A parallel moving mechanism with labor-saving opening and closing

Abstract

This application relates to the technical field of furniture cabinet doors, and particularly to a parallel movement mechanism with labor-saving opening and closing, including a cabinet body module and translation modules located on both sides of the cabinet body module respectively. The translation module includes a support mechanism, a mounting mechanism, a support link, and a stabilizing link. The support mechanism is fixedly arranged at the top of the cabinet body, the mounting mechanism is fixedly arranged at the bottom of the cabinet door. One end of the support link is connected to the output end of the support mechanism, the other end of the support link is connected to the mounting mechanism, one end of the stabilizing link is connected to the stabilizing end of the support mechanism, the other end of the stabilizing link is connected to the mounting mechanism, and a synchronization module is connected between the stabilizing links of the two translation modules to make the two translation modules act synchronously. This application can occupy less space during the upward opening process of the cabinet door, thereby improving the convenience of opening the cabinet door and facilitating the installation and application of the storage cabinet in a limited space.

Description

Technical Field

[0001] This application relates to the technical field of furniture cabinet doors, and particularly to a parallel movement mechanism with labor-saving opening and closing. Background Art

[0002] In the furniture industry, in order to save the installation space of furniture / adapt to the application scenarios of special parts, the cabinet doors of lockers are set in the form of upward opening, and an upward support structure is provided between the cabinet doors and the cabinet body so that the cabinet doors can automatically maintain the open state when they are opened upward.

[0003] For example, a furniture support system that can be embedded and installed disclosed in the patent with the publication number CN118087986A has the top of the cabinet door hinged to the top of the cabinet body, the support module is embedded in the middle of the cabinet body, and the connecting rod module is connected between the support module in the middle of the cabinet body and the middle of the cabinet door; when the cabinet door is opened upward, the support module forms a supporting effect on the cabinet door through the connecting rod module to prevent the cabinet door from turning downward under its own gravity and returning to the closed state, thus facilitating the access to items.

[0004] However, for the relatively long cabinet doors configured for some lockers with relatively high heights, the space occupied during the upward opening process of the cabinet doors is relatively large, resulting in poor convenience for opening the cabinet doors, and even making it difficult to install and apply the lockers in a limited space. Summary of the Invention

[0005] In order to reduce the space occupied during the upward opening process of the cabinet door, improve the convenience of opening the cabinet door, and facilitate the installation and application of the locker in a limited space, this application provides a parallel movement mechanism with labor-saving opening and closing.

[0006] The above object of this application is achieved through the following technical solutions:

[0007] A parallel movement mechanism with labor-saving opening and closing includes: a cabinet body module, the cabinet body module includes a cabinet body and a cabinet door; a translation module, there are two sets of translation modules, and the two sets of translation modules are respectively located on both sides of the cabinet body module. The translation module includes a support mechanism, an installation mechanism, a support connecting rod, and a stable connecting rod. The support mechanism is fixedly arranged on the top of the cabinet body, the installation mechanism is fixedly arranged on the bottom of the cabinet door, one end of the support connecting rod is connected to the output end of the support mechanism, the other end of the support connecting rod is connected to the installation mechanism, one end of the stable connecting rod is connected to the stable end of the support mechanism, the other end of the stable connecting rod is connected to the installation mechanism, and a parallelogram structure is always formed among the support mechanism, the installation mechanism, the support connecting rod, and the stable connecting rod so that the cabinet door always remains parallel to the cabinet body during the upward opening process; a synchronization module, the synchronization module is connected between the stable connecting rods of the two sets of translation modules to make the two sets of translation modules act synchronously.

[0008] Optionally, an installation groove adapted to be embedded with the support mechanism is provided at the top of the cabinet body, and a locking mechanism adapted to be snap-connected with the installation groove is provided on the support mechanism; the locking mechanism includes a rotating member and a clamping member, the rotating member is rotatably arranged on the support mechanism, and the clamping member is fixedly arranged on the rotating member, so that the rotating member drives the clamping member to rotate to be exposed outside the outer wall of the support mechanism or to be retracted inside the support mechanism.

[0009] Optionally, the support mechanism includes an installation component, a sliding component, an eccentric component and a reset component. The installation component is embedded in the installation groove, the locking mechanism is arranged on the installation component, the sliding component is slidably arranged on the installation component, the sliding component is provided with a sliding hole, the eccentric component penetrates through the sliding hole and is rotatably arranged on the installation component, one end of the support link is connected to the eccentric component, one end of the stable link is connected to the installation component, and the reset component is connected between the installation component and the sliding component, so that the eccentric component keeps sliding contact with the sliding inner wall on the side of the sliding hole away from the reset component; the sliding inner wall includes an upward sliding section and a closing sliding section, the connection point of the upward sliding section and the closing sliding section is a commutation point, and the sliding component is in force balance when the eccentric component slides to the commutation point.

[0010] Optionally, an avoidance position is provided at one end of the stable link close to the installation mechanism, and when the cabinet door is turned up and opened to the maximum limit, the top edge of the cabinet body is embedded in the avoidance position.

