Pressure-resistant junction box for sealing underwater ship communication cable

Abstract

The invention relates to the technical field of wiring equipment, in particular to a pressure-resistant junction box for underwater ship communication cable sealing, which comprises a junction box main body and a plug wire main body, and the plug wire main body is plugged at the end part of the junction box main body. Under the action of magnetic force among a plurality of magnets N-2, a plurality of magnets S-2, a plurality of magnets S-1 and a plurality of magnets N-1, a rotating column is driven to rotate by a certain angle, so that the magnets S-1 rotate to be close to one side of the magnets N-2, the magnets N-1 rotate to one side of the magnets S-2, at the moment, under the action of magnetic attraction force, the rotating column does not continue to rotate, and the rotating column is driven to rotate by a certain angle. The rotating column rotates to drive the settling block and the first electrodes to rotate together, the first magnets S rotate to be close to one side of the second magnets N, and after the first magnets N rotate to one side of the second magnets S, one ends of the first electrodes just coincide with the ends of the second electrodes in position, so that in the wiring process of the junction box, the first magnets S rotate to be close to one side of the second magnets N, and the second magnets S rotate to be close to one side of the second magnets S; and the angle of the plug does not need to be adjusted deliberately, so that the wiring convenience is greatly improved.

Description

Technical Field

[0001] This invention relates to the field of wiring equipment technology, specifically to a pressure-resistant junction box for sealing underwater ship communication cables. Background Technology

[0002] Underwater cables, also known as underwater communication cables, are conductors wrapped in insulating materials and laid underwater to establish telecommunications transmission. Underwater cables are a vital infrastructure supporting global data exchange, carrying approximately 99% of the world's intercontinental communication traffic. They are the most important information carriers in modern international communication. Junction boxes play a crucial role in cable signal transmission systems. They are mainly used to protect wire connection points, prevent wires from being directly exposed to the outside, reduce the impact of external factors on wire connections, and thus reduce safety hazards such as short circuits and leakage.

[0003] According to a Chinese patent application with publication number 202411294519.5, a marine cable junction box resistant to seawater corrosion is disclosed, which enables the metal contacts on connector I and connector II to be connected in an environment isolated from seawater, so that the metal contacts are never in contact with seawater, thereby preventing seawater from corroding the metal contacts and protecting them. However, the wiring steps of the above-mentioned cable junction box are cumbersome and inconvenient to use. Furthermore, when wiring the above-mentioned junction box, it is necessary to adjust the angle of the guide rod to correspond one-to-one with the hole position, which is very restrictive when operating in some complex environments. Therefore, we propose a pressure-resistant junction box for sealing underwater ship communication cables to solve the above-mentioned technical problems. Summary of the Invention

[0004] This invention provides the following technical solution: a pressure-resistant junction box for sealing underwater ship communication cables, comprising:

[0005] A junction box body and a plug-in body, wherein the plug-in body is inserted into the end of the junction box body;

[0006] The junction box body includes:

[0007] The box has slots at both ends;

[0008] The positioning shaft is fixedly installed on the inner wall of the box body on the side away from the main body of the plug-in cable;

[0009] The rotating column is rotatably mounted on the outer wall of the positioning shaft.

[0010] The first type of mounting slot is located diagonally opposite to the center of the rotating post, on the outer wall of the rotating post near the main body of the insertion wire, and there are multiple slots in total.

[0011] Magnet S-1 and magnet N-1 are fixedly installed inside the mounting slot 1, and magnet S-1 and magnet N-1 are diagonally distributed about the center of the rotating column;

[0012] The plug-in body comprises:

[0013] The end plug is inserted into the plug-in body;

[0014] The second installation groove is arranged on the inner wall of the end plug near the one end of the wire box body, and a plurality of second installation grooves are arranged at the opposite corners of the center of the end plug.

[0015] The second magnet N and the second magnet S are respectively fixedly installed in the second installation groove, and the second magnet N and the second magnet S are arranged at the opposite corners of the center of the end plug.

