installation of the first protective cover 11 and the second protective cover 12;

[0044] After the screw hole 16 is drilled and milled, the second linear drive assembly 63 first causes the drilling and milling assembly 65 to horizontally reset, so that the drilling and milling cutter 67 extends out of the first protective cover 11 and the second protective cover 12, and then the first lifting assembly 61 drives the fixing plate 62 to descend, and drives the drilling and milling assembly 65 and the second linear drive assembly 63 to descend and reset;

[0045] Separation: After drilling and milling, the first annular conveying mechanism 2 and the second annular conveying mechanism 3 drive the A clamp 22 and the B clamp 32 to continue to move, and during the movement, the first linear drive assembly 33 drives the B clamp 32 to rise and reset, and makes the second protective cover 12 rise and separate from the first protective cover 11, the first annular conveying mechanism 2 drives the A clamp 22 and the first protective cover 11 thereon to continue to move, and continues to move, and the second annular conveying mechanism 3 drives the B clamp 32 and the second protective cover 12 thereon to continue to move;

[0046] Patch: Under the continuous drive of the first circular conveying mechanism 2, the A clamp 22 enters the interior of the patch box 71. At this time, the first protective cover 11 is located directly below the patch wheel 77. The first circular conveying mechanism 2 is temporarily stopped, and the second lifting assembly 72 drives the connecting plate 73 to descend vertically, and drives the patch wheel 77 to descend, so that the patch wheel 77 extends into the interior of the first protective cover 11. The axis of the patch wheel 77 is perpendicular to the length direction of the first protective cover 11. Then the first screw transmission assembly 23 drives the A clamp 22 to move horizontally on the first support plate 21. , and drives the first protective cover 11 to move synchronously, so that the inner wall of one side of the first protective cover 11 is attached to the flexible gasket 18 of the patch wheel 77, and the adhesive layer 181 on the flexible gasket 18 contacts the inner wall of one side of the first protective cover 11 and is bonded inside the first protective cover 11. Then the patch motor 75 drives the patch wheel 77 to rotate through the connecting shaft 76, and at the same time, the second screw transmission assembly 78 drives the limit plate 74 to move horizontally on the connecting plate 73, and the horizontal movement direction is consistent with the length direction of the first protective cover 11. The rotation of 77 and the horizontal movement along the length direction of the first protective cover 11 cause the flexible gasket 18 to unfold and stick to the inner wall of the first protective cover 11. Since the multiple groups of flexible gaskets 18 are connected to each other and the connection is provided with a tearing section 182, after the flexible gasket 18 is pasted, the first screw transmission assembly 23 and the second screw transmission assembly 78 respectively drive the A clamp 22 and the patch wheel 77 to reset, and the flexible gasket 18 pasted in the first protective cover 11 and the flexible gasket 18 on the patch wheel 77 are pulled out from the tearing section 182 through the reset stretching. Disconnect and separate, and after separation, the patch motor 75 drives the patch wheel 77 to rotate to adjust the beginning of the flexible pad 18 thereon so that it is aligned with the other side of the first protective cover 11, and repeat the above process to attach the flexible pad 18 to the inside of the other side of the first protective cover 11. After the flexible pads 18 are attached to the inner walls of both sides of the first protective cover 11, the second lifting assembly 72 drives the patch wheel 77 to reset and extend from the first protective cover 11, and the first annular conveying mechanism 2 drives the A clamp 22 to extend from the patch box 71;

[0047] Unloading: driven by the first circular conveying mechanism 2, the A clamp 22 extends from the patch box 71 and moves to the first unloading mechanism 8. At this time, the A clamp 22 releases the clamping force on the first protective cover 11, and another group of manipulators takes the first protective cover 11 out of the A clamp 22 and places it on the first unloading mechanism 8 with the opening facing upward, and the first protective cover 11 is sent out through the first unloading mechanism 8; at the same time, driven by the second circular conveying mechanism 3, the B clamp 32 moves to the top of the second unloading mechanism 9 after being separated from the A clamp 22. At this time, the B clamp 32 releases the clamping force on the second protective cover 12. After the second protective cover 12 loses its clamping force, it falls onto the second unloading mechanism 9 under the influence of gravity, and the second protective cover 12 is sent out through the second unloading mechanism 9;