[0011] Optionally, the synchronization module includes a synchronization rod and two connecting pieces. The two connecting pieces are respectively fixedly arranged at one end of the two stable links close to the installation mechanism. The two connecting pieces are both provided with connecting grooves, and both ends of the synchronization rod are respectively embedded in the two connecting grooves.

[0012] Optionally, the synchronization rod includes a linkage rod, two telescopic rods and two clearance elimination mechanisms. One ends of the two telescopic rods are respectively embedded in the two connecting grooves, the other ends of the two telescopic rods are respectively slidably clamped at both ends of the linkage rod, and the two clearance elimination mechanisms are respectively arranged inside the two telescopic rods, and the clearance elimination mechanism is used to eliminate the fitting clearance between the telescopic rod and the connecting groove and between the telescopic rod and the linkage rod.

[0013] Optionally, the clearance elimination mechanism includes a first propulsion block, a second propulsion block, a central shaft, and a rotation assembly. An installation cavity is provided inside the telescopic rod. The telescopic rod is provided with a movable hole corresponding to the fitting clearance between the telescopic rod and the connection groove. The central shaft is rotatably arranged inside the installation cavity. The first propulsion block is threadedly connected to the central shaft. The first propulsion block is fixedly provided with a gasket. The gasket passes through the movable hole and is inserted into the fitting clearance between the telescopic rod and the connection groove. The second propulsion block is threadedly connected to the central shaft. The second propulsion block is fixedly provided with an outwardly expanding frustum. One end of the telescopic rod is slidably clamped to the linkage rod and is provided with an outwardly expanding slot, so that one end of the telescopic rod slidably clamped to the linkage rod has the function of elastic expansion. The rotation assembly is arranged between the telescopic rod and the connecting piece, and the rotation assembly is used to drive the central shaft to rotate.

[0014] Optionally, the rotation assembly includes a transmission shaft, a driving bevel gear, a driven bevel gear, and a rotating shaft. The transmission shaft is rotatably arranged in the telescopic rod, and both ends of the transmission shaft respectively extend outwards from the inner wall and the outer wall of the telescopic rod. The driving bevel gear is fixedly arranged at the inner end of the transmission shaft. The driven bevel gear is fixedly arranged on the central shaft, and the driving bevel gear and the driven bevel gear are meshed with each other. The connecting piece is provided with an avoidance groove for avoiding the outer end of the transmission shaft. The connecting piece is provided with a rotation hole aligned with the transmission shaft. The rotating shaft is movably arranged in the rotation hole. A cross groove is arranged at the outer end of the rotating shaft. A hexagonal column is arranged at the inner end of the rotating shaft. A hexagonal groove adapted to be inserted into the hexagonal column is arranged at the outer end of the transmission shaft. The connecting piece is provided with a magnet magnetically matched with the rotating shaft, so that the rotating shaft always has a tendency to disengage from the hexagonal groove and is used to limit the rotating shaft from disengaging from the rotation hole.

[0015] Optionally, the gasket is inserted into the fitting clearance between the telescopic rod and the connection groove and abuts against the outer end of the transmission shaft.

[0016] In summary, the present application includes at least one of the following beneficial technical effects:

[0017] For a locker with a relatively high height, the cabinet body and the cabinet door are connected and installed through the translation module, so that the cabinet door covers the opening on the front side of the cabinet body. During the process of the cabinet door being turned up and opened, due to the limitation of the translation module (a parallelogram structure is always formed among the support mechanism, the installation mechanism, the support link, and the stable link), the actual movement path of the cabinet door during the process of being turned up and opened is approximately a circular motion around the support mechanism, so that the distance between the cabinet door and the cabinet body during the process of being turned up and opened is relatively small, that is, the space occupied by the cabinet door during the process of being turned up and opened is small, thereby improving the convenience of opening the cabinet door and facilitating the installation and application of the locker in a limited space. Description of the Drawings

[0018] Figure 1 It is a three-dimensional view of the overall structure of the first embodiment of the present application.

[0019] Figure 2 It is an exploded view of the overall structure of the first embodiment of the present application.

[0020] Figure 3 It is a front view of the cabinet module in the closed state in the first embodiment of the present application.

[0021] Figure 4 It is a front view of the cabinet module during the opening process in the first embodiment of the present application.

[0022] Figure 5 It is a front view of the cabinet module in the fully open state in the first embodiment of the present application.

[0023] Figure 6 It is a three-dimensional view of the locking mechanism in the first embodiment of the present application.

[0024] Figure 7 It is a front view of the support mechanism in the first embodiment of the present application.

[0025] Figure 8 It is a three-dimensional view of the sliding component in the first embodiment of the present application.

[0026] Figure 9 It is a cross-sectional view of the synchronizing rod in the second embodiment of the present application.

[0027] Figure 10 is Figure 9 a partial enlarged view of

[0028] Figure 11 It is a cross-sectional view of the rotating component in the using state in the second embodiment of the present application.

