Double-lock unlocking and locking mechanism

Abstract

The invention relates to the technical field of automobile parts, and discloses a double-lock unlocking and locking mechanism which comprises a double-lock long plate, two double-lock short plates and two sets of locking assemblies, the double-lock long plate and the double-lock short plates are oppositely arranged, a cavity is formed between the double-lock long plate and the double-lock short plates, the two double-lock short plates and the locking assemblies are symmetrically distributed about the axis of the double-lock long plate, and the double-lock long plate and the double-lock short plates are oppositely arranged. The locking assembly is installed in the cavity. According to the double-lock unlocking and locking mechanism, reliable unlocking and locking functions can be provided in different operation states such as ascending, rotating, unfolding and downward pressing storage. The unlocking mechanism for the small table plate of the automobile can accurately realize locking and unlocking of ascending, rotating, unfolding, pressing and storing operations of the small table plate. Through cooperation of all the components, reliability and stability of operation are ensured, accidental unlocking in the vehicle running process is avoided, and use safety is guaranteed. The operation is convenient, the ergonomic design is met, and the user operation is easy.

Description

Technical Field

[0001] The present invention relates to the technical field of automotive parts, and specifically to a double-lock unlocking and locking mechanism. Background Art

[0002] In order to meet the needs of automotive users for the convenience and stability of movable mechanisms such as small tables during movement, and to achieve the unlocking and locking functions of automotive small tables in different operating states, including locking and unlocking operations for operations such as rising, rotating, unfolding, pressing and storing.

[0003] To solve a series of problems existing in the existing small table unlocking mechanism. In the existing automotive small tables, the unlocking mechanism usually has a single function and a simple structure, making it difficult to meet the complex operating requirements of multifunctional automotive small tables and the requirements for collision use safety, etc. Some traditional unlocking mechanisms can only achieve basic locking and unlocking functions, and have deficiencies in terms of stability, reliability and operating convenience. For example, accidental unlocking or unsmooth unlocking may occur during vehicle driving, and at the same time, it cannot cooperate well with the multiple function operations of the small table, such as the linked unlocking and locking of operations such as rising, rotating, unfolding and pressing and storing, affecting the user experience and the overall performance of the small table. Summary of the Invention

[0004] In order to meet the needs of automotive users for the convenience and stability of small tables, and to achieve the unlocking and locking functions of automotive small tables in different operating states, including locking and unlocking operations for operations such as rising, rotating, unfolding, pressing and storing. To solve the problems existing in the existing small table unlocking and locking mechanism and meet the user's needs for convenience and stability.

[0005] The present invention provides the following technical solution: A double-lock unlocking and locking mechanism, including a double-lock long plate, two double-lock short plates and two groups of locking components. The double-lock long plate and the double-lock short plates are arranged opposite to each other, forming a cavity in the middle. The two double-lock short plates and the locking components are all symmetrically distributed about the axis of the double-lock long plate. The locking components are installed in the cavity;

[0006] The locking components include a first core member, a second core member, two side rivets, a trigger cylindrical shaft, a soft rubber, an inner rivet, a first hollow rivet, a second spring, a first spring and a second hollow rivet;

[0007] A washer is sleeved on the outer surface of the second hollow rivet;

[0008] The second core component is rotatably installed between the double-lock long plate and the double-lock short plate through a first hollow rivet. One end of the second spring is connected to the double-lock long plate, and the other end is connected to the second core component. The first core component is rotatably installed between the double-lock long plate and the double-lock short plate through a second hollow rivet. One end of the first spring is connected to the first core component, and the other end is connected to the double-lock long plate.

[0009] Preferably, two long plate outer rivet installation holes, two first spring long plate installation openings, four soft rubber installation holes, two second spring long plate installation openings, two inner rivet long plate installation holes, two second hollow rivet long plate installation holes, two long plate U-shaped grooves, and two first hollow rivet long plate installation holes are formed on the outer surface of the double-lock long plate.