[0016] As a preferred scheme of the present application, the wire box body further comprises:

[0017] The sink groove is arranged on the one end of the rotating column near the plug-in body;

[0018] The sink block is slidably arranged in the sink groove;

[0019] The first electrode is fixedly installed on the side surface of the sink block near the plug-in body, a plurality of first electrodes are arranged at equal angles on the surface of the sink block, and the specifications and positions of the first electrodes correspond one by one to the specifications and positions of the second electrodes.

[0020] The plug-in body further comprises:

[0021] The second electrode is fixedly installed on the inner wall of the end plug near the wire box body, a plurality of second electrodes are arranged at equal angles on the inner wall of the end plug, and the specifications and positions of the second electrodes correspond one by one to the specifications and positions of the first electrodes.

[0022] As a preferred scheme of the present application, the wire box body further comprises:

[0023] The sliding hole is arranged at equal angles on the side surface of the sink groove away from the sink block;

[0024] The sliding rod is fixedly installed at equal angles on the side surface of the sink block away from the first electrode, and is slidably connected with the inner wall of the sliding hole;

[0025] The wire hole one is arranged at equal angles on the side surface of the rotating column away from the sink groove, and the positions of the wire hole one correspond one by one to the sliding hole;

[0026] The hollow bolt is threadedly connected in the wire hole one;

[0027] The jacking rod is fixedly installed at one end of the torsion ring away from the sink block, and movably penetrates the inside of the hollow bolt.

[0028] As a preferred scheme of the present application, the wire box body further comprises:

[0029] The brake disc is fixedly installed at one end of the plurality of jacking rods away from the sliding rod;

[0030] The positioning groove is arranged at equal angles on the side surface of the brake disc away from the jacking rod;

[0031] The brake shoe is fixedly installed inside the positioning groove.

[0032] As a preferred scheme of the present application, the outer periphery of the ejector rod is sleeved with a spring, which is fixedly installed between the sliding rod and the wire hole.

[0033] As a preferred scheme of the present application, the wire inserting body further comprises:

[0034] The locking sleeve is rotatably installed on the outer wall of the end plug;

[0035] The wire teeth are formed on the outer wall of the locking sleeve;

[0036] The wire box body further comprises:

[0037] The second wire hole is formed on the inner wall of the socket close to the wire inserting body, and the second wire hole is threadedly connected with the wire teeth.

[0038] As a preferred scheme of the present application, the wire inserting body further comprises:

[0039] The ratchet teeth are formed on the outer wall of the end plug;

[0040] The rectangular grooves are formed on the outer wall of the locking sleeve, and the number of the rectangular grooves is two, and the two rectangular grooves are diagonally distributed about the center of the locking sleeve;

[0041] The torsion ring is rotatably installed on the outer wall of the locking sleeve and located at the periphery of the two rectangular grooves;

[0042] The ring groove is formed on the inner wall of the torsion ring and located at the periphery of the two rectangular grooves;

[0043] The L-shaped torsion blocks are fixedly installed on the inner wall of the ring groove, and the number of the L-shaped torsion blocks is two, and the two L-shaped torsion blocks are respectively located inside the two rectangular grooves.

[0044] As a preferred scheme of the present application, the L-shaped torsion block is straightly bent, and the rectangular groove is integrally formed with a clamping block on the inner wall close to the bent end of the L-shaped torsion block, the end of the clamping block is matched with the ratchet teeth, and the clamping block is engaged with the ratchet teeth.

[0045] As a preferred scheme of the present application, the second wire hole is fixedly provided with a sealing ring inside, and the sealing ring is used for sealing and waterproofing between the wire box body and the wire inserting body.

[0046] As a preferred scheme of the present application, the outer wall of the rotating column is formed with a placing groove close to the wire inserting body, and the placing groove is fixedly provided with a rubber sealing ring inside.