[0029] Description of reference numerals: 1. Cabinet module; 11. Cabinet body; 12. Cabinet door; 13. Installation groove; 2. Translation module; 21. Support mechanism; 211. Installation component; 212. Sliding component; 213. Eccentric component; 214. Reset component; 22. Installation mechanism; 23. Support link; 24. Stabilizing link; 241. Avoidance position; 25. Locking mechanism; 251. Rotating part; 252. Clamping part; 3. Synchronization module; 31. Synchronization rod; 32. Connecting part; 33. Connecting groove; 4. Sliding hole; 41. Sliding inner wall; 411. Upward sliding section; 412. Closing sliding section; 413. Reversing point; 51. Linking rod; 52. Telescopic rod; 53. Clearance elimination mechanism; 531. First pushing block; 532. Second pushing block; 533. Central axis; 534. Rotating component; 5341. Transmission shaft; 5342. Driving bevel gear; 5343. Driven bevel gear; 5344. Rotating shaft; 5345. Avoidance groove; 5346. Rotating hole; 5347. Hexagonal column; 5348. Hexagonal groove; 5349. Magnet; 535. Installation cavity; 536. Moving hole; 537. Gasket; 538. Expanding frustum; 539. Expanding slot. Detailed implementation mode

[0030] The following is a further detailed description of this application in conjunction with the attached Figures 1 to 11 drawings.

[0031] Embodiment 1:

[0032] This application discloses a parallel moving mechanism with labor-saving opening and closing.

[0033] Refer to Figures 1 - 8, the parallel movement mechanism with labor-saving opening and closing includes a cabinet body module 1, a translation module 2, and a synchronization module 3. Among them, the cabinet body module 1 includes a cabinet body 11 and a cabinet door 12. The cabinet body 11 is provided with an opening at the front side, and the cabinet door 12 covers the opening at the front side of the cabinet body 11; two sets of translation modules 2 are configured. The two sets of translation modules 2 are respectively located on both sides of the cabinet body module 1. The translation module 2 specifically includes a support mechanism 21, a mounting mechanism 22, a support connecting rod 23, and a stabilizing connecting rod 24. The support mechanism 21 is fixedly arranged on the top of the cabinet body 11 by an inlay fixing method. The mounting mechanism 22 is fixedly arranged on the bottom of the cabinet door 12 by a bolt fixing method. One end of the support connecting rod 23 is connected to the output end of the support mechanism 21, and the other end of the support connecting rod 23 is connected to the bottom of the mounting mechanism 22. One end of the stabilizing connecting rod 24 is connected to the stabilizing end of the support mechanism 21, and the other end of the stabilizing connecting rod 24 is connected to the top of the mounting mechanism 22. And a parallelogram structure is always formed among the support mechanism 21, the mounting mechanism 22, the support connecting rod 23, and the stabilizing connecting rod 24, so that the cabinet door 12 always remains parallel to the cabinet body 11 during the upward opening process; one set of synchronization module 3 is configured. The synchronization module 3 is connected between the stabilizing connecting rods 24 of the two sets of translation modules 2, so that the two sets of translation modules 2 in a parallelogram structure can move synchronously, thereby improving the stability during the upward opening process of the cabinet door 12.

[0034] For a locker with a relatively high height, the cabinet body 11 and the cabinet door 12 are connected and installed through the translation module 2, so that the cabinet door 12 covers the opening at the front side of the cabinet body 11; during the upward opening process of the cabinet door 12, due to the limitation of the translation module 2 (a parallelogram structure is always formed among the support mechanism 21, the mounting mechanism 22, the support connecting rod 23, and the stabilizing connecting rod 24), the actual movement path of the cabinet door 12 during the upward opening process is approximately a circular motion around the support mechanism 21, so that the distance between the cabinet door 12 and the cabinet body 11 during the upward opening process is relatively small, that is, the space occupied by the cabinet door 12 during the upward opening process is small, thereby improving the convenience of opening the cabinet door 12 and facilitating the installation and application of the locker in a limited space.

[0035] In the above, the support mechanism 21 is fixedly arranged on the top of the cabinet body 11 by an inlay fixing method, which is specifically shown in this embodiment as:

[0036] An installation groove 13 adapted to be embedded with the support mechanism 21 is provided at the top of the cabinet body 11. The inner contour of the installation groove 13 is adapted to the outer contour of the support mechanism 21. By adjusting the designed depth of the installation groove 13, the outer side wall of the support mechanism 21 is flush with the inner side wall of the cabinet body 11, thereby reducing the space occupied by the translation module 2 inside the cabinet module 1. On this basis, the support mechanism 21 is provided with a locking mechanism 25 adapted to be snap-connected with the installation groove 13. The locking mechanism 25 specifically includes a rotating member 251 and a snap-connecting member 252. The rotating member 251 is of a hollow columnar structure. The rotating member 251 is rotatably arranged on the support mechanism 21. The snap-connecting member 252 is of a cam structure. The snap-connecting member 252 is fixedly arranged on the outer periphery of the rotating member 251. And the support mechanism 21 is provided with a condensation groove adapted to be embedded with the snap-connecting member 252, so that the snap-connecting member 252 can rotate with the rotating member 251 to be exposed around the support mechanism 21, or the snap-connecting member 252 can be condensed inside the support mechanism 21 with the rotating member 251. When the support mechanism 21 is embedded inside the installation groove 13, the rotating member 251 is rotated by a tool to drive the snap-connecting member 252 to rotate and be exposed around the support mechanism 21, so that the snap-connecting member 252 is embedded into the inner wall of the installation groove 13 to form a snap-connecting effect, thereby realizing the stable placement of the support mechanism 21 inside the installation groove 13. If the cabinet body 11 is made of a hard metal material, a snap-connecting groove adapted to be snap-connected with the snap-connecting member 252 needs to be provided on the inner wall of the installation groove 13 to realize the stable placement of the support mechanism 21 inside the installation groove 13.