[0010] Preferably, short plate outer rivet installation holes, short plate U-shaped grooves, short plate inner rivet installation holes, short plate first hollow rivet installation holes, and short plate second hollow rivet installation holes are formed on the outer surfaces of the two double-lock short plates.

[0011] The two-side rivets are installed between the long plate outer rivet installation holes and the short plate outer rivet installation holes. The inner rivets are installed between the inner rivet long plate installation holes and the short plate inner rivet installation holes. The first hollow rivet is installed between the first hollow rivet long plate installation hole and the short plate second hollow rivet installation hole. The second hollow rivet is installed between the second hollow rivet long plate installation hole and the short plate second hollow rivet installation hole. The long plate U-shaped groove corresponds to the short plate U-shaped groove.

[0012] Preferably, a wide U-shaped groove, a first spring buckle position, a second hollow rivet installation hole, and a narrow U-shaped groove are formed on the outer surface of the first core component. A V-shaped opening is formed on the outer surface of the first core component. The inner wall of the V-shaped opening is set as the first core component concave surface. A first core component tangent point part is provided on the outer surface of the first core component.

[0013] The two-side rivets are located in the wide U-shaped groove. The second hollow rivet penetrates through the second hollow rivet installation hole. The narrow U-shaped groove corresponds to the long plate U-shaped groove.

[0014] Preferably, a second core component convex circular surface, a second core component end, a second core component outer circular part, and a second core component straight surface are provided on the outer surface of the second core component. A first hollow rivet core component installation hole is formed on the outer surface of the second core component. A protrusion is provided on the outer surface of the second core component, and the surface of the protrusion is arc-shaped and set as the second spring buckle position.

[0015] The second core component convex circular surface corresponds to the first core component concave surface. The first hollow rivet penetrates through the first hollow rivet core component installation hole.

[0016] Preferably, the two-side rivets include a two-side rivet outer circle part and a two-side rivet end part, and the diameter of the two-side rivet outer circle part is larger than that of the two-side rivet end part;

[0017] The inner rivets include an inner rivet outer circle part and an inner rivet end part, and the diameter of the inner rivet outer circle part is larger than that of the inner rivet end part.

[0018] Preferably, the trigger cylindrical shaft includes a cylindrical shaft body, a hexagonal hole groove is opened at one end of the cylindrical shaft body, and a trigger cylindrical shaft spring is installed at the other end of the cylindrical shaft body.

[0019] Preferably, the soft glue includes a soft glue surface and a soft glue block, and the soft glue is installed on the soft glue installation hole.

[0020] Preferably, the second spring includes a second spring head end and a second spring tail end, the second spring tail end is installed in the second spring buckle position, and the second spring head end is installed in the second spring long plate installation opening;

[0021] The first spring includes a first spring head end and a first spring tail end, the first spring tail end is installed in the first spring buckle position, and the first spring head end is installed in the first spring long plate installation opening.

[0022] Preferably, the first hollow rivet is in a multi-layer stepped shape, and is successively set as a first hollow rivet layer, a second hollow rivet layer, a third hollow rivet layer, and a fourth hollow rivet layer according to the diameter size, and a hollow rivet opening is provided on the outer surface of the fourth hollow rivet layer.

[0023] Compared with the prior art, the present invention provides a double-lock unlocking and locking mechanism, which has the following beneficial effects:

[0024] The double-lock unlocking and locking mechanism can provide reliable unlocking and locking functions for different operating states such as rising, rotating, unfolding, and pressing and storing. The unlocking mechanism of the car small table board can accurately realize the locking and unlocking of the operations of the small table board rising, rotating, unfolding, and pressing and storing. Through the cooperation of each component, the reliability and stability of the operation are ensured, accidental unlocking during vehicle driving is avoided, and the use safety is guaranteed. The operation is convenient, in line with the ergonomic design, and the user can operate easily. The structure is durable and easy to maintain, improving the performance of the small table board and meeting the user's requirements for convenience and stability.