[0048] Drying: During the process of sending out the first protective cover 11, the first unloading mechanism 8 drives the first protective cover 11 into the air-drying rack 82. In the air-drying rack 82, the blower 83 sucks air into the interior and discharges it from the exhaust pipe 84. The discharged fast airflow blows toward the interior of the first protective cover 11, thereby accelerating the air flow speed in the first protective cover 11, so that the adhesive layer 181 on the flexible gasket 18 can be quickly solidified on the inner wall of the first protective cover 11, thereby preventing the flexible gasket 18 from falling off during subsequent transportation.

[0049] It should be noted that: both the A clamp 22 and the B clamp 32 are electric clamps, which are prior art and will not be described in detail here; the first loading mechanism 4, the second loading mechanism 5, the first unloading mechanism 8 and the second unloading mechanism 9 are conveyor belts, which are prior art and will not be described in detail here; the first annular conveying mechanism 2 and the second annular conveying mechanism 3 are annular conveyor belts, which are prior art and will not be described in detail here; the first lifting assembly 61 and the second lifting assembly 72 can be linear drive mechanisms such as cylinders and electric push rods, which are prior art and will not be described in detail here.

[0050] The above describes an embodiment of the present embodiment, but the present embodiment is not limited to the above-mentioned specific implementation methods. The above-mentioned specific implementation methods are merely illustrative and not restrictive. Under the guidance of the present embodiment, ordinary technicians in this field can also make many forms, all of which are within the protection of the present embodiment.

Claims

1. An optical fiber composite overhead ground wire insulation splicing device based on communication safety, characterized in that: The invention comprises a connector (13) and a first protective cover (11) and a second protective cover (12) which cover each other. The first protective cover (11) and the second protective cover (12) are provided with a first connecting block (14) and a second connecting block (15) respectively. The first connecting block (14) and the second connecting block (15) are provided with screw holes (16) on the tops of the two sets of screw holes (16). The two sets of screw holes (16) are connected to each other. Bolts (17) are meshed in the screw holes (16). A flexible gasket (18) is installed on the inner wall of the first connecting block (14). The flexible gasket (18) is located at one end opening of the screw hole (16). The connector (13) is arranged inside the first protective cover (11) and the second protective cover (12).

2. The optical fiber composite overhead ground wire insulation splicing device based on communication safety according to claim 1 is characterized in that: One side of the flexible gasket (18) is bonded to the inner wall of the first protective cover (11) via an adhesive layer (181), and each flexible gasket (18) is provided with two groups of adhesive layers (181) located on the upper and lower sides of the screw hole (16).

3. A production device for an optical fiber composite overhead ground wire insulation splicing device based on communication safety, comprising a first annular conveying mechanism (2) and a second annular conveying mechanism (3), wherein an A clamp (22) and a B clamp (32) are arranged on the first annular conveying mechanism (2) and the second annular conveying mechanism (3), respectively, wherein the A clamp (22) and the clamp are used to clamp a first protective cover (11) and a second protective cover (12), respectively; a first loading mechanism (4), a drilling and milling mechanism (6), a patch mechanism (7) and a first unloading mechanism (8) are arranged in sequence along the conveying direction on the periphery of the first annular conveying mechanism (2), wherein the first unloading mechanism (8) comprises a conveying component and an air drying component (81), wherein the air drying component (81) is connected to the conveying component, and the air drying component (81) is used to air dry an adhesive layer (181) on a flexible gasket (18); and a second loading mechanism (5) and a second unloading mechanism (9) are arranged in sequence along the conveying direction on the second annular conveying mechanism (3).