[0037] In the above, the support mechanism 21 can form a support effect on the cabinet door 12 through the support link 23, which is convenient for forming a support effect on the cabinet door 12 when the cabinet door 12 is turned up and opened to a predetermined angle, preventing the cabinet door 12 from shaking and returning to the closed state under its own gravity and keeping the cabinet door 12 in the open state. Specifically, in this embodiment, it is shown as:

[0038] The support mechanism 21 specifically includes an installation component 211, a sliding component 212, an eccentric component 213, and a reset component 214. Among them, the outer contour of the installation component 211 is adapted to the inner contour of the installation groove 13, that is, the installation component 211 is embedded in the installation groove 13, and the locking mechanism 25 is arranged on the installation component 211, that is, the locking mechanism 25 enables the installation component 211 to be stably placed inside the installation groove 13. The sliding component 212 is a metal plate-like structure, and the sliding component 212 is slidably arranged in a preset guide rail inside the installation component 211, so that the sliding component 212 can slide along the length direction of the installation component 211. In addition, a sliding hole 4 is provided through the sliding component 212. One side of the sliding hole 4 has an asymmetric arc-shaped inner wall, and the other side has a rectangular inner wall. The eccentric component 213 is an eccentric wheel structure, and the eccentric component 213 is arranged through the sliding hole 4 and is rotatably arranged on the installation component 211. The eccentric component 213 can come into contact with a part of the arc-shaped inner wall of the sliding hole 4 during rotation, and the sliding component 212 can be pushed to slide forward along the length direction of the installation component 211 by the protruding edge of the eccentric component 213. The rotation axis of the eccentric component 213 also penetrates the outer side wall of the installation component 211, providing an installation basis for the support link 23, that is, one end of the support link 23 is fixedly arranged on the eccentric component 213. The reset component 214 is arranged between the installation component 211 and the sliding component 212, and is used to pull the sliding component 212 to slide backward along the length direction of the installation component 211, and the direction in which the reset component 214 drives the sliding component 212 to slide is opposite to the direction in which the eccentric component 213 drives the sliding component 212 to slide, so that the eccentric component 213 maintains sliding contact with the sliding hole 4. One side of the sliding hole 4 in sliding contact with the eccentric component 213 is provided with an asymmetric arc-shaped inner wall, that is, the side of the sliding hole 4 away from the reset component 214 is defined as the sliding inner wall 41, and the eccentric component 213 actually maintains sliding contact with the sliding inner wall 41. The sliding inner wall 41 of the sliding hole 4 specifically includes an upward sliding section 411 and a closing sliding section 412. The upward sliding section 411 and the closing sliding section 412 are smoothly connected, and the connection point of the upward sliding section 411 and the closing sliding section 412 is the commutation point 413. When the eccentric component 213 slides to the commutation point 413, the sliding component 212 is in force balance. That is, after the eccentric component 213 slides past the commutation point 413, the sliding component 212 is subjected to the pulling force of the reset component 214, and the sliding component 212 continues to slide along the length direction of the installation component 211 until the eccentric component 213 continues to rotate until the protruding edge of the eccentric component 213 is located at the end of the upward sliding section 411 / closing sliding section 412. The upward sliding section 411 corresponds to the open state of the cabinet module 1, and the cabinet door 12 remains stably open at this position. The closing sliding section 412 corresponds to the closed state of the cabinet module 1, and the cabinet door 12 remains stably closed at this position.

[0039] The specific structure of the support mechanism 21 can also refer to the embedded furniture support system with publication number CN118087986A proposed by the applicant in 2024, which will not be repeated here; when the cabinet door 12 is flipped up and opened to a predetermined angle, the support mechanism 21 forms a supporting effect on the cabinet door 12 through the support link 23 to prevent the cabinet door 12 from shaking and restoring to a closed state under the action of its own gravity, so that the cabinet door 12 remains in an open state, which can achieve a labor-saving effect.

[0040] In this embodiment, in order to lift the cabinet door 12, it is flipped upward and opened to the maximum extent.

[0041] In a first aspect, the planes where the support link 23 and the stabilizing link 24 are located are staggered with each other. Specifically, the support link 23 and the stabilizing link 24 can be staggered with each other by extending the length of the stabilizing end of the support mechanism 21 .

[0042] Secondly, an avoidance position 241 is provided at one end of the stabilizing link 24 close to the mounting mechanism 22 . Specifically, the arc-shaped avoidance position 241 can be formed by setting one end of the stabilizing link 24 close to the mounting mechanism 22 into an arc-shaped structure.