[0025] The double-lock unlocking and locking mechanism uses two trigger cylindrical shafts as the triggering conditions for linkage locking. When the double-lock is in the unlocked state, when the two trigger cylindrical shafts slide into the narrow U-shaped groove through axial movement, a buckle is formed between the convex circular surface of the second core part and the concave surface of the first core part. Then, through the first core part and the second core part, it is installed on the first hollow rivet as the rotation center. When the maximum inscribed point (the tangent point of the first core part) of the first core part is tangent to the outer circular part of the second core part, the same rotation fulcrums receive force from each other, transmitting the force to the center to achieve locking and uniform force distribution. The double-lock effectively prevents unilateral rotation.

[0026] For the double-lock unlocking and locking mechanism, when the double-lock is in the locked state, the triggering condition for linkage unlocking is the end of the second core part. Since all the core parts and spring pins are in a mirror state when looking at both sides with the double-lock separated in the middle, depending on the customer's requirements, this mechanism can achieve unlocking on both sides with only one triggering condition, and there is also one triggering condition on each side, that is, the two triggering conditions unlock separately.

[0027] When pressing down on the end of the second core part together, the end of the second core part triggers the lever principle, making it more labor-saving while achieving unlocking. The lever principle causes the convex circular surface of the second core part and the concave surface of the first core part to be in the movement trajectory. When the two core parts enter their respective movement trajectories and reach the divergence point, unlocking is achieved. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 is a three-dimensional view of the double-lock according to the present application.

[0029] Figure 2 is a three-dimensional view of the structure of the double-lock with the short board removed according to the present application.

[0030] Figure 3 is a three-dimensional view of the double-lock unlocking according to the present application.

[0031] Figure 4 is a three-dimensional view of the double-lock locking according to the present application.

[0032] Figure 5 is a three-dimensional view of the long board of the double-lock according to the present application.

[0033] Figure 6 is a three-dimensional view of the short board of the double-lock according to the present application.

[0034] Figure 7 is a three-dimensional view of the first core part according to the present application.

[0035] Figure 8 is a three-dimensional view of the second core part according to the present application.

[0036] Figure 9 is a three-dimensional view of the rivets on both sides according to the present application.

[0037] Figure 10 is the three-dimensional view of the cylindrical shaft according to the present application.

[0038] Figure 11 is the three-dimensional view of the soft rubber according to the present application.

[0039] Figure 12 is the three-dimensional view of the washer according to the present application.

[0040] Figure 13 is the three-dimensional view of the inner rivet according to the present application.

[0041] Figure 14 is the three-dimensional view of the hollow rivet according to the present application.

[0042] Figure 15 is the three-dimensional view of the second spring according to the present application.

[0043] Figure 16 is the three-dimensional view of the first spring according to the present application.

[0044] Figure 17 is according to the present application Figure 1 back view.

[0045] Figure 18 is the three-dimensional view of the moving tangent point according to the present application.

[0046] In the figure:

[0047] 100, double-lock long board; 100-1, long board outer rivet mounting hole; 100-2, first spring long board mounting opening; 100-3, soft rubber mounting hole; 100-4, second spring long board mounting opening; 100-5, inner rivet long board mounting hole; 100-6, second hollow rivet long board mounting hole; 100-7, long board U-shaped groove; 100-8, first hollow rivet long board mounting hole;

[0048] 200 double-lock short board; 200-1, short board outer rivet mounting hole; 200-2, short board U-shaped groove; 200-3, short board inner rivet mounting hole; 200-4, first hollow rivet mounting hole; 200-5, short board second hollow rivet mounting hole;

[0049] 300, first core component; 300-1, wide U-shaped groove; 300-2, first core component tangent point part; 300-3, first spring buckle position; 300-4, second hollow rivet mounting hole; 300-5, first core component concave surface; 300-6, narrow U-shaped groove;

[0050] 400. Second core component; 400-1. Convex circular surface of the second core component; 400-2. Mounting hole for the first hollow rivet core component; 400-3. End of the second core component; 400-4. Second spring catch position; 400-5. Straight surface of the second core component; 400-6. Outer circular part of the second core component;

