Octagonal shower cabinet assembly table

Abstract

The application discloses a bathroom cabinet assembling table of octagonal rattan, and belongs to the field of furniture combination workbench, which comprises a water tank, an inclined plate, a water absorbing part, and a pulling part slidingly connected to the inclined plate; the water absorbing part comprises two squeezing plates slidingly connected to the lower part of the inclined plate and two turnover plates slidingly connected between the squeezing plates; the turnover plates are provided with water absorbing sponges on the two sides; a plurality of short racks are formed on the inclined plate; when the two turnover plates slide to the limit position of approaching each other, the two water absorbing sponges opposite to each other abut against the octagonal rattan for water absorption; when the two turnover plates slide to the limit position of moving away from each other, the water absorbing sponges after water absorption rotate to be opposite to the squeezing plates. The application can remove the water droplets adhered to the surface, can straighten the octagonal rattan, needs to be adjusted only once without reciprocating adjustment, can be assembled by only one person without the assistance of other people to stabilize the octagonal rattan, reduces the labor work amount, and thus improves the production efficiency.

Description

Technical Field

[0001] This invention belongs to the field of furniture assembly workbenches, and more specifically, relates to an octagonal rattan door bathroom cabinet assembly table. Background Technology

[0002] Chinese patent document CN200966581Y discloses a bathroom cabinet, including a support frame and a storage cabinet. The storage cabinet has drawers and a cabinet, and its outer surface is decorated with a patterned panel woven from rattan. The patterned panel is attached to the outer surface of the storage cabinet by embedding, pasting, or snapping. The rattan-woven patterned panel can also be made of bamboo strips. This utility model has a simple and reasonable structure, is easy to manufacture, and, due to the use of rattan or bamboo strips woven into decorative artistic patterns, has a beautiful and elegant appearance with a classic charm. Furthermore, because rattan is relatively inexpensive, this product has the advantage of being both high-quality and inexpensive compared to most similar products on the market. Chinese patent document CN112757237A discloses a wooden furniture assembly workbench, relating to the technical field of furniture assembly workbench technology. It includes a support plate with multiple support columns fixedly connected to its lower surface. A display plate is fixedly connected to its upper surface, and a U-shaped plate is fixedly connected to its front end. A screw is threaded onto the U-shaped plate, and a pressure plate is rotatably connected to one end of the screw. Two symmetrically arranged sliding rods are fixedly connected to the front end of the pressure plate, with the other ends of the sliding rods penetrating the U-shaped plate. A positioning plate is connected to the front end of the display plate via an adjustment mechanism, and a screw is threaded onto the positioning plate. This invention allows drawings to be positioned and fixed on the display plate, and then the furniture to be assembled can be placed on the assembly table for assembly. This facilitates the operator's assembly according to the drawings, improving both the ease of use and efficiency of furniture assembly.

[0003] In actual use, the above solution requires soaking and moisturizing the octagonal rattan weaving, and removing the attached water during installation. Therefore, the above solution is not suitable for assembling octagonal rattan door cabinets. Summary of the Invention

[0004] The technical problem to be solved by the present invention is to provide an octagonal rattan door bathroom cabinet assembly table, which can soak the octagonal rattan, absorb water during the installation process, and squeeze out the water after the water absorption is completed.

[0005] An octagonal rattan door bathroom cabinet assembly table of the present invention includes a water tank for soaking octagonal rattan, an inclined plate fixedly connected to the upper end of the water tank, a water-absorbing part disposed at the lower part of the inclined plate, and a stretching part slidably connected to the inclined plate for pulling the octagonal rattan upward.

[0006] The water-absorbing part includes two symmetrically arranged water-squeezing plates slidably connected to the lower part of the inclined plate, and two symmetrically arranged flip plates slidably connected between the two water-squeezing plates, which can respectively drive the adjacent water-squeezing plates to slide; water-absorbing sponges are respectively installed on both sides of the flip plates; and multiple short toothed racks are formed on the inclined plate, which are respectively unidirectionally connected to the flip plates.

[0007] When the two flipping plates slide to their extreme positions close to each other, the two opposite absorbent sponges abut against the octagonal rattan weave to absorb water, while the other two absorbent sponges abut against the squeezing plate to be squeezed dry.

[0008] When the two flipping plates slide to their extreme positions of distance from each other, the flipping plates rotate half a turn, and the water-absorbing sponge rotates to face the water-squeezing plate after absorbing water, and the water-squeezed sponge rotates to face the octagonal rattan weaving.

