Energy storage connector capable of preventing falling off due to vibration and use method of energy storage connector

Abstract

The invention belongs to the technical field of energy storage connectors, and discloses an anti-vibration and anti-falling energy storage connector and a use method thereof.The anti-vibration and anti-falling energy storage connector comprises a connector body and a cable arranged in the connector body and further comprises a socket assembly connected with one end of the connector body in a clamped mode and a rotating assembly connected with the connector body in a clamped mode; the rotating assembly is movably connected to the interior of the connector body, and is movably clamped with clamping assemblies which are annularly arranged in the connector body at 90 degrees. Through cooperation of a piston rod, an air bag, a tooth block, a gear plate and other structures, the socket assembly and the cable can be conveniently reinforced at the same time, then the socket assembly and the cable are prevented from falling off in a high-vibration environment, the position of the cable is reinforced through expansion of the air bag, and the tooth block is clamped with the gear plate after moving, so that the safety of the cable is improved. And the position of the socket assembly is reinforced, so that the socket assembly and the cable are prevented from being separated in a high-vibration environment.

Description

Technical Field

[0001] The invention belongs to the technical field of energy storage connectors, and in particular is an energy storage connector that is vibration-proof and can be dislodged, and a method for using the connector. Background Art

[0002] Energy storage connectors are special connectors used in energy storage systems (such as battery energy storage, solar energy storage, etc.) to connect battery packs, inverters, charging equipment and other electrical components. These connectors play a vital role in energy storage systems, ensuring the effective transmission of electrical energy and the safe operation of the system. Energy storage connectors are also widely used in the automotive field, covering many aspects such as new energy vehicles and automobile manufacturing processes.

[0003] When the existing energy storage connectors are in use, most of them are provided with snap-on structures at both ends of the connectors, so as to facilitate fixing the socket and the cable inside the connector. However, when the energy storage connectors are used in the automotive field, since the automobile may be subjected to vibrations caused by various factors such as the engine and uneven road surface during operation, when the energy storage connector is in such a vibration environment for a long time, if the friction between the pin and the socket is insufficient, or the locking mechanism is not firm, then in a high vibration environment, the two ends of the connector are prone to relative displacement, resulting in loose connection or falling off, thereby affecting the normal operation of the energy storage connector. Therefore, an energy storage connector that is anti-vibration and falling off and a method of using the same are proposed to solve the problems raised in the background technology. Summary of the invention

[0004] To solve the problems raised in the above background technology, the present invention provides a vibration-proof energy storage connector and a method of using the same, which has the advantage of conveniently reinforcing both ends of the energy storage connector, thereby preventing the socket and the cable from detaching in a high-vibration environment.

[0005] To achieve the above object, the present invention provides the following technical solution: an energy storage connector that is vibration-proof and can be dislodged, comprising a connector body and a cable disposed inside the connector body, and further comprising: A socket assembly, the socket assembly being snap-connected with one end of the connector body; A rotating assembly, which is movably connected to the inside of the connector body and movably engaged with a clamping assembly arranged inside the connector body in a ring shape and at an angle of 90 degrees; A limit assembly, wherein the limit assembly is symmetrically arranged on both sides of the inner cavity of the connector body, and the limit assembly is used to limit the position of the socket assembly after being moved; A first reinforcement component, the first reinforcement component is installed inside the connector body at an end away from the socket component; A second reinforcement component, the second reinforcement component is annular and distributed at 90 degrees inside the connector body; The rotating assembly comprises a rotating drum, the outer wall of the rotating drum is provided with a first inclined groove and a second inclined groove in an annular shape of 180 degrees, and the outer wall of the rotating drum is provided with a third inclined groove in an annular shape of 90 degrees; The limiting assembly comprises a limiting plate and a baffle fixed at one end thereof, and the inner wall of the connector body is provided with vertical grooves and horizontal grooves in an annular manner of 180 degrees; The clamping assembly comprises a first inclined block and a second inclined block abutting against the first inclined block, and a curved plate is fixedly connected to one side of the second inclined block; The first reinforcement component includes a cavity and a piston rod arranged in an annular manner at 90 degrees inside the connector body, an air bag is installed inside the connector body, the second reinforcement component includes a tooth block, and a guide groove is opened in an annular manner at 90 degrees on one end of the rotating cylinder away from the first reinforcement component.