[0047] Compared with the prior art, the present application has the following beneficial effects:

[0048] 1. In the application, through the magnetic force between the plurality of magnet N two, the plurality of magnet S two and the plurality of magnet S one and the plurality of magnet N one, the rotating column is driven to rotate a certain angle, the plurality of magnet S one is rotated to the side close to the plurality of magnet N two, and the plurality of magnet N one is rotated to the side of the plurality of magnet S two, at this time, under the action of magnetic attraction, the rotating column will not continue to rotate, and the rotating column also drives the sediment block and the plurality of electrode one to rotate together, the plurality of magnet S one is rotated to the side close to the plurality of magnet N two, and the plurality of magnet N one is rotated to the side of the plurality of magnet S two, and the end of the plurality of electrode one is just coincident with the position of the end of the plurality of electrode two, so that the terminal box does not need to adjust the plug angle intentionally during the wiring process, greatly improving the convenience of wiring.

[0049] 2. In the application, through the plurality of electrode one end coincident with the position of the plurality of electrode two end, then, continue to insert the end plug into the socket, until the tapered protrusion of the electrode one end is inserted into the tapered groove of the electrode two end, with the continuous insertion of the end plug, the electrode one and the sediment block are pushed to slide into the sediment groove, and the four sliding rods, the four jacks, the brake disc and the plurality of brake pieces slide together, at the same time, the spring is compressed to store energy, when the end plug is inserted in place, the surface of the plurality of brake pieces just touches the inner wall of the socket, so that under the action of static friction between the surface of the brake piece and the inner wall of the socket, the rotating column as a whole will not easily rotate, ensuring the stability of the cable connection.

[0050] 3. In the application, by rotating the torsion ring clockwise, the torsion ring drives the two L-shaped torsion blocks to rotate together, during which, the side surface of the L-shaped torsion block is in contact with the inner wall of the side of the rectangular groove away from the engaging block, so that the locking sleeve is driven to rotate together, the rotation of the locking sleeve drives the silk teeth to rotate, so that the silk teeth are fixed in the socket by the thread force of the silk hole two, during which, the engaging block rotates together with the locking sleeve, and the locking sleeve will not rotate counterclockwise due to the engagement of the engaging block end and the ratchet, thereby ensuring the stability of the cable communication signal transmission.

[0051] 4. In the application, by rotating the torsion ring counterclockwise, the L-shaped torsion block is driven to rotate towards the engaging block by the torsion ring, so that the end of the bent end of the L-shaped torsion block is in contact with the surface of the engaging block, and the engaging block is pushed away from the ratchet under the action of the wedge force, and the engaging block is elastically deformed, so that the engaging block is disengaged from the ratchet, then the torque transmitted by the L-shaped torsion block to the engaging block is transmitted to the locking sleeve through the engaging block, and the silk teeth are rotated counterclockwise along the silk hole two, so that the plug body is withdrawn from the socket, and the plug body is convenient to assemble and disassemble, and is suitable for use in complex environment. BRIEF DESCRIPTION OF DRAWINGS

[0052] Figure 1 It is a structural schematic diagram of the application.

[0053] Figure 2 Figure 1 is a schematic diagram of the unfolded structure of the rotating column and the box body in the present application;

[0054] Figure 3 Figure 2 is a schematic diagram of the detailed structure of the rotating column in the present application;

[0055] Figure 4 Figure 3 is a schematic diagram of the side cross-sectional structure of the rotating column in the present application;

[0056] Figure 5 Figure 4 is a schematic diagram of the structure of the sedimentation block in the present application;

[0057] Figure 6 Figure 5 is a schematic diagram of the end structure of the end plug in the present application;

[0058] Figure 7 Figure 6 is a schematic diagram of the end cross-sectional structure of the wire insertion main body in the present application;

[0059] Figure 8 Figure 7 is a schematic diagram of the enlarged structure of part A in the present application. Figure 7