[0009] As a further improvement of the present invention, the water-absorbing part includes two driving parts respectively disposed at both ends of the flip plate; the driving part includes a linkage rack longitudinally slidably connected to the inclined plate, two connecting rods at both ends respectively rotatably connected to the linkage rack and the corresponding flip plate, a transmission shaft rotatably connected to the inclined plate and capable of drivingly connecting with the linkage rack, and a switching rack slidably connected to the inclined plate and capable of drivingly connecting with the transmission shaft; a linkage spring is provided between the linkage rack and the inclined plate for causing the linkage rack to slide upward; when the stretching part slides downward, the switching rack slides downward and drives the transmission shaft to rotate, causing the two flip plates to slide to a limit position far apart from each other, and then the switching rack slides downward until it is no longer drivingly connected with the transmission shaft, and the flip plates slide to a limit position close to each other under the elastic force of the linkage spring.

[0010] When the stretching part slides upward, the switching rack slides upward, and the linkage rack slides upward until it is no longer connected to the drive shaft.

[0011] As a further improvement of the present invention, ratchet gears coaxially arranged with rotating shafts are respectively rotatably connected to both ends of the flip plate; the ratchet gears can be drivenly connected to the corresponding short racks; rectangular blocks are respectively formed at both ends of the flip plate along the rotating shaft of the flip plate; the inclined plate is formed with a plurality of narrow grooves with a width equal to the side length of the rectangular blocks; the inclined plate is formed with a plurality of wide grooves with a width equal to the diagonal length of the rectangular blocks; when the two flip plates are in the extreme position of being close to each other, the rectangular blocks are located in the narrow grooves, and the ratchet gears do not contact the short racks.

[0012] When the two flip plates are at their extreme positions far apart from each other, the rectangular block is located in the wide groove, and the ratchet is connected to the short rack drive.

[0013] As a further improvement of the present invention, the two ends of the flip plate are respectively rotatably connected to a linkage gear with a rotating shaft coaxially arranged with the rotating shaft of the flip plate; the inclined plate is formed with a plurality of long racks respectively connected to the corresponding linkage gears; the two ends of the squeezing plate are respectively formed with squeezing racks connected to the corresponding linkage gears.

[0014] As a further improvement of the present invention, the stretching part includes a housing slidably connected to the inclined plate, two symmetrically arranged movable clamping plates slidably connected to the lower end of the housing, a clamping shaft rotatably connected to the housing and driven by the movable clamping plates, a climbing shaft rotatably connected to the housing and driven by the inclined plate, and a second motor fixedly connected to the housing and capable of driving the clamping shaft and the climbing shaft to rotate respectively.

[0015] When the second motor rotates in the forward direction, the two moving clamps first slide to their extreme positions far apart from each other, and then the outer shell slides downward.

[0016] When the second motor rotates in the opposite direction, the two movable clamping plates slide to their extreme positions close to each other, clamping the octagonal rattan weave, and then the outer shell slides upward.

[0017] As a further improvement of the present invention, the stretching part includes a sector gear rotatably connected to the outer wall of the clamping shaft, a spring fixedly connected at both ends to the sector gear and the clamping shaft respectively, a transmission gear rotatably connected to the housing and driven by the climbing shaft, and a motor gear fixedly connected to the output shaft of the second motor and capable of drivingly connecting with the sector gear; a driven block is formed at a non-central position on the end face of the transmission gear; a driving block is formed at a non-central position on the end face of the motor gear and capable of abutting against the driven block; the elasticity of the spring causes the sector gear to rotate to drively connect with the motor gear.

[0018] As a further improvement of the present invention, a straightening part is provided on the inclined plate between the water absorption part and the stretching part; the straightening part includes two force-adding plates symmetrically arranged and slidably connected to the inclined plate, two elastic clamping plates respectively slidably connected to the force-adding plates and located between the two force-adding plates, a plurality of first springs respectively arranged between the force-adding plates and the elastic clamping plates for moving the two away from each other, and a force-adding column slidably connected to the inclined plate for driving the force-adding plates to slide.

[0019] When the force-adding column is at its upper limit position, the two force-adding plates are at their respective extreme positions, and the octagonal rattan weaving held between the two elastic clamps can slide relative to the elastic clamps.

[0020] When the force-adding column is at its lower limit position, the two force-adding plates are at their respective limit positions close to each other, and the two elastic clamps further clamp the octagonal rattan weave, preventing the octagonal rattan weave from sliding relative to the elastic clamps.