[0006] Preferably, the socket assembly comprises a socket terminal and a gear plate fixedly connected to the outside thereof, and a first round block is provided in a 180-degree circular shape on the outer wall of the socket terminal, and the first round block is movably engaged in the interior of the vertical groove in an initial state.

[0007] Preferably, the two limiting plates are fixedly connected to opposite sides with third round blocks, the third round blocks are movably clamped inside the first inclined groove, the opposite ends of the vertical groove and the horizontal groove are connected, and the baffle is located inside the horizontal groove.

[0008] Preferably, the first bevel groove and the third bevel groove are oriented in opposite directions, the outer wall of the connector body is threadedly connected with a threaded block, the second bevel groove has a second round block movably clamped inside, and the opposite ends of the two second round blocks are fixedly connected with limit blocks.

[0009] Preferably, a slide groove for axially limiting the limit block is provided inside the threaded block, one end of the limit block away from the second round block is movably connected inside the threaded block, and a square groove for circumferentially limiting the limit block is provided inside the connector body; When the threaded block rotates, it drives the limiting block and the second round block to move in a direction away from the socket assembly. When the second round block moves, it slides along the track of the second inclined groove and drives the rotating drum to rotate.

[0010] Preferably, a fourth round block is provided on one side opposite to the two first inclined blocks, the fourth round block is movably clamped in the third inclined groove, the opposite ends of the first inclined block and the second inclined block are both inclined, and a gasket is fixedly connected to the side of the arc plate away from the second inclined block.

[0011] Preferably, the gasket is made of rubber material, and a gap is left between the gasket and the outer wall of the cable in an initial state. A spring is fixedly connected to the side of the arc plate away from the gasket, and the arc plate is elastically connected to the connector body through the spring.

[0012] Preferably, a piston rod is movably connected inside the cavity, one end of the piston rod away from the cavity is fixedly connected to the first inclined block, and one side of the cavity is provided with an air outlet hole connected to the airbag.

[0013] Preferably, the tooth block is initially retracted into the interior of the connector body, a convex rod is fixedly connected to the middle of the tooth block, the convex rod is movably engaged in the interior of the guide groove, and a straight groove is provided on the inner wall of the connector body for circumferentially limiting the convex rod.

[0014] The present application also proposes a method for using a vibration-proof energy storage connector, the steps of which are as follows: S1, the drum rotates so that the limit plate and the first inclined block move in opposite directions along the tracks of the first inclined groove and the third inclined groove respectively, so that the limit plate drives the baffle plate to move toward the direction of the socket assembly, and the baffle plate is inserted into the inside of the transverse groove, so as to limit the first round block located inside the transverse groove, thereby fixing the position of the socket assembly; S2, by moving the first inclined block and squeezing the second inclined block to move toward the cable, the second inclined block drives the arc plate to move in the same direction, and then the four arc plates move to clamp the cable, thereby fixing the position of the cable in the connector body; S3. When the piston rod is driven to move by the first inclined block, the air inside the cavity is squeezed and injected into the airbag, thereby expanding the airbag and reinforcing the cable through its own expansion force. When the drum rotates, the tooth block is driven to move toward the socket assembly through the guide groove, so that the tooth block is stuck in the gear plate, thereby reinforcing the socket assembly.

[0015] Compared with the prior art, the present invention has the following beneficial effects: The present invention facilitates the simultaneous reinforcement of the socket assembly and the cable through the cooperation between structures such as the piston rod, the airbag, the tooth block and the gear plate, thereby preventing the socket assembly and the cable from falling off in a high vibration environment. The rotating drum rotates, so that the first inclined block drives the piston rod to move, and the convex rod drives the tooth block to move along the trajectory of the guide groove. After the piston rod moves, the air inside the cavity is squeezed into the airbag, so that the airbag expands, and the position of the cable is reinforced by the expansion force of the airbag itself. After the tooth block moves, it is clamped with the gear plate. Through the cooperation between the two, the connection between the connector body and the socket assembly can withstand the large torque and impact force brought by the outside world, thereby reinforcing the position of the socket assembly, thereby preventing the socket assembly and the cable from falling off in a high vibration environment.