[0051] 500. Rivets on both sides; 500-1. Ends of the rivets on both sides; 500-2. Outer circular parts of the rivets on both sides;

[0052] 600. Trigger cylindrical shaft; 600-1. Cylindrical shaft body; 600-2. Spring of the trigger cylindrical shaft;

[0053] 700. Soft glue; 700-1. Soft glue block; 700-2. Soft glue surface;

[0054] 800. Washer;

[0055] 900. Inner rivet; 900-1. Outer circular part of the inner rivet; 900-2. Ends of the inner rivet;

[0056] 1000. First hollow rivet; 1000-1. First layer of the first hollow rivet; 1000-2. Second layer of the first hollow rivet; 1000-3. Third layer of the first hollow rivet; 1000-4. Fourth layer of the first hollow rivet; 1000-5. Opening of the hollow rivet;

[0057] 11. Second spring; 1100-1. Head end of the second spring; 1100-2. Tail end of the second spring;

[0058] 1200. First spring; 1200-1. Head end of the first spring; 1200-2. Tail end of the first spring;

[0059] 13. Second hollow rivet; A. Tangent point. Detailed implementation method

[0060] Please refer to Figure 1-18 , a double-lock unlocking and locking mechanism, including a double-lock long plate 100, two double-lock short plates 200 and two sets of locking components. The double-lock long plate 100 and the double-lock short plates 200 are arranged oppositely, forming a cavity in the middle. The two double-lock short plates 200 and the locking components are symmetrically distributed about the axis of the double-lock long plate 100, and the locking components are installed in the cavity;

[0061] The locking components include a first core component 300, a second core component 400, rivets on both sides 500, a trigger cylindrical shaft 600, soft glue 700, inner rivets 900, a first hollow rivet 1000, a second spring 1100, a first spring 1200 and a second hollow rivet 1300;

[0062] A washer 800 is sleeved on the outer surface of the second hollow rivet 1300;

[0063] The second core component 400 is rotatably installed between the double-lock long plate 100 and the double-lock short plate 200 through the first hollow rivet 1000. One end of the second spring 1100 is connected to the double-lock long plate 100, and the other end is connected to the second core component 400. The first core component 300 is rotatably installed between the double-lock long plate 100 and the double-lock short plate 200 through the second hollow rivet 1300. One end of the first spring 1200 is connected to the first core component 300, and the other end is connected to the double-lock long plate 100.

[0064] Two long plate outer rivet installation holes 100-1, two first spring long plate installation openings 100-2, four soft rubber installation holes 100-3, two second spring long plate installation openings 100-4, two inner rivet long plate installation holes 100-5, two second hollow rivet long plate installation holes 100-6, two long plate U-shaped grooves 100-7 and two first hollow rivet long plate installation holes 100-8 are provided on the outer surface of the double-lock long plate 100.

[0065] Two short plate outer rivet installation holes 200-1, short plate U-shaped grooves 200-2, short plate inner rivet installation holes 200-3, short plate first hollow rivet installation holes 200-4 and short plate second hollow rivet installation holes 200-5 are provided on the outer surfaces of the two double-lock short plates 200;

[0066] The two-side rivets 500 are installed between the long plate outer rivet installation hole 100-1 and the short plate outer rivet installation hole 200-1. The inner rivets 900 are installed between the inner rivet long plate installation hole 100-5 and the short plate inner rivet installation hole 200-3. The first hollow rivet 1000 is installed between the first hollow rivet long plate installation hole 100-8 and the short plate second hollow rivet installation hole 200-5. The second hollow rivet 1300 is installed between the second hollow rivet long plate installation hole 100-6 and the short plate second hollow rivet installation hole 200-5. The long plate U-shaped groove 100-7 corresponds to the short plate U-shaped groove 200-2.