[0043] When the cabinet door 12 is flipped up and opened to nearly the maximum limit, since the planes where the support link 23 and the stabilizing link 24 are located are staggered with each other, and since the stabilizing link 24 avoids the top edge of the cabinet body 11, the above two points enable the cabinet door 12 to have the conditions to continue to flip up and open until the cabinet door 12 is flipped up and opened to the maximum limit. At this time, the top edge of the cabinet body 11 is embedded in the avoidance position 241, and the support link 23 and the stabilizing link 24 are partially overlapped.

[0044] In the above, the synchronization module 3 can keep two groups of translation modules 2 in synchronous motion to improve the stability of the cabinet door 12 during the upward opening process, which is specifically manifested as follows in this embodiment:

[0045] The synchronization module 3 specifically includes a synchronization rod 31 and two groups of connecting parts 32. The two groups of connecting parts 32 are respectively fixedly arranged at one end of the two groups of stabilizing links 24 close to the mounting mechanism 22. The connecting parts 32 and the stabilizing links 24 are fixed by screws. The two groups of connecting parts 32 are provided with connecting grooves 33 on the side close to each other. The connecting grooves 33 are square groove structures. The synchronization rod 31 is a metal round tube structure. The synchronization rod 31 is a fixed length. Both ends of the synchronization rod 31 are arranged to be rectangular structures adapted to the connecting grooves 33, so that the two ends of the synchronization rod 31 are respectively embedded in the two groups of connecting grooves 33. During the upward flipping and opening process of the cabinet door 12, the two groups of stabilizing links 24 rotate synchronously with the help of the synchronization module 3, so that the two groups of parallelogram-shaped translation modules 2 can move synchronously, thereby improving the stability of the cabinet door 12 during the upward flipping and opening process.

[0046] Implementation principle: For a storage cabinet with a relatively high height, the cabinet body 11 and the cabinet door 12 are connected and installed through the translation module 2, so that the cabinet door 12 covers the opening on the front side of the cabinet body 11; during the upward flipping and opening process of the cabinet door 12, since the cabinet door 12 is restricted by the translation module 2 (the supporting mechanism 21, the installation mechanism 22, the supporting connecting rod 23 and the stabilizing connecting rod 24 always form a parallelogram structure), the actual moving path of the cabinet door 12 during the upward flipping and opening process is close to a circular motion around the supporting mechanism 21, so that the distance between the cabinet door 12 and the cabinet body 11 during the upward flipping and opening process is relatively small, that is, the space occupied by the cabinet door 12 during the upward flipping and opening process is small, thereby The convenience of opening the improved cabinet door 12 is convenient for installation and application of the storage cabinet in a limited space; and in the process of the cabinet door 12 being flipped up and opened, the two groups of stabilizing links 24 rotate synchronously with the help of the synchronization module 3, so that the two groups of translation modules 2 with a parallelogram structure can move synchronously, thereby achieving the stability of the improved cabinet door 12 in the process of being flipped up and opened; in addition, when the cabinet door 12 is flipped up and opened to a near maximum limit, since the planes where the supporting links 23 and the stabilizing links 24 are located are staggered with each other, and since the stabilizing links 24 avoid the top edge of the cabinet body 11, the above two points enable the cabinet door 12 to have the conditions to continue to flip up and open until the cabinet door 12 is flipped up and opened to a maximum limit.

[0047] Embodiment 2:

[0048] Reference Figures 9 - 11 The difference between this embodiment and the first embodiment is that the synchronization rod 31 in this embodiment is of adjustable length, so as to adapt to the installation of cabinet modules 1 of different widths.

[0049] In this embodiment, the synchronization rod 31 specifically includes a linkage rod 51, two groups of telescopic rods 52 and two groups of gap elimination mechanisms 53; wherein, the linkage rod 51 and the two groups of telescopic rods 52 are all plum blossom circular tube structures, the linkage rod 51 and the two groups of telescopic rods 52 are coaxially arranged, the two groups of telescopic rods 52 are close to each other at one end (defined as the inner end) and are respectively slidably embedded in the two ends of the linkage rod 51, and the two groups of telescopic rods 52 are far away from each other at one end (defined as the outer end) and are both configured as rectangular tube structures adapted to the connecting groove 33, and the outer ends of the two groups of telescopic rods 52 are respectively embedded in the two groups of connecting grooves 33; the two groups of gap elimination mechanisms 53 are respectively arranged inside the two groups of telescopic rods 52, and the gap elimination mechanisms 53 are used to eliminate the matching gap between the telescopic rod 52 and the connecting groove 33, and between the telescopic rod 52 and the linkage rod 51, which is beneficial for the two groups of stabilizing connecting rods 24 to rotate synchronously with the help of the synchronization module 3, thereby improving the stability of the cabinet door 12 during the upward flipping and opening process.