[0016] The present invention facilitates simultaneous fixation of the socket assembly and the cable by the cooperation between structures such as the first oblique groove, the third oblique groove, the limit assembly and the clamping assembly. The first oblique groove and the third oblique groove are in opposite directions, so that when the rotating drum rotates, the limit plate and the first oblique block can be driven to move in opposite directions. The baffle plate moves and is stuck in the transverse groove, so that the baffle plate limits the first round block and thus fixes the position of the first round block inside the transverse groove. The gasket is made of rubber material to increase the connection area between the gasket and the outer wall of the cable, thereby generating friction and resistance on the cable, thereby fixing the position of the cable inside the connector body, and thus facilitating simultaneous fixation of the socket assembly and the cable inside the connector body, thereby reducing the risk of both falling off during operation of the connector body. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a schematic diagram of the front cross-section structure of the present invention; Figure 3 It is a schematic diagram of the positional relationship among the rotating assembly, the limiting assembly, the clamping assembly and the second reinforcing assembly of the present invention; Figure 4 for Figure 2 Enlarged view of point A in the middle; Figure 5 for Figure 2 Enlarged view of point B in the middle; Figure 6 It is a structural schematic diagram of the socket assembly of the present invention; Figure 7 It is a partial schematic diagram of the transverse groove of the present invention; Figure 8 An exploded view of the rotating assembly of the present invention; Fig. 9 It is a partial side section schematic diagram of the limit block of the present invention; Fig.10 It is a partial side section schematic diagram of the limiting component of the present invention.

[0018] In the figure: 1. connector body; 2. socket assembly; 21. socket terminal; 22. first round block; 23. gear plate; 3. rotating assembly; 31. rotating cylinder; 32. first inclined groove; 33. second inclined groove; 34. third inclined groove; 35. threaded block; 36. limit block; 37. second round block; 4. limit assembly; 41. limit plate; 42. third round block; 43. baffle; 44. vertical groove; 45. horizontal groove; 5. clamping assembly; 51. first inclined block; 52. fourth round block; 53. arc plate; 54. gasket; 55. second inclined block; 56. spring; 6. first reinforcement assembly; 61. cavity; 62. piston rod; 63. air outlet; 64. air bag; 7. second reinforcement assembly; 71. tooth block; 72. convex rod; 73. guide groove; 74. straight notch; 8. cable. DETAILED DESCRIPTION

[0019] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. 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 creative work are within the scope of protection of the present invention.

[0020] like Figures 1 to 10 As shown, the present invention provides an energy storage connector that is vibration-proof and can be dislodged, comprising a connector body 1 and a cable 8 disposed inside the connector body, and further comprising: A socket assembly 2, the socket assembly 2 is snap-connected with one end of the connector body 1; A rotating assembly 3, which is movably connected to the inside of the connector body 1 and movably clamped with a clamping assembly 5 which is arranged inside the connector body 1 in a ring shape and at an angle of 90 degrees; The limiting components 4 are symmetrically arranged on both sides of the inner cavity of the connector body 1, and are used to limit the position of the socket component 2 after the limiting components 4 are moved; A first reinforcement component 6, which is installed inside the connector body 1 at one end away from the socket component 2; A second reinforcement component 7, which is annular and distributed at 90 degrees inside the connector body 1; The rotating assembly 3 comprises a rotating drum 31, and the outer wall of the rotating drum 31 is provided with a first inclined groove 32 and a second inclined groove 33 in an annular shape of 180 degrees, and the outer wall of the rotating drum 31 is provided with a third inclined groove 34 in an annular shape of 90 degrees; The limiting assembly 4 comprises a limiting plate 41 and a baffle 43 fixed at one end thereof, and the inner wall of the connector body 1 is provided with vertical grooves 44 and horizontal grooves 45 in an annular manner of 180 degrees; The clamping assembly 5 comprises a first inclined block 51 and a second inclined block 55 which is in contact with the first inclined block 51, and a curved plate 53 is fixedly connected to one side of the second inclined block 55; The first reinforcement component 6 includes a cavity 61 and a piston rod 62 arranged in an annular manner at 90 degrees inside the connector body 1, and an air bag 64 is installed inside the connector body 1. The second reinforcement component 7 includes a tooth block 71, and a guide groove 73 is provided in an annular manner at 90 degrees on one end of the rotating cylinder 31 away from the first reinforcement component 6.