[0067] A wide U-shaped groove 300-1, a first spring buckle position 300-3, a second hollow rivet installation hole 300-4 and a narrow U-shaped groove 300-6 are provided on the outer surface of the first core component 300. A v-shaped opening is provided on the outer surface of the first core component 300. The inner wall of the v-shaped opening is the first core component concave surface 300-5. A first core component tangent point part 300-2 is provided on the outer surface of the first core component 300;

[0068] The two-side rivets 500 are located in the wide U-shaped groove 300-1. The second hollow rivet 1300 passes through the second hollow rivet installation hole 300-4. The narrow U-shaped groove 300-6 corresponds to the long plate U-shaped groove 100-7.

[0069] The outer surface of the second core member 400 is provided with a second core member convex circular surface 400-1, a second core member end 400-3 and a second core member straight surface 400-5. A first hollow rivet core member mounting hole 400-2 is formed on the outer surface of the second core member 400. A protrusion is provided on the outer surface of the second core member 400, and the outer surface of the protrusion is arc-shaped, which is set as the second spring buckle position 400-4;

[0070] The second core member convex circular surface 400-1 corresponds to the first core member concave surface 300-5, and the first hollow rivet 100 penetrates through the first hollow rivet core member mounting hole 400-2.

[0071] For the double-lock locking mechanism part, first Figure 3 is the unlocked state of the double lock, Figure 4 is the locked state of the double lock. Through two trigger cylindrical shafts 600 as the trigger conditions for linkage locking, when the double lock is in the unlocked state, when the two trigger cylindrical shafts 600 slide into the narrow U-shaped groove 300-6 through axial movement, the second core member convex circular surface 400-1 and the first core member concave surface 300-5 form a buckle. Then, through the first core member 300 and the second core member 400, it is installed on the first hollow rivet 1000 as the rotation center. When the maximum inscribed point of the first core member, the first core member tangent part 300-2, is tangent to the outer circle part 400-6 of the second core member, the same rotation fulcrum is stressed, and the force is transmitted to the center to make it lock and the force is evenly distributed. The double lock effectively prevents unilateral rotation.

[0072] The two-side rivets 500 include two-side rivet outer circle parts 500-2 and two-side rivet end parts 500-1. The diameter of the two-side rivet outer circle parts 500-2 is greater than that of the two-side rivet end parts 500-1;

[0073] The inner side rivets 900 include inner side rivet outer circle parts 900-1 and inner side rivet end parts 900-2. The diameter of the inner side rivet outer circle parts 900-1 is greater than that of the inner side rivet end parts 900-2.

[0074] Embodiment 2: The difference between this embodiment and Embodiment 1 is that, among them, the trigger cylindrical shaft 600 includes a cylindrical shaft body 600-1. One end of the cylindrical shaft body 600-1 is provided with a hexagonal hole groove, and a trigger cylindrical shaft spring 600-2 is installed at the other end of the cylindrical shaft body 600-1.

[0075] For the double-lock unlocking mechanism part, when the double lock is in the locked state, the trigger condition for linkage unlocking is the second core member end 400-3. Since when looking at all the core members and spring pins from the middle of the double lock to both sides, they are in a mirror state, depending on the customer's requirements, this mechanism can achieve unlocking on both sides with only one trigger condition, and there is one trigger condition on both sides, that is, the two trigger conditions are unlocked separately;

[0076] When the second core component end 400-3 is pressed down together, the second core component end 400-3 triggers the lever principle, which makes unlocking more labor-saving. The lever principle makes the convex surface 400-1 of the second core component and the concave surface 300-5 of the first core component in the motion trajectory. When the two core components enter their own motion trajectories respectively, they reach the divergence point to achieve unlocking.

[0077] Under the preload of the first spring 1200, the first core component 300 tends to rotate to both sides, and then reaches the outer circumference 500-2 of the rivets on both sides to stop the core component from rotating. Under the preload of the second spring 1100, the second core component 400 tends to rotate to both sides, and reaches the inner rivet outer circumference 900-1 to stop it. The unlocked state is realized.