[0021] As a further improvement of the present invention, force-adding columns are formed at both ends of the force-adding plate; a plurality of sliding groove groups are formed on the inclined plate, which are respectively slidably connected to the corresponding force-adding columns; the sliding groove group includes a vertical sliding groove arranged along the sliding direction of the force-adding column and a horizontal sliding groove perpendicular to the sliding direction of the force-adding column and connected to the upper end of the vertical sliding groove; two inclined force-adding inclined grooves are formed at the lower end of the force-adding column, which are respectively slidably connected to the corresponding force-adding columns.

[0022] When the force-adding column is located in the horizontal sliding groove, the force-adding column slides downward, causing the two force-adding plates to slide to their extreme positions close to each other, and the force-adding column slides into the vertical sliding groove.

[0023] When the force-adding column is located in the vertical sliding groove, the force-adding column continues to slide downwards, thereby straightening the octagonal rattan weave between the straightening part and the stretching part.

[0024] As a further improvement of the present invention, a support plate for placing a door frame is slidably connected to the inclined plate; a long shaft for driving the support plate to slide is rotatably connected to the inclined plate; the straightening part includes a transmission plate slidably connected to the inclined plate and driven by the force-applying column, a rack column slidably connected to the transmission plate, and a second spring disposed between the rack column and the transmission plate for moving the two away from each other; a straightening gear is formed at the lower end of the long shaft and driven by the rack column; the support plate pushes the door frame to move while straightening the octagonal rattan weave.

[0025] As a further improvement of the present invention, the end of the support plate away from the door frame is formed with a plurality of driven grooves; a plurality of short shafts are rotatably connected to the inclined plate and are respectively driven and connected to the long shaft; an eccentric shaft is formed on the short shaft and is arranged with its axis parallel to the short shaft and not overlapping, and is slidably connected to the corresponding driven groove; a first motor is fixedly connected to the inclined plate and is driven and connected to the long shaft.

[0026] Compared with the prior art, the beneficial effects of the present invention are as follows: In the initial state, the two force plates are located at the extreme positions far apart from each other, and the first spring has elastic force; the support plate is located at the inner extreme position; the two water-absorbing sponges that are close to each other abut against the octagonal rattan weave, and the two water-absorbing sponges that are far apart from each other are pressed and dehydrated by the water-squeezing plate; the switching rack and the linkage rack are located at the upper extreme position.

[0027] When installing octagonal rattan onto the bathroom cabinet door frame, the rattan needs to be soaked beforehand and kept moist during installation to ensure that the rattan strips do not break. At the same time, water droplets should be prevented from remaining on the surface of the rattan during installation to prevent dust, wood chips, and other substances in the installation environment from mixing with water and forming scale in the gaps of the rattan.

[0028] During assembly, first place the soaked octagonal rattan weaving into a water tank. The water in the tank will keep the rattan weaving moist. Then, pull one end of the rattan weaving upwards and pass it between two absorbent sponges. Next, pry open the elastic clamps and place one end of the rattan weaving between the two elastic clamps, allowing it to extend upwards a certain distance. Release the elastic clamps; the elastic force of the first spring will hold the rattan weaving in place. During this process, adjust the position of the rattan weaving so that the first row of holes at the top is on the same horizontal plane. When installed on the door frame, all rows and columns of holes on the rattan weaving will be linearly aligned, preventing tilting and ensuring a neat appearance after installation. Only one adjustment is needed when placing the rattan weaving; subsequent adjustments are unnecessary when installing multiple door frames, saving time and improving assembly efficiency.

[0029] Then, pressing the "Down" button activates the second motor, causing its gears to rotate forward. This rotation drives the sector gear, which in turn, via a spring, rotates the clamping shaft. The clamping shaft's rotation then rotates the clamping disc, causing the clamping spur to rotate. This rotation, in turn, causes the moving column to slide, pushing the two moving clamping plates to their maximum distance. Continued rotation of the sector gear charges the spring, and it then disconnects from the motor gear drive. The motor rack rotates synchronously, driving the drive block. Continued rotation of the motor gear causes the drive block to collide with the driven block, simultaneously rotating the drive block and driving the transmission gear. This transmission gear drives the delay gear, causing the climbing shaft to rotate forward. The climbing shaft then drives the climbing gear, which slides downward along the climbing rack, causing the stretching section to slide downward. When the stretching section reaches its lower limit, with the octagonal rattan braid extending upward between the two moving clamping plates, pressing the "Down" button again stops the second motor.