4. The production equipment of the optical fiber composite overhead ground wire insulation splicing device based on communication safety according to claim 3 is characterized in that: A first support plate (21) and a second support plate (31) are respectively mounted on the first annular conveying mechanism (2) and the second annular conveying mechanism (3); the A clamp (22) is mounted on the first support plate (21); the B clamp (32) is mounted on the second support plate (31); a first linear drive assembly (33) is mounted on the second support plate (31); the first linear drive assembly (33) is connected to the B clamp (32); and the first linear drive assembly (33) is used to drive the B clamp (32) to move vertically upward and downward.

5. The production equipment of the optical fiber composite overhead ground wire insulation splicing device based on communication safety according to claim 4 is characterized in that: The drilling and milling mechanism (6) comprises a first lifting assembly (61) and a fixed plate (62), wherein the fixed plate (62) is connected to the first lifting assembly (61), and the first lifting assembly (61) is used to drive the fixed plate (62) to move vertically. A second linear drive assembly (63) and a mounting frame (64) are mounted on the fixed plate (62), and the second linear drive assembly (63) is connected to the mounting frame (64). The second linear drive assembly (63) is used to drive the mounting frame (64) to move horizontally and linearly. A drilling and milling assembly (65) is mounted on the mounting frame (64), and the drilling and milling assembly (65) comprises a drilling and milling motor (66) and a drilling and milling cutter (67). The fixed end of the drilling and milling motor (66) is fixedly connected to the mounting frame (64), and the drive shaft at the output end is connected to the drilling and milling cutter (67).

6. The production equipment of the optical fiber composite overhead ground wire insulation splicing device based on communication safety according to claim 5 is characterized in that: A manipulator is installed on one side of the first loading mechanism (4) and the first unloading mechanism (8), and the manipulator is used to install the first protective cover (11) on the A clamp (22) and remove it from the A clamp (22).

7. The production equipment of the optical fiber composite overhead ground wire insulation splicing device based on communication safety according to claim 6 is characterized in that: The patch mechanism (7) comprises a patch box (71), a second lifting assembly (72) and a connecting plate (73) are installed in the patch box (71), the second lifting assembly (72) is connected to the connecting plate (73), the second lifting assembly (72) is used to drive the connecting plate (73) to vertically lift, a limit plate (74) is slidably installed in the connecting plate (73), a slide groove is provided inside the connecting plate (73), sliders on both sides of the limit plate (74) are arranged in the slide groove and form a sliding guide with the slide groove, a patch motor (75) and a patch wheel (77) are installed on the limit plate (74), the output shaft of the patch motor (75) is connected to the connecting shaft (76), the connecting shaft (76) passes through the limit plate (74), and the patch wheel (77) is connected to the bottom of the connecting shaft (76).

8. The production equipment of the optical fiber composite overhead ground wire insulation splicing device based on communication safety according to claim 7 is characterized in that: A plurality of flexible gaskets (18) are wound on the patch wheel (77), and tearing sections (182) are provided between the plurality of flexible gaskets (18).

9. The production equipment of the optical fiber composite overhead ground wire insulation splicing device based on communication safety according to claim 8 is characterized in that: A first screw transmission assembly (23) is mounted on the first support plate (21), the first screw transmission assembly (23) is connected to the A clamp (22), and the first screw transmission assembly (23) is used to drive the A clamp (22) to move horizontally along the width direction of the first protective cover (11). A second screw transmission assembly (78) is mounted on the connecting plate (73), the second screw transmission assembly (78) is connected to the limit plate (74), and the second screw transmission assembly (78) is used to drive the limit plate (74) to move along the groove direction of the slide groove, and the groove direction of the slide groove is consistent with the length direction of the second protective cover (12).

10. The production equipment of the optical fiber composite overhead ground wire insulation splicing device based on communication safety according to claim 9, characterized in that: The air drying assembly (81) comprises an air drying rack (82) and an air blower (83). The air blower (83) and the air drying rack (82) are both mounted on the first unloading mechanism (8). The air blower (83) is connected to the air drying rack (82) via a pipeline. The air drying rack (82) is arranged in an arch shape, and an exhaust pipe (84) is mounted on the inner wall of the top.

Images