[0060] In the figure: 100, wire box main body; 101, box body; 102, socket; 103, positioning shaft; 104, rotating column; 1004, setting groove; 105, setting slot one; 106, magnet S one; 107, magnet N one; 108, sedimentation groove; 109, sedimentation block; 1010, electrode one; 1011, sliding hole; 1012, sliding rod; 1013, wire hole one; 1014, hollow bolt; 1015, jacking rod; 1016, brake disc; 1017, positioning slot; 1018, brake pad; 1019, wire hole two; 1020, spring; 200, wire insertion main body; 201, end plug; 202, setting slot two; 203, magnet N two; 204, magnet S two; 205, electrode two; 206, locking rotating sleeve; 207, wire tooth; 208, ratchet; 2010, rectangular slot; 2011, engagement block; 2012, torsion ring; 2013, ring groove; 2014, L-shaped torsion block; 300, sealing ring. DETAILED DESCRIPTION

[0061] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0062] Please refer to Figures 1-8 The technical solutions provided by the present application specifically include the following embodiments:

[0063] ​The utility model provides a kind of pressure joint box for underwater ship communication cable sealing, including line box body 100 and plug line body 200, plug line body 200 is inserted in line box body 100 end, line box body 100 includes box body 101, socket 102, positioning shaft 103, rotating column 104, setting groove one 105, magnet S one 106, magnet N one 107, sink groove 108, sink block 109 and electrode one 1010, box body 101 both ends are provided with socket 102, positioning shaft 103 is fixedly installed in the inner wall middle part of box body 101 side away from plug line body 200, rotating column 104 is rotatably installed on the outer wall of positioning shaft 103, setting groove one 105 is about the diagonal distribution of rotating column 104 center and is provided on the outer wall of rotating column 104 one end close to plug line body 200, multiple, magnet S one 106 and magnet N one 107 are respectively fixedly installed in setting groove one 105, and magnet S one 106 and magnet N one 107 are about the diagonal distribution of rotating column 104 center, sink groove 108 is provided in the one end of rotating column 104 close to plug line body 200, sink block 109 is slidably arranged in sink groove 108, electrode one 1010 is fixedly installed in the side surface of sink block 109 close to plug line body 200, multiple, and along the equiangular distribution of sink block 109 surface, the one end of rotating column 104 outer wall close to plug line body 200 is provided with setting ditch 1004, rubber sealing ring is fixedly arranged in setting ditch 1004 inside.

[0064] Plug line body 200 includes end plug 201, setting groove two 202, magnet N two 203, magnet S two 204 and electrode two 205, end plug 201 is inserted in socket 102 inside, setting groove two 202 is about the diagonal distribution of end plug 201 center and is provided on the inner wall of end plug 201 one end close to line box body 100, multiple, magnet N two 203 and magnet S two 204 are respectively fixedly installed in setting groove two 202, and magnet N two 203 and magnet S two 204 are about the diagonal distribution of end plug 201 center, electrode two 205 is fixedly installed on the inner wall of end plug 201 side close to line box body 100, multiple, and along the equiangular distribution of end plug 201 inner wall, the specification and position of electrode two 205 and the specification and position of electrode one 1010 one-to-one correspondence.

[0065] Specifically, the end plug 201 is aligned at the end of the socket 102, and the end plug 201 is slowly inserted into the interior of the socket 102, during which the end of the rotating column 104 slowly enters the inner cavity of the end of the end plug 201, and further under the magnetic force between the plurality of magnets N two 203, the plurality of magnets S two 204, and the plurality of magnets S one 106 and the plurality of magnets N one 107, the rotating column 104 is driven to rotate by a certain angle, the plurality of magnets S one 106 is rotated to one side close to the plurality of magnets N two 203, and the plurality of magnets N one 107 is rotated to one side of the plurality of magnets S two 204, at this time under the magnetic attraction, the rotating column 104 will not continue to rotate, and the rotating column 104 rotates to drive the sedimentation block 109 and the plurality of electrodes one 1010 to rotate together, it should be noted that after the plurality of magnets S one 106 is rotated to one side close to the plurality of magnets N two 203, and the plurality of magnets N one 107 is rotated to one side of the plurality of magnets S two 204, the end of the plurality of electrodes one 1010 coincides with the end of the plurality of electrodes two 205, so that the wiring box does not need to be deliberately adjusted for the angle of the plug during wiring, greatly improving the convenience of wiring.