[0078] Embodiment 3: The difference between this embodiment and embodiment 1 is that, the soft glue 700 includes a soft glue surface 700 - 2 and a soft glue block 700 - 1 , and the soft glue 700 is installed on the soft glue installation hole 100 - 3 .

[0079] The soft rubber 700 serves as the silencer part between the double lock and the single lock. The soft rubber block 700-1 is injected on the soft rubber mounting hole by injection molding. The soft rubber 700 mainly functions to trigger the impact of the cylindrical shaft 600 on the mechanism. The soft rubber surface 700-2 has a certain buffering effect and prevents abnormal noise caused by collision between metal and metal. The two sides of the soft rubber eliminate the gap between the core parts in the two plates to prevent the core parts from shaking with abnormal noise, which greatly improves the service life of the lock function and the comfort of use.

[0080] Embodiment 4: The difference between this embodiment and embodiment 1 is that, the second spring 1100 includes a second spring head end 1100-1 and a second spring tail end 1100-2, the second spring tail end 1100-2 is installed in the second spring buckle position 400-4, and the second spring head end 1100-1 is installed in the second spring long plate installation opening 100-4;

[0081] The first spring 1200 includes a first spring head end 1200-1 and a first spring tail end 1200-2. The first spring tail end 1100-2 is installed in the first spring buckle position 300-3, and the first spring head end 1100-1 is installed in the first spring long plate installation opening 100-2.

[0082] After locking, the wide U-shaped groove 300-1 is secondarily limited by the outer circular parts 500-2 of the two-sided rivets, preventing the possibility of unlocking. The first end 1200-1 of the first spring is installed into the first spring long plate installation opening 100-2, and the second end 1200-2 of the first spring is installed onto the first spring buckling position 300-3 of the double-lock long plate 100. After installation, the pre-tightening force of the first spring 1200 causes the first core part 300 to have a pre-tightening force tendency in the open state, greatly reducing the sway of the first core part 300 on the mechanism and avoiding the possibility of self-locking.

[0083] The second end 1100-2 of the second spring is installed onto the second spring buckling position 400-4, and the first end 1100-1 of the second spring is buckled onto the second spring long plate installation opening 100-4, causing the second core part 400 to have a pre-tightening force tendency to rotate to both sides, greatly reducing the sway and self-locking possibility of the second core part 400 on the mechanism. Looking at all the core parts and spring pins from the middle of the double-lock to both sides, they are in a mirror state, so it can achieve the function of synchronously locking one side or both sides with extremely high synchronism and achieve the cooperative locking state.

[0084] Embodiment 5: The first hollow rivet 1000 is in a multi-layer stepped shape, and is successively set as the first hollow rivet layer 1000-1, the second hollow rivet layer 1000-2, the third hollow rivet layer 1000-3, and the fourth hollow rivet layer 1000-4 according to the diameter size. The outer surface of the fourth hollow rivet layer 1000-4 is provided with a hollow rivet opening 1000-5.

[0085] The first hollow rivet 1000 is fixed between the double-lock long plate 1 and the double-lock short plate 2 by installing one end inside the center of the core part and limiting the other end by riveting process, making the mechanism parts more firm. The first hollow rivet layer 1000-1, the second hollow rivet layer 1000-2, and the third hollow rivet layer 1000-3 respectively play a limiting role with the plate and the core part as the rotation point of the core part. The inner hole of the first hollow rivet uses M4 thread to install screws, and the double-lock and single-lock can be installed into the sheet metal and other mechanism parts, making it widely used. The existence of the hollow rivet reduces the sway amount, enhances the firmness, and stabilizes the motion mechanism.

[0086] In summary, the double-lock unlocking and locking mechanism can provide reliable unlocking and locking functions for different operating states such as rising, rotating, unfolding, and pressing down for storage, etc. The unlocking mechanism of the automotive small table board can accurately achieve the locking and unlocking of the operations of the small table board rising, rotating, unfolding, and pressing down for storage. Through the cooperation of various components, the reliability and stability of the operation are ensured, accidental unlocking during vehicle driving is avoided, and the use safety is guaranteed. The operation is convenient, conforms to the ergonomic design, and the user can operate easily. The structure is durable, easy to maintain, improves the performance of the small table board, and meets the user's requirements for convenience and stability.