[0021] The above scheme is adopted: the rotating drum 31 is rotated to drive the limiting plate 41 and the first inclined block 51 inside the connector body 1 to move. After the limiting plate 41 moves, it drives the baffle 43 to be stuck in the inside of the transverse groove 45, thereby limiting the socket assembly 2 inside the transverse groove 45, and then fixing the position of the socket assembly 2. At the same time, the first inclined block 51 moves to squeeze the second inclined block 55 that is in contact with it and moves toward the cable 8, thereby driving the arc plate 53 to move in the same direction. After the four arc plates 53 move, they wrap the outer wall of the cable 8, thereby fixing the cable 8. The position of the socket assembly 2 and the cable 8 can be fixed at the same time. After the piston rod 62 moves, the air in the cavity 61 is injected into the airbag 64, so that the airbag 64 expands and further reinforces the cable 8 through its own expansion force. At the same time, the rotation of the drum 31 also drives the tooth block 71 to move toward the socket assembly 2, so that the four tooth blocks 71 are all inserted into the interior of the socket assembly 2, thereby further reinforcing the position of the socket assembly 2, thereby preventing the socket assembly 2 and the cable 8 from falling off due to vibration during use of the device.

[0022] like Figures 2 to 3 , Figure 7 , Fig.10 As shown, the socket assembly 2 includes a socket terminal 21 and a gear plate 23 fixedly connected to the outside thereof. The outer wall of the socket terminal 21 is provided with a first round block 22 in a 180-degree ring shape. The first round block 22 is movably clamped in the vertical groove 44 in the initial state. The opposite sides of the two limit plates 41 are fixedly connected with third round blocks 42. The third round block 42 is movably clamped in the first inclined groove 32. The opposite ends of the vertical groove 44 and the horizontal groove 45 are connected, and the baffle 43 is located in the horizontal groove 45.

[0023] The above scheme is adopted: through the design of the vertical groove 44 and the horizontal groove 45, its function is that only after the first round block 22 slides smoothly into the interior of the vertical groove 44, can it drive the socket terminal 21 as a whole to enter the interior of the connector body 1, thereby achieving the effect of preventing misinsertion. At the same time, the vertical groove 44 and the horizontal groove 45 are connected to facilitate the first round block 22 to slide smoothly into the interior of the horizontal groove 45, and the horizontal groove 45 is used to axially limit the socket assembly 2.

[0024] like Figures 2 to 3 , Figures 8 to 9 As shown, the first bevel groove 32 and the third bevel groove 34 are oriented in opposite directions, the outer wall of the connector body 1 is threadedly connected with a threaded block 35, the second bevel groove 33 is internally movably engaged with a second round block 37, the opposite ends of the two second round blocks 37 are fixedly connected to the limiting blocks 36, the threaded block 35 is provided with a sliding groove for axially limiting the limiting block 36, the end of the limiting block 36 away from the second round block 37 is movably connected to the inside of the threaded block 35, and the connector body 1 is provided with a square groove for circumferentially limiting the limiting block 36, when the threaded block 35 rotates, it drives the limiting block 36 and the second round block 37 to move in a direction away from the socket assembly 2, and when the second round block 37 moves, it slides along the trajectory of the second bevel groove 33 and drives the rotating drum 31 to rotate.

[0025] The above scheme is adopted: the first inclined groove 32 and the third inclined groove 34 are in opposite directions, and their function is that when the rotating drum 31 rotates, the limit plate 41 and the first inclined block 51 can be driven to move in opposite directions at the same time. A sliding groove for axially limiting the limit block 36 is opened inside the threaded block 35, so that when the threaded block 35 rotates, the end of the limit block 36 away from the second round block 37 can slide circumferentially inside the sliding groove, thereby ensuring the normal operation of the device.

[0026] like Figures 2 to 3 , Figure 5 As shown, a fourth round block 52 is provided on the opposite side of the two first inclined blocks 51, and the fourth round block 52 is movably clamped in the inside of the third inclined groove 34. The opposite ends of the first inclined block 51 and the second inclined block 55 are both inclined. A gasket 54 is fixedly connected to the side of the arc plate 53 away from the second inclined block 55. The gasket 54 is made of rubber material. In the initial state, a gap is left between the gasket 54 and the outer wall of the cable 8. A spring 56 is fixedly connected to the side of the arc plate 53 away from the gasket 54. The arc plate 53 is elastically connected to the connector body 1 through the spring 56.