[0066] Further, with reference to the specific description of Figure 4 、 Figure 5 ,

[0067] The wiring box body 100 further comprises a sliding hole 1011, a sliding rod 1012, a first screw hole 1013, a hollow bolt 1014, a jacking rod 1015, a brake disc 1016, a positioning groove 1017, and a brake piece 1018. The sliding hole 1011 is evenly distributed and arranged on the side surface of the sedimentation groove 108 away from the sedimentation block 109. The sliding rod 1012 is evenly distributed and fixedly installed on the side surface of the sedimentation block 109 away from the electrode one 1010, and is in sliding connection with the inner wall of the sliding hole 1011. The first screw hole 1013 is evenly distributed and arranged on the side surface of the rotating column 104 away from the sedimentation groove 108, and the position corresponds to the sliding hole 1011 one by one. The hollow bolt 1014 is threadedly screwed in the first screw hole 1013. The jacking rod 1015 is fixedly installed at one end of the torsion ring 2012 away from the sedimentation block 109, and movably penetrates the interior of the hollow bolt 1014. The brake disc 1016 is fixedly installed at one end of the plurality of jacking rods 1015 away from the sliding rod 1012. The positioning groove 1017 is evenly distributed and arranged on the side surface of the brake disc 1016 away from the jacking rod 1015. The brake piece 1018 is fixedly installed in the positioning groove 1017. The jacking rod 1015 is surrounded by a spring 1020, and the spring 1020 is fixedly installed between the sliding rod 1012 and the first screw hole 1013.

[0068] Specifically, the end of the plurality of electrodes one 1010 coincides with the end of the plurality of electrodes two 205, then the end plug 201 is continuously inserted into the socket 102 until the tapered protrusion of the electrode one 1010 is inserted into the tapered groove of the electrode two 205, and then the electrode one 1010 and the sinker 109 are pushed to slide into the sink groove 108, and the four slide rods 1012, the four jacks 1015, the brake disc 1016 and the plurality of brake pads 1018 slide together, at the same time, the spring 1020 is compressed and stored, when the end plug 201 is inserted into place, the surface of the brake pad 1018 just touches the inner wall of the socket 102, so that the static friction between the surface of the brake pad 1018 and the inner wall of the socket 102 prevents the rotating column 104 from rotating easily, ensuring the stability of the cable connection.

[0069] Further, with reference to Figure 2 、 Figure 8 ,

[0070] The wire insertion body 200 further comprises a locking sleeve 206, a wire tooth 207, a ratchet 208, a rectangular groove 2010, a bite block 2011, a torsion ring 2012, a ring groove 2013 and an L-shaped torsion block 2014. The locking sleeve 206 is rotatably installed on the outer wall of the end plug 201. The wire tooth 207 is formed on the outer wall of the locking sleeve 206. The ratchet 208 is formed on the outer wall of the end plug 201. The rectangular groove 2010 is formed through the outer wall of the locking sleeve 206, and there are two of them. The two rectangular grooves 2010 are diagonally distributed about the center of the locking sleeve 206. The torsion ring 2012 is rotatably installed on the outer wall of the locking sleeve 206 and located outside the two rectangular grooves 2010. The ring groove 2013 is formed on the inner wall of the torsion ring 2012 and located outside the two rectangular grooves 2010. The L-shaped torsion block 2014 is fixedly installed on the inner wall of the ring groove 2013, and there are two of them. The two L-shaped torsion blocks 2014 are respectively located inside the two rectangular grooves 2010. The L-shaped torsion block 2014 is straightly bent. The bite block 2011 is integrally formed on the inner wall of the side of the rectangular groove 2010 close to the bent end of the L-shaped torsion block 2014. The end of the bite block 2011 is matched with the ratchet 208, and the bite block 2011 engages with the ratchet 208.