[0087] With the two trigger cylindrical shafts 600 as the trigger conditions for interlocking locking, when the double lock is in the unlocked state, the two trigger cylindrical shafts 600 slide into the narrow U-shaped grooves 300-6 through axial movement. At this time, the convex circular surface 400-1 of the second core part forms a buckle with the concave surface 300-5 of the first core part. Then, through the first core part 300 and the second core part 400, it is installed on the first hollow rivet 1000 as the rotation center. When the maximum inscribed point of the first core part, the tangent point part 300-2 of the first core part, is tangent to the outer circular part 400-6 of the second core part, the same rotation fulcrum is stressed mutually, and the force is transmitted to the center to make it lock and the force is evenly distributed. The double lock effectively prevents unilateral rotation.

[0088] When the double lock is in the locked state, the trigger condition for interlocking unlocking is the end 400-3 of the second core part. Since all the core parts and spring pins are in a mirror state when looking at both sides from the middle of the double lock, depending on the customer's requirements, this mechanism can achieve unlocking on both sides with only one trigger condition, and there is also one trigger condition on each side, that is, the two trigger conditions are unlocked separately.

[0089] When pressing down the end 400-3 of the second core part together, the end 400-3 of the second core part triggers the lever principle, making it more labor-saving while unlocking. The lever principle makes the convex circular surface 400-1 of the second core part and the concave surface 300-5 of the first core part in the movement track. When the two core parts enter their respective movement tracks and reach the divergence point, unlocking is achieved.

Claims

1. A double-lock unlocking and locking mechanism, comprising a double-lock long plate (100), two double-lock short plates (200) and two groups of locking components, characterized in that: The double-lock long board (100) and the double-lock short board (200) are arranged oppositely, forming a cavity in the middle. The two double-lock short boards (200) and the locking component are all symmetrically distributed about the axis of the double-lock long board (100), and the locking component is installed in the cavity. The locking component includes a first core component (300), a second core component (400), two side rivets (500), a trigger cylindrical shaft (600), a soft rubber (700), an inner rivet (900), a first hollow rivet (1000), a second spring (1100), a first spring (1200), and a second hollow rivet (1300). A washer (800) is sleeved on the outer surface of the second hollow rivet (1300). The second core component (400) is rotatably installed between the double-lock long board (100) and the double-lock short board (200) through the first hollow rivet (1000). One end of the second spring (1100) is connected to the double-lock long board (100), and the other end is connected to the second core component (400). The first core component (300) is rotatably installed between the double-lock long board (100) and the double-lock short board (200) through the second hollow rivet (1300). One end of the first spring (1200) is connected to the first core component (300), and the other end is connected to the double-lock long board (100).

2. The double-lock unlocking and locking mechanism according to claim 1, characterized in that: Two long board outer rivet installation holes (100-1), two first spring long board installation openings (100-2), four soft rubber installation holes (100-3), two second spring long board installation openings (100-4), two inner rivet long board installation holes (100-5), two second hollow rivet long board installation holes (100-6), two long board U-shaped grooves (100-7), and two first hollow rivet long board installation holes (100-8) are formed on the outer surface of the double-lock long board (100).

3. The double-lock unlocking and locking mechanism according to claim 2, characterized in that: On the outer surfaces of the two double-lock short boards (200), there are short board outer rivet installation holes (200-1), short board U-shaped grooves (200-2), short board inner rivet installation holes (200-3), short board first hollow rivet installation holes (200-4), and short board second hollow rivet installation holes (200-5). The two side rivets (500) are installed between the long board outer rivet installation hole (100-1) and the short board outer rivet installation hole (200-1). The inner rivet (900) is installed between the inner rivet long board installation hole (100-5) and the short board inner rivet installation hole (200-3). The first hollow rivet (1000) is installed between the first hollow rivet long board installation hole (100-8) and the short board second hollow rivet installation hole (200-5). The second hollow rivet (1300) is installed between the second hollow rivet long board installation hole (100-6) and the short board second hollow rivet installation hole (200-5). The long board U-shaped groove (100-7) corresponds to the short board U-shaped groove (200-2).