[0027] The above solution is adopted: the gasket 54 is made of rubber material, and its function is that since the rubber material has good elasticity and adaptability, it can closely fit the surface of the cable 8, thereby providing a uniform clamping force to the cable 8, thereby improving the stability and reliability of the overall clamping of the device, and leaving a gap between the gasket 54 and the outer wall of the cable 8 in the initial state, thereby preventing the gasket 54 from contacting the outer wall of the cable 8 too early, thereby affecting the insertion of the cable 8 into the connector body 1; Through the design of the spring piece 56, its function is that when the first inclined block 51 releases the squeezing of the second inclined block 55, the arc plate 53 will drive the second inclined block 55 and the gasket 54 to reset under the action of the elastic force of the spring piece 56, so as to facilitate the operator to use it next time. At the same time, it can also drive the gasket 54 to release the squeezing of the outer wall of the cable 8, so as to facilitate the removal or replacement of the cable 8.

[0028] like Figures 2 to 3 , Figure 5 As shown, the interior of the cavity 61 is movably connected with a piston rod 62, and one end of the piston rod 62 away from the cavity 61 is fixedly connected to the first inclined block 51. One side of the cavity 61 is provided with an air outlet 63 connected to the airbag 64. The tooth block 71 is initially retracted to the inside of the connector body 1, and the middle part of the tooth block 71 is fixedly connected with a protruding rod 72, which is movably clamped in the inside of the guide groove 73. The inner wall of the connector body 1 is provided with a straight groove 74 for circumferentially limiting the protruding rod 72.

[0029] The above scheme is adopted: the air outlet 63 is connected with the airbag 64, and its function is to facilitate the injection of air inside the cavity 61 into the inside of the airbag 64 through the air outlet 63, thereby causing the airbag 64 to expand, and then the position of the cable 8 is reinforced by the expansion force of the airbag 64 itself. At the same time, the expanded airbag 64 also fills the gap between the outer wall of the cable 8 and the inner wall of the connector body 1, thereby effectively isolating moisture, dust and other impurities in the external environment from entering the interior of the connector body 1 through the gap, thereby avoiding the occurrence of poor contact or short circuit inside the connector body 1 due to the entry of dust.

[0030] The working principle and use process of the present invention are as follows: first, the operator slides the first round block 22 into the interior of the vertical groove 44, so that the first round block 22 drives the socket terminal 21 to be inserted into the interior of the connector body 1 along the track of the vertical groove 44. Then, the first round block 22 abuts against the vertical groove 44. At this time, the socket terminal 21 is rotated to slide the first round block 22 into the interior of the horizontal groove 45 until the first round block 22 abuts against the inner wall of the horizontal groove 45. At the same time, the operator inserts the cable 8 into the interior of the connector body 1 away from the end of the socket assembly 2; Subsequently, by rotating the threaded block 35, the threaded block 35 moves along the thread of the outer wall of the connector body 1 toward the first reinforcing component 6. While the threaded block 35 rotates, the inner wall groove of the threaded block 35 limits the axial position of the limit block 36, so that one end of the limit block 36 slides inside the threaded block 35 while driving the second round block 37 to move toward the first reinforcing component 6, thereby causing the second round block 37 to slide along the trajectory of the second inclined groove 33 and driving the rotating drum 31 to rotate. While the rotating drum 31 rotates, the third round block 42 drives the limit plate 41 to move toward the socket assembly 2 along the trajectory of the first inclined groove 32, and the fourth round block 52 drives the first inclined block 51 to move toward the first reinforcing component 6 along the trajectory of the third inclined groove 34, thereby causing the limit plate 41 to drive the baffle plate 43 to move toward the inside of the transverse groove 45. The moved baffle plate 43 limits the first round block 22 that is movably connected to the inside of the transverse groove 45, thereby preventing the first round block 22 from rotating and moving, thereby fixing the socket assembly 2 inside the connector body 1. When the first inclined block 51 moves toward the first reinforcing component 6, it squeezes the second inclined block 55 that is in contact with it, so that the second inclined block 55 drives the arc plate 53 and the gasket 54 on one side thereof to move toward the direction of the cable 8. When the first inclined block 51 contacts the plane of the side wall of the second inclined block 55, the four gaskets 54 abut against the outer wall of the cable 8 and squeeze the cable 8. Since the gaskets 54 are made of rubber material, the four gaskets 54 will generate greater friction while squeezing the outer wall of the cable 8, so that it is difficult for the cable 8 to rotate or displace inside the connector body 1, thereby fixing the position of the cable 8 inside the connector body 1. When the first inclined block 51 moves, it also drives the piston rod 62 fixedly connected at one end thereof to move toward the inside of the cavity 61, so that the piston rod 62 squeezes the air inside the cavity 61, and then the compressed air is introduced into the airbag 64 through the air outlet hole 63. Then, when the fourth round block 52 abuts against the inner wall of the third inclined groove 34, the air inside the four cavities 61 is squeezed into the inside of the airbag 64, so that the airbag 64 expands and fits tightly with the surface of the cable 8. The position of the cable 8 is further reinforced by the expansion force of the airbag 64 itself, so as to prevent the cable 8 from loosening in a high vibration environment. At the same time, the expanded airbag 64 also fills the gap between the outer wall of the cable 8 and the inner wall of the connector body 1, so as to effectively isolate the moisture, dust and other impurities in the external environment from entering the inside of the connector body 1 through the gap, so as to avoid the poor contact or short circuit inside the connector body 1 caused by the entry of dust. When the drum 31 rotates, it also drives the protruding rod 72 to slide along the trajectory of the guide groove 73. At this time, due to the circumferential limitation of the protruding rod 72 by the straight groove 74, the protruding rod 72 can only drive the tooth block 71 to move toward the direction of the socket assembly 2 when sliding. After moving, the four tooth blocks 71 are all stuck in the interior of the gear plate 23, thereby locking the socket terminal 21 again, making the connection between it and the connector body 1 more reliable, thereby preventing the socket terminal 21 from detaching from the interior of the connector body 1 under a high vibration environment, and finally completing the operation.