[0071] The wire box body 100 further comprises a wire hole two 1019. The wire hole two 1019 is formed on the inner wall of the socket 102 close to one end of the wire insertion body 200. The wire hole two 1019 is threadedly connected with the wire tooth 207. The wire hole two 1019 is fixedly provided with a sealing ring 300 inside. The sealing ring 300 is used for sealing and waterproofing between the wire box body 100 and the wire insertion body 200.

[0072] Specifically, during the process of inserting the end plug 201 into the socket 102, the torsion ring 2012 is rotated clockwise, which drives the two L-shaped torsion blocks 2014 to rotate together. During this process, the side surface of the L-shaped torsion block 2014 is in contact with the inner wall of the side of the rectangular groove 2010 away from the engaging block 2011, thus driving the locking sleeve 206 to rotate together. The rotation of the locking sleeve 206 drives the opened thread 207 to rotate, so that the thread 207 is fixed in the socket 102 under the action of the thread force of the second silk hole 1019. During this process, the engaging block 2011 rotates together with the locking sleeve 206. Due to the engagement of the engaging block 2011 at the end and the ratchet 208, the locking sleeve 206 cannot rotate counterclockwise, thereby ensuring the stability of the cable communication signal transmission. When it is necessary to separate the plug-in main body 200 from the wire box main body 100, the torsion ring 2012 can be directly rotated counterclockwise, which drives the L-shaped torsion block 2014 to rotate towards the direction close to the engaging block 2011, causing the end of the bent end of the L-shaped torsion block 2014 to be in contact with the surface of the engaging block 2011. Under the action of the wedge force, the engaging block 2011 is pushed away from the ratchet 208, and the engaging block 2011 is elastically deformed, thereby disengaging the ratchet 208. Then, the torque transmitted by the L-shaped torsion block 2014 to the engaging block 2011 is transmitted to the locking sleeve 206 through the engaging block 2011, thereby driving the thread 207 to rotate counterclockwise along the inside of the second silk hole 1019, and the plug-in main body 200 is withdrawn from the socket 102. It is convenient to assemble and disassemble, and is suitable for use in complex environments.

[0073] The underwater ship communication cable sealing pressure terminal box in the scheme is used for connecting the cable. When the terminal is connected, first, the end plug 201 is aligned with the end of the socket 102, and the end plug 201 is slowly inserted into the socket 102. During this period, the end of the rotating column 104 slowly enters the inner cavity of the end of the end plug 201, and further under the magnetic force between the plurality of magnets N two 203, the plurality of magnets S two 204, the plurality of magnets S one 106 and the plurality of magnets N one 107, the rotating column 104 is driven to rotate by a certain angle, the plurality of magnets S one 106 is rotated to the side close to the plurality of magnets N two 203, and the plurality of magnets N one 107 is rotated to the side of the plurality of magnets S two 204. At this time, under the action of magnetic attraction, the rotating column 104 will not continue to rotate, and the rotating column 104 rotates to drive the sedimentation block 109 and the plurality of electrodes one 1010 to rotate together. It should be noted that after the plurality of magnets S one 106 is rotated to the side close to the plurality of magnets N two 203, and the plurality of magnets N one 107 is rotated to the side of the plurality of magnets S two 204, the end of the plurality of electrodes one 1010 coincides with the position of the end of the plurality of electrodes two 205. Subsequently, the end plug 201 is continuously inserted into the socket 102 until the tapered protrusion at the end of the electrode one 1010 is inserted into the tapered groove at the end of the electrode two 205. With the continuous insertion of the end plug 201, the electrode one 1010 and the sedimentation block 109 are pushed to slide into the inside of the sedimentation groove 108, and the four slide rods 1012, the four jacks 1015, the brake disc 1016 and the plurality of brake pads 1018 are driven to slide together. At the same time, the spring 1020 is compressed and stored. When the end plug 201 is inserted in place, the surface of the plurality of brake pads 1018 just abuts against the inner wall of the socket 102, so that under the action of the static friction between the surface of the brake pad 1018 and the inner wall of the socket 102, the rotating column 104 as a whole will not easily rotate, ensuring the stability of the cable connection.