[0050] In the above, the gap elimination mechanism 53 is used to eliminate the matching gap between the telescopic rod 52 and the connecting groove 33, and between the telescopic rod 52 and the linkage rod 51, which is specifically manifested as follows in this embodiment:

[0051] The gap elimination mechanism 53 specifically includes a first propulsion block 531, a second propulsion block 532, a central axis 533 and a rotating assembly 534; wherein the telescopic rod 52 of the plum blossom tube structure is provided with an installation cavity 535 inside, and the telescopic rod 52 is provided with two groups of symmetrically arranged movable holes 536 at the matching gap position between the telescopic rod 52 and the connecting groove 33, that is, the connection between the plum blossom tube structure section and the rectangular tube structure section of the telescopic rod 52 is provided with two groups of symmetrically arranged movable holes 536; the central axis 533 is coaxially arranged with the telescopic rod 52, and the central axis 533 is rotatably arranged in the installation cavity 535 of the telescopic rod 52 through a preset micro bearing seat, the first propulsion block 531 is threadedly connected to the central axis 533, the outer periphery of the first propulsion block 531 and the inner periphery of the telescopic rod 52 are slidably engaged, and the first propulsion block 531 is fixedly provided with two groups of gaskets 5 37, the thickness of the two groups of gaskets 537 gradually becomes thinner in the direction away from the first propulsion block 531, forming the function of an inclined wedge block, the two groups of gaskets 537 respectively penetrate the two groups of movable holes 536, and the two groups of gaskets 537 are inserted into the matching gap between the telescopic rod 52 and the connecting groove 33; the second propulsion block 532 is threadedly connected to the central axis 533, and the outer periphery of the second propulsion block 532 and the inner periphery of the telescopic rod 52 are also slidably connected, and the second propulsion block 532 is fixedly provided with an outward expansion cone 538, and the cross-section of the outward expansion cone 538 gradually increases in the direction away from the second propulsion block 532, and the inner end of the telescopic rod 52 is provided with a plurality of groups of evenly distributed outward expansion slots 539, so that the inner end of the telescopic rod 52 has the function of elastic expansion; the rotating component 534 is arranged between the telescopic rod 52 and the connecting member 32, and the rotating component 534 is used to drive the central axis 533 to rotate.

[0052] When the rotating assembly 534 drives the central axis 533 to rotate forward, the first pushing block 531 and the second pushing block 532 both move in the direction close to the connecting piece 32. The first pushing block 531 pushes the gasket 537 to pass through the movable hole 536 and insert into the matching gap between the telescopic rod 52 and the connecting groove 33. The second pushing block 532 pulls the outward expansion cone 538 to embed into the inner end of the telescopic rod 52, so that the inner end of the telescopic rod 52 elastically expands and presses against the inner periphery of the linkage rod 51. At this time, the matching gap between the telescopic rod 52 and the connecting groove 33 is eliminated by the gasket 537, and the matching gap between the telescopic rod 52 and the linkage rod 51 is eliminated as much as possible due to the elastic expansion of the inner end of the telescopic rod 52, so that the connecting piece 32, the linkage rod 51, and the two groups of telescopic rods 52 can keep synchronous rotation as much as possible, which is ultimately beneficial to the synchronous rotation of the two groups of stabilizing connecting rods 24 with the help of the synchronization module 3, thereby improving the stability of the cabinet door 12 during the upward opening process.

[0053] In the above, the rotating assembly 534 is used to drive the central shaft 533 to rotate, which is specifically manifested as follows in this embodiment:

[0054] The rotating assembly 534 includes a transmission shaft 5341, a driving bevel gear 5342, a driven bevel gear 5343 and a rotating shaft 5344; wherein the transmission shaft 5341 is rotatably arranged on the rectangular tube structure section of the telescopic rod 52, and the two ends of the transmission shaft 5341 extend and are exposed to the inner wall and the outer wall of the telescopic rod 52 respectively, the driving bevel gear 5342 is fixedly arranged on the inner side end of the transmission shaft 5341, and the driven bevel gear 5343 is fixedly arranged on the central axis 533, and the driving bevel gear 5342 and the driven bevel gear 5343 are meshed; since the transmission shaft 5341 is exposed on the outer wall of the telescopic rod 52, the connecting member 32 is provided with an avoidance groove 5345 for avoiding the outer end of the transmission shaft 5341, and the connecting member 32 is also provided with a relative alignment with the transmission shaft 5341 The rotating hole 5346, the rotating shaft 5344 and the rotating hole 5346 are adapted to each other, the rotating shaft 5344 is movably arranged in the rotating hole 5346, the outer end of the rotating shaft 5344 is provided with a cross slot for easy rotation with a screwdriver, the inner end of the rotating shaft 5344 is provided with a hexagonal column 5347, the outer end of the transmission shaft 5341 is provided with a hexagonal groove 5348 which is plugged and adapted to the hexagonal column 5347, the connecting piece 32 is also provided with a magnet 5349 which is magnetically matched with the rotating shaft 5344, the magnet 5349 is a permanent magnet 5349, the magnet 5349 can adsorb the rotating shaft 5344 so that the rotating shaft 5344 always has a tendency to disengage from the hexagonal groove 5348, and is used to limit the rotating shaft 5344 from disengaging from the rotating hole 5346.