[0030] Place the door frame on the support plate and adjust its installation position. Then, press the "Move Up" button. The controller activates the second motor, causing the motor gear to rotate in the opposite direction. This reverse rotation drives the drive block to rotate until it no longer contacts the driven block, while the climbing shaft remains stationary. During this process, the spring's elasticity connects the sector gear to the motor gear. The reverse rotation of the motor gear drives the sector gear to rotate in the opposite direction, causing the two moving clamps to move towards each other to their limit positions, clamping the upper end of the octagonal rattan weave. The motor gear continues to rotate in the opposite direction, causing the spring to recharge in the opposite direction, while simultaneously continuing to rotate in the opposite direction until it no longer connects with the sector gear. Next, the motor gear continues to rotate in the opposite direction, causing the drive block to rotate again until it abuts against the other side of the driven block. This, in turn, synchronously drives the transmission gear to rotate in the opposite direction, causing the stretching section to slide upwards, thus sliding the upper end of the octagonal rattan weave upwards. Water droplets adhering to the octagonal rattan weave, after passing through two absorbent sponges, are absorbed, preventing dust, sawdust, and other debris from the installation environment from mixing with water and forming scale in the gaps of the octagonal rattan weave. When the extension part slides upward to the top of the door frame, press the "Move Up" button again, and the controller will stop the second motor from working.

[0031] Next, pressing the "Push Out" button activates the controller, causing the first motor to rotate the long shaft in the forward direction. This rotation drives the short shaft, which in turn drives the eccentrically mounted shaft. The eccentric shaft then causes the driven groove to slide, pushing the support plate outwards. During this process, the long shaft rotates, causing the straightening gear to rotate. This straightening gear, in turn, drives the rack column to slide. The rack column, through the second spring, drives the transmission plate to slide, i.e., the force-applying inclined groove slides. This sliding groove causes the force-applying column to slide downwards. The downward sliding of the force-applying column causes the force-applying inclined groove to slide. The force-applying inclined groove first causes the two force-applying columns to slide towards each other in the horizontal sliding groove, i.e., the two force-applying plates slide towards each other. The first spring is further compressed, causing the elastic clamp to clamp the octagonal rattan weave. The force-applying column slides further downwards, reaching the vertical sliding groove. The octagonal rattan weave can no longer move relative to the elastic clamp. Driven by the force-applying inclined groove, the force-applying column slides downwards along the vertical sliding groove, subsequently straightening the octagonal rattan weave. The force-applying column can no longer slide downwards. The rotation of the long shaft will further compress the second spring. At the same time, the sliding plate will cause the door frame to slide until it abuts against the octagonal rattan weave. Pressing the "push out" button again will stop the controller from operating the first motor. The octagonal rattan weave can then be attached to the door frame. The tautness of the rattan weave effectively prevents wrinkles during installation, achieving an aesthetically pleasing result. Furthermore, no additional manual assistance is required, reducing labor input and costs.

[0032] After installation, use a utility knife to cut the assembled octagonal rattan weave and discard the scraps. Press the "Pull In" button, and the controller will activate the first motor, causing the long shaft to rotate in the opposite direction. This will slide the support plate inward to its original position, and simultaneously, the reverse rotation of the long shaft will move the two force plates to their extreme positions, with the elastic clamps holding the octagonal rattan weave, although the weave can slide relative to the elastic clamps. Press the "Pull In" button again, and the controller will stop the first motor.

[0033] Finally, press the "Move Down" button again. The controller activates the second motor, causing the motor gear to rotate forward. The two moving clamps slide away from each other to their limit positions, releasing the scrap material. Then, the stretching section slides downward. This downward movement of the stretching section engages with the switching rack, causing it to slide downward as well. The switching spring compresses and stores energy. The downward movement of the switching rack drives the drive shaft to rotate forward. This rotation drives the linkage rack to slide downward, compressing the linkage spring. The downward movement of the linkage rack drives the two connecting rods to rotate away from each other, which in turn drives the two tilting plates to slide away from each other. The sliding of the tilting plates causes the linkage gear to slide synchronously. The sliding of the linkage gear relative to the long rack causes the squeezing rack to slide away from the tilting plate, meaning the squeezing plate slides away from the tilting plate. The sliding of the tilting plate causes the rectangular block to slide, moving from the narrow groove to the wide groove. The ratchet slides to engage with the short rack. Continued sliding of the tilting plate causes the ratchet to rotate half a turn under the drive of the short rack, thus rotating the tilting plate half a turn. The two water-soaked sponges that were originally close to each other rotated to face the wringer, while the two dry water-soaked sponges that were originally far apart rotated to face the octagonal rattan weave.

[0034] Next, the switching rack continues to slide downwards and is no longer connected to the drive shaft. Under the force of the linkage spring, the linkage rack slides upwards to its original position, causing the two flipping plates to slide towards each other until the absorbent sponge and the octagonal rattan braid come into contact