[0074] At the same time, clockwise rotation of the twist ring 2012, the twist ring 2012 rotation driven two L-shaped twist block 2014 together, during, L-shaped twist block 2014 side and the rectangular slot 2010 away from the side wall of the block 2011 occlusion with resistance, therefore, driven locking sleeve 206 together with the rotation, locking sleeve 206 rotation driven open wire 207 rotation, so that the wire 207 and the thread hole two 1019 under the action of the thread force, the whole fixed plug-in main body 200 in the plug 102, during, occlusion block 2011 with locking sleeve 206 together with the rotation, due to the occlusion block 2011 end and the ratchet 208 under the action of occlusion, locking sleeve 206 will not rotate counterclockwise, so as to ensure the stability of the cable communication signal transmission, and when the need to separate the plug-in main body 200 and the line box main body 100, then can be directly counterclockwise rotation of the twist ring 2012, through the twist ring 2012 driven L-shaped twist block 2014 to the direction of approaching the occlusion block 2011 rotation, resulting in the end of the bending end of L-shaped twist block 2014 and the surface of the occlusion block 2011 resistance, under the action of wedge force, the occlusion block 2011 away from the direction of the ratchet 208 push, the occlusion block 2011 elastic deformation, thereby with the ratchet 208 to remove the occlusion, then, the L-shaped twist block 2014 to the occlusion block 2011 transmission torque through the occlusion block 2011 transmission to the locking sleeve 206, in turn drive wire 207 along the thread hole two 1019 inside counterclockwise rotation, the plug-in main body 200 from the plug 102 inside out, convenient to install and remove, suitable for use in complex environment.

[0075] Although embodiments of the present application have been shown and described, it is to be understood that various modifications, substitutions, replacements and changes can be made to these embodiments without departing from the principles and spirit of the present application, which can be understood by those skilled in the art.

Claims

1. A pressure-resistant junction box for sealing underwater ship communication cables, characterized in that: include: The junction box body (100) and the plug-in body (200) are connected to the end of the junction box body (100); The junction box body (100) includes: The box body (101) has slots (102) at both ends; The positioning shaft (103) is fixedly installed on the middle of the inner wall of the box (101) on the side away from the plug body (200); The rotating column (104) is rotatably mounted on the outer wall of the positioning shaft (103); The first mounting slot (105) is provided diagonally with respect to the center of the rotating post (104) at one end of the outer wall of the rotating post (104) near the insertion body (200), and there are multiple slots in total; Magnet S- (106) and magnet N- (107) are fixedly installed inside the mounting slot (105), and magnet S- (106) and magnet N- (107) are diagonally distributed about the center of the rotating column (104); The connector body (200) includes: The end plug (201) is inserted into the socket (102); The second mounting slot (202) has multiple end plugs (201) arranged diagonally on the inner wall of the end plug (201) near the main body of the junction box (100). Magnet N2 (203) and magnet S2 (204) are fixedly installed inside the mounting slot 2 (202), and magnet N2 (203) and magnet S2 (204) are diagonally distributed about the center of the end plug (201).

2. The pressure-resistant junction box for sealing underwater ship communication cables according to claim 1, characterized in that: The junction box body (100) also includes: A recess (108) is provided at one end of the rotating post (104) near the insertion body (200); Settling block (109) is slidably disposed inside settling tank (108); Electrode 1 (1010) is fixedly installed on one side of the settling block (109) near the wire insertion body (200), and there are multiple electrodes, which are distributed at equal angles along the surface of the settling block (109); The connector body (200) also includes: Electrode 2 (205) is fixedly installed on the inner wall of the end plug (201) near the wire box body (100). There are multiple electrodes, and they are distributed at equal angles along the inner wall of the end plug (201). The specifications and positions of the electrodes 2 (205) correspond one-to-one with the specifications and positions of the electrodes 1 (1010).