[0055] Because the avoidance groove 5345 can avoid the transmission shaft 5341, the outer end of the telescopic rod 52 can be smoothly embedded in the connecting groove 33, and after the outer end of the telescopic rod 52 is completely embedded in the connecting groove 33, the transmission shaft 5341 and the rotating shaft 5344 are aligned. At this time, first use a screwdriver to push the rotating shaft 5344 to break away from the adsorption of the magnet 5349 until the rotating shaft 5344 moves to the hexagonal column 5347 and the hexagonal groove 5348 are connected, and then use a screwdriver to rotate the rotating shaft 5344. The rotating shaft 5344 drives the bevel gear transmission through the transmission shaft 5341, and the rotating component 534 can be used to drive the central shaft 533 to rotate.

[0056] In this embodiment, the gasket 537 is inserted into the fitting gap between the telescopic rod 52 and the connecting groove 33 and abuts against the outer end of the transmission shaft 5341. Friction is formed between the gasket 537 and the transmission shaft 5341, making it difficult for the transmission shaft 5341 to rotate autonomously, thereby improving the structural stability.

[0057] Principle of implementation: During the process of the rotating assembly 534 driving the central shaft 533 to rotate forward, both the first pushing block 531 and the second pushing block 532 move in the direction close to the connecting member 32. The first pushing block 531 pushes the gasket 537 through the moving hole 536 and inserts it into the fitting gap between the telescopic rod 52 and the connecting groove 33. The second pushing block 532 pulls the outward-expanded frustum 538 into the inner end of the telescopic rod 52, causing the inner end of the telescopic rod 52 to expand elastically and abut against the inner circumference of the linkage rod 51. At this time, the fitting gap between the telescopic rod 52 and the connecting groove 33 is eliminated by the gasket 537, and the fitting gap between the telescopic rod 52 and the linkage rod 51 is minimized due to the elastic expansion of the inner end of the telescopic rod 52. Thus, the connecting member 32, the linkage rod 51, and the two telescopic rods 52 can maintain synchronous rotation as much as possible, which ultimately helps the two stable connecting rods 24 to rotate synchronously with the help of the synchronization module 3, improving the stability during the upward turning and opening process of the cabinet door 12. During the process of the rotating assembly 534 driving the central shaft 533 to rotate reversely, both the first pushing block 531 and the second pushing block 532 move in the direction away from the connecting member 32. The first pushing block 531 drives the gasket 537 to withdraw from the fitting gap between the telescopic rod 52 and the connecting groove 33, and the second pushing block 532 pushes the outward-expanded frustum 538 out of the inner end of the telescopic rod 52, enabling the length between the telescopic rod 52 and the linkage rod 51 to be adjusted slidably.

[0058] The embodiments of this specific implementation manner are all preferred embodiments of this application, and do not limit the protection scope of this application accordingly. Therefore, all equivalent changes made according to the structure, shape, and principle of this application should be covered within the protection scope of this application.

Claims

1. A parallel movement mechanism with labor-saving opening and closing, characterized in that: include: A cabinet module (1), the cabinet module (1) comprising a cabinet body (11) and a cabinet door (12); A translation module (2), wherein the translation module (2) is configured with two groups, and the two groups of translation modules (2) are respectively located on both sides of the cabinet module (1), and the translation module (2) comprises a support mechanism (21), a mounting mechanism (22), a support link (23) and a stabilizing link (24), wherein the support mechanism (21) is fixedly arranged on the top of the cabinet body (11), and the mounting mechanism (22) is fixedly arranged on the bottom of the cabinet door (12), one end of the support link (23) is connected to the output end of the support mechanism (21), and the other end of the support link (23) is connected to the mounting mechanism (22), one end of the stabilizing link (24) is connected to the stabilizing end of the support mechanism (21), and the other end of the stabilizing link (24) is connected to the mounting mechanism (22), and a parallelogram structure is always formed between the support mechanism (21), the mounting mechanism (22), the support link (23) and the stabilizing link (24), so that the cabinet door (12) is always kept parallel to the cabinet body (11) during the process of flipping up and opening; A synchronization module (3), the synchronization module (3) is connected between the stabilizing links (24) of the two sets of translation modules (2) to enable the two sets of translation modules (2) to move synchronously; The synchronization module (3) comprises a synchronization rod (31) and two groups of connecting members (32), the two groups of connecting members (32) are respectively fixedly arranged on one end of two groups of stabilizing connecting rods (24) close to the mounting mechanism (22), the two groups of connecting members (32) are both provided with connecting grooves (33), and the two ends of the synchronization rod (31) are respectively embedded in the two groups of connecting grooves (33); The synchronization rod (31) comprises a linkage rod (51), two groups of telescopic rods (52) and two groups of gap elimination mechanisms (53); one end of the two groups of telescopic rods (52) is respectively embedded in the two groups of connecting grooves (33); the other ends of the two groups of telescopic rods (52) are respectively slidably connected to the two ends of the linkage rod (51); the two groups of gap elimination mechanisms (53) are respectively arranged inside the two groups of telescopic rods (52); and the gap elimination mechanisms (53) are used to eliminate the matching gap between the telescopic rod (52) and the connecting groove (33), and between the telescopic rod (52) and the linkage rod (51); The gap elimination mechanism (53) comprises a first propulsion block (531), a second propulsion block (532), a central shaft (533) and a rotating assembly (534); a mounting cavity (535) is arranged inside the telescopic rod (52); a movable hole (536) is arranged on the telescopic rod (52) at a position corresponding to the matching gap between the telescopic rod (52) and the connecting groove (33); the central shaft (533) is rotatably arranged inside the mounting cavity (535); the first propulsion block (531) is threadedly connected to the central shaft (533); a gasket (537) is fixedly arranged on the first propulsion block (531); and the gasket (537) penetrates The movable hole (536) is inserted into the matching gap between the telescopic rod (52) and the connecting groove (33); the second propulsion block (532) is threadedly connected to the central shaft (533), and the second propulsion block (532) is fixedly provided with an outward expansion cone (538); one end of the telescopic rod (52) that is slidably connected to the linkage rod (51) is provided with an outward expansion groove (539), so that the telescopic rod (52) that is slidably connected to the linkage rod (51) has the function of elastic expansion; the rotating assembly (534) is arranged between the telescopic rod (52) and the connecting piece (32), and the rotating assembly (534) is used to drive the central shaft (533) to rotate.