[0031] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0032] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An energy storage connector that is resistant to vibration and disengagement, comprising a connector body (1) and a cable (8) arranged inside the connector, characterized in that: Also includes: A socket assembly (2), the socket assembly (2) being snap-connected to one end of the connector body (1); A rotating assembly (3), the rotating assembly (3) being movably connected to the interior of the connector body (1) and movably clamped to a clamping assembly (5) arranged in a ring shape and at an angle of 90 degrees to the interior of the connector body (1); A limit assembly (4), the limit assembly (4) being symmetrically arranged on both sides of the inner cavity of the connector body (1), and the limit assembly (4) being used to limit the position of the socket assembly (2) after being moved; A first reinforcement component (6), the first reinforcement component (6) being installed inside an end of the connector body (1) away from the socket component (2); A second reinforcement component (7), the second reinforcement component (7) being in the shape of a ring and distributed at 90 degrees inside the connector body (1); The rotating assembly (3) comprises a rotating drum (31), the outer wall of the rotating drum (31) is provided with a first inclined groove (32) and a second inclined groove (33) in an annular shape at 180 degrees, and the outer wall of the rotating drum (31) is provided with a third inclined groove (34) in an annular shape at 90 degrees; The limiting assembly (4) comprises a limiting plate (41) and a baffle (43) fixed at one end thereof, and the inner wall of the connector body (1) is provided with vertical grooves (44) and horizontal grooves (45) in an annular manner at 180 degrees. The clamping assembly (5) comprises a first inclined block (51) and a second inclined block (55) abutting against the first inclined block (51), and a curved plate (53) is fixedly connected to one side of the second inclined block (55); The first reinforcement component (6) comprises a cavity (61) and a piston rod (62) arranged in an annular manner at 90 degrees inside the connector body (1); an air bag (64) is installed inside the connector body (1); the second reinforcement component (7) comprises a tooth block (71); and a guide groove (73) is provided in an annular manner at 90 degrees on one end of the rotating cylinder (31) away from the first reinforcement component (6).

2. The anti-vibration and fall-off energy storage connector according to claim 1, characterized in that: The socket assembly (2) comprises a socket terminal (21) and a gear plate (23) fixedly connected to the outside thereof; the outer wall of the socket terminal (21) is provided with a first round block (22) in an annular shape at 180 degrees; the first round block (22) is movably engaged in the interior of the vertical groove (44) in an initial state.