4. The double-lock unlocking and locking mechanism according to claim 3, characterized in that: The outer surface of the first core member (300) is provided with a wide U-shaped groove (300-1), a first spring buckle position (300-3), a second hollow rivet mounting hole (300-4), and a narrow U-shaped groove (300-6). The outer surface of the first core member (300) is provided with a V-shaped opening, the inner wall of the V-shaped opening is set as the first core member concave surface (300-5), and the outer surface of the first core member (300) is provided with a first core member tangent point portion (300-2); The two side rivets (500) are located in the wide U-shaped groove (300-1), the second hollow rivet (1300) passes through the second hollow rivet mounting hole (300-4), and the narrow U-shaped groove (300-6) corresponds to the long plate U-shaped groove (100-7).

5. The double-lock unlocking and locking mechanism according to claim 4, characterized in that: The outer surface of the second core member (400) is provided with a second core member convex circular surface (400-1), a second core member end (400-3), a second core member outer circular portion (400-6), and a second core member straight surface (400-5). The outer surface of the second core member (400) is provided with a first hollow rivet core member mounting hole (400-2). The outer surface of the second core member (400) is provided with a protrusion, and the surface of the protrusion is arc-shaped, which is set as the second spring buckle position (400-4); The second core member convex circular surface (400-1) corresponds to the first core member concave surface (300-5), and the first hollow rivet (100) passes through the first hollow rivet core member mounting hole (400-2).

6. The double-lock unlocking and locking mechanism according to claim 5, characterized in that: The two side rivets (500) include a two side rivets outer circular portion (500-2) and a two side rivets end portion (500-1), and the diameter of the two side rivets outer circular portion (500-2) is larger than that of the two side rivets end portion (500-1); The inner side rivet (900) includes an inner side rivets outer circular portion (900-1) and an inner side rivets end portion (900-2), and the diameter of the inner side rivets outer circular portion (900-1) is larger than that of the inner side rivets end portion (900-2).

7. The double-lock unlocking and locking mechanism according to claim 1, characterized in that: The trigger cylindrical shaft (600) includes a cylindrical shaft body (600-1). One end of the cylindrical shaft body (600-1) is provided with a hexagonal hole groove, and the other end of the cylindrical shaft body (600-1) is installed with a trigger cylindrical shaft spring (600-2).

8. A double-lock unlocking and locking mechanism according to claim 2, characterized in that: The soft rubber (700) includes a soft rubber surface (700-2) and a soft rubber block (700-1), and the soft rubber (700) is installed on the soft rubber mounting hole (100-3).

9. The double-lock unlocking and locking mechanism according to claim 5, characterized in that: The second spring (1100) includes a second spring head end (1100-1) and a second spring tail end (1100-2). The second spring tail end (1100-2) is installed in the second spring buckle position (400-4), and the second spring head end (1100-1) is installed in the second spring long plate mounting opening (100-4); The first spring (1200) includes a first spring head end (1200-1) and a first spring tail end (1200-2). The first spring tail end (1100-2) is installed in the first spring snap position (300-3), and the first spring head end (1100-1) is installed in the first spring long plate mounting opening (100-2).

10. A double-lock unlocking and locking mechanism according to claim 1, characterized in that: The first hollow rivet (1000) is multi-layer stepped, and is successively set as a first hollow rivet layer (1000-1), a second hollow rivet layer (1000-2), a third hollow rivet layer (1000-3), and a fourth hollow rivet layer (1000-4) according to the diameter size. A hollow rivet opening (1000-5) is provided on the outer surface of the fourth hollow rivet layer (1000-4).

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