2. A parallel movement mechanism with labor-saving opening and closing according to claim 1, characterized in that: The top of the cabinet body (11) is provided with a mounting groove (13) embedded and matched with the supporting mechanism (21); the supporting mechanism (21) is provided with a locking mechanism (25) snap-fitted and matched with the mounting groove (13); the locking mechanism (25) comprises a rotating member (251) and a snap-fit ​​member (252); the rotating member (251) is rotatably arranged on the supporting mechanism (21); the snap-fit ​​member (252) is fixedly arranged on the rotating member (251), so that the rotating member (251) drives the snap-fit ​​member (252) to rotate until it is exposed on the outer wall of the supporting mechanism (21) or is shrunk inside the supporting mechanism (21).

3. A parallel movement mechanism with labor-saving opening and closing according to claim 2, characterized in that: The support mechanism (21) comprises a mounting assembly (211), a sliding assembly (212), an eccentric assembly (213) and a reset assembly (214); the mounting assembly (211) is embedded in the mounting groove (13); the locking mechanism (25) is arranged on the mounting assembly (211); the sliding assembly (212) is slidably arranged on the mounting assembly (211); the sliding assembly (212) is provided with a sliding hole (4); the eccentric assembly (213) is penetrated through the sliding hole (4) and is rotatably arranged on the mounting assembly (211); one end of the support connecting rod (23) is connected to the eccentric assembly (213); the stabilizing member (25) is provided with a locking member (25) and a locking ... One end of the connecting rod (24) is connected to the mounting assembly (211), and the reset assembly (214) is connected between the mounting assembly (211) and the sliding assembly (212), so that the eccentric assembly (213) maintains sliding contact with the sliding inner wall (41) of the sliding hole (4) away from the reset assembly (214); the sliding inner wall (41) includes an upward sliding section (411) and a closed sliding section (412), and the connection point between the upward sliding section (411) and the closed sliding section (412) is a reversing point (413), and the sliding assembly (212) is subjected to balanced force when the eccentric assembly (213) slides to the reversing point (413).

4. A parallel movement mechanism with labor-saving opening and closing according to claim 1, characterized in that: The stabilizing link (24) is provided with an avoidance position (241) at one end close to the mounting mechanism (22), and when the cabinet door (12) is flipped up and opened to the maximum extent, the top edge of the cabinet body (11) is embedded in the avoidance position (241).

5. The parallel movement mechanism with labor-saving opening and closing according to claim 1, characterized in that: The rotating assembly (534) comprises a transmission shaft (5341), a driving bevel gear (5342), a driven bevel gear (5343) and a rotating shaft (5344); the transmission shaft (5341) is rotatably arranged on the telescopic rod (52), and the two ends of the transmission shaft (5341) extend and are exposed on the inner wall and the outer wall of the telescopic rod (52), respectively; the driving bevel gear (5342) is fixedly arranged on the inner side end of the transmission shaft (5341), and the driven bevel gear (5343) is fixedly arranged on the central axis (533), and the driving bevel gear (5342) and the driven bevel gear (5343) are meshed with each other; the connecting member (32) is provided with an avoidance groove (5345) for avoiding the outer side end of the transmission shaft (5341); The connecting member (32) is provided with a rotating hole (5346) aligned with the transmission shaft (5341); the rotating shaft (5344) is movably arranged in the rotating hole (5346); the outer end of the rotating shaft (5344) is provided with a cross groove; the inner end of the rotating shaft (5344) is provided with a hexagonal column (5347); the outer end of the transmission shaft (5341) is provided with a hexagonal groove (5348) pluggable and compatible with the hexagonal column (5347); the connecting member (32) is provided with a magnet (5349) magnetically matched with the rotating shaft (5344) so ​​that the rotating shaft (5344) always has a tendency to disengage from the hexagonal groove (5348) and is used to limit the rotating shaft (5344) from disengaging from the rotating hole (5346).

6. A parallel movement mechanism with labor-saving opening and closing according to claim 5, characterized in that: The gasket (537) is inserted into the matching gap between the telescopic rod (52) and the connecting groove (33) and abuts against the outer end of the transmission shaft (5341).

Images