3. The anti-vibration and fall-off energy storage connector according to claim 1, characterized in that: A third round block (42) is fixedly connected to opposite sides of the two limit plates (41); the third round block (42) is movably clamped inside the first inclined groove (32); opposite ends of the vertical groove (44) and the horizontal groove (45) are connected; and the baffle (43) is located inside the horizontal groove (45).

4. The anti-vibration and fall-off energy storage connector according to claim 1, characterized in that: The first inclined groove (32) and the third inclined groove (34) are oriented in opposite directions; a threaded block (35) is threadedly connected to the outer wall of the connector body (1); a second round block (37) is movably clamped inside the second inclined groove (33); and opposite ends of the two second round blocks (37) are fixedly connected to a limit block (36).

5. The anti-vibration and fall-off energy storage connector according to claim 4, characterized in that: A sliding groove for axially limiting the limit block (36) is provided inside the threaded block (35); one end of the limit block (36) away from the second round block (37) is movably connected to the inside of the threaded block (35); and a square groove for circumferentially limiting the limit block (36) is provided inside the connector body (1); When the threaded block (35) rotates, it drives the limit block (36) and the second round block (37) to move in a direction away from the socket assembly (2); when the second round block (37) moves, it slides along the track of the second inclined groove (33) and drives the rotating drum (31) to rotate.

6. The energy storage connector that is vibration-proof and can be dislodged according to claim 1, characterized in that: A fourth round block (52) is provided on one side opposite to the two first inclined blocks (51), the fourth round block (52) being movably clamped in the interior of the third inclined groove (34), the opposite ends of the first inclined block (51) and the second inclined block (55) both being inclined, and a gasket (54) is fixedly connected to one side of the arc plate (53) away from the second inclined block (55).

7. The energy storage connector that is vibration-proof and can be dislodged according to claim 6, characterized in that: The gasket (54) is made of rubber material, and in an initial state, a gap is left between the gasket (54) and the outer wall of the cable (8); a spring sheet (56) is fixedly connected to the side of the arc plate (53) away from the gasket (54); and the arc plate (53) is elastically connected to the connector body (1) via the spring sheet (56).

8. The energy storage connector that is vibration-proof and can be dislodged according to claim 1, characterized in that: A piston rod (62) is movably connected inside the cavity (61), one end of the piston rod (62) away from the cavity (61) is fixedly connected to the first inclined block (51), and one side of the cavity (61) is provided with an air outlet hole (63) connected to the air bag (64).

9. The anti-vibration and fall-off energy storage connector according to claim 1, characterized in that: In an initial state, the tooth block (71) is retracted into the interior of the connector body (1); a protruding rod (72) is fixedly connected to the middle of the tooth block (71); the protruding rod (72) is movably engaged in the interior of the guide groove (73); and a straight notch (74) for circumferentially limiting the protruding rod (72) is provided on the inner wall of the connector body (1).

10. A method for using a vibration-proof energy storage connector, applied to the vibration-proof energy storage connector according to any one of claims 1 to 9, characterized in that: The method of use is as follows: S1, the rotating drum (31) is rotated, so that the limiting plate (41) and the first inclined block (51) move in opposite directions along the trajectories of the first inclined groove (32) and the third inclined groove (34), respectively, so that the limiting plate (41) drives the baffle plate (43) to move in the direction of the socket assembly (2), and the baffle plate (43) is inserted into the interior of the transverse groove (45), thereby limiting the position of the first round block (22) located inside the transverse groove (45), and fixing the position of the socket assembly (2); S2, by moving the first inclined block (51) and squeezing the second inclined block (55) toward the cable (8), thereby driving the arc plates (53) to move in the same direction through the second inclined block (55), and then causing the four arc plates (53) to move and clamp the cable (8), thereby fixing the position of the cable (8) in the connector body (1); S3. When the piston rod (62) is driven to move by the first inclined block (51), the air in the cavity (61) is squeezed and injected into the airbag (64), thereby expanding the airbag (64) and reinforcing the cable (8) through its own expansion force. When the rotating drum (31) rotates, the tooth block (71) is driven to move toward the socket assembly (2) through the guide groove (73), so that the tooth block (71) is stuck in the gear plate (23), thereby reinforcing the socket assembly (2).

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