3. A pressure-resistant junction box for sealing underwater ship communication cables according to claim 2, characterized in that: The junction box body (100) also includes: Sliding holes (1011) are equally spaced on the side of the settling tank (108) away from the settling block (109); The sliding rod (1012) is fixedly installed on the side of the settling block (109) away from the electrode (1010) at equal angles and is slidably connected to the inner wall of the sliding hole (1011); The first wire hole (1013) is evenly distributed on the side of the rotating column (104) away from the sinker (108), and its position corresponds one-to-one with the sliding hole (1011); Hollow bolt (1014), threaded into the inside of threaded hole one (1013); The top rod (1015) is fixedly installed at the end of the torsion ring (2012) away from the settlement block (109) and moves through the interior of the hollow bolt (1014).

4. A pressure-resistant junction box for sealing underwater ship communication cables according to claim 3, characterized in that: The junction box body (100) also includes: The brake disc (1016) is fixedly installed at one end of a plurality of push rods (1015) away from the slide rod (1012); The positioning grooves (1017) are evenly distributed on the side of the brake disc (1016) away from the push rod (1015); Brake pad (1018) is fixedly installed inside the positioning groove (1017).

5. A pressure-resistant junction box for sealing underwater ship communication cables according to claim 4, characterized in that: A spring (1020) is sleeved around the top rod (1015), and the spring (1020) is fixedly installed between the slide rod (1012) and the first wire hole (1013).

6. A pressure-resistant junction box for sealing underwater ship communication cables according to claim 5, characterized in that: The connector body (200) also includes: The locking sleeve (206) is rotatably mounted on the outer wall of the end plug (201); The thread (207) is formed on the outer wall of the locking sleeve (206); The junction box body (100) also includes: The second wire hole (1019) is opened on the inner wall of the socket (102) near one end of the wire body (200), and the second wire hole (1019) is screwed to the thread (207) by thread.

7. A pressure-resistant junction box for sealing underwater ship communication cables according to claim 6, characterized in that: The connector body (200) also includes: The ratchet (208) is formed on the outer wall of the end insert (201); Two rectangular grooves (2010) are formed through the outer wall of the locking sleeve (206), and the two rectangular grooves (2010) are diagonally distributed about the center of the locking sleeve (206). The torsion ring (2012) is rotatably mounted on the outer wall of the locking sleeve (206) and located around the two rectangular grooves (2010); The annular groove (2013) is formed on the inner wall of the torsion ring (2012) and is located outside the two rectangular grooves (2010); Two L-shaped twisting blocks (2014) are fixedly installed on the inner wall of the annular groove (2013), and the two L-shaped twisting blocks (2014) are located inside the two rectangular grooves (2010) respectively.

8. A pressure-resistant junction box for sealing underwater ship communication cables according to claim 7, characterized in that: The L-shaped twisting block (2014) is bent at a right angle. The rectangular groove (2010) has an integrally formed biting block (2011) on the inner wall of one side near the bent end of the L-shaped twisting block (2014). The end of the biting block (2011) is adapted to the ratchet (208), and the biting block (2011) bites into the ratchet (208).

9. A pressure-resistant junction box for sealing underwater ship communication cables according to claim 8, characterized in that: A sealing ring (300) is fixedly installed inside the wire hole two (1019), and the sealing ring (300) is used for sealing and waterproofing between the wire box body (100) and the plug body (200).

10. A pressure-resistant junction box for sealing underwater ship communication cables according to claim 9, characterized in that: The outer wall of the rotating post (104) is provided with a placement groove (1004) at one end near the insertion body (200), and a rubber sealing ring is fixedly installed inside the placement groove (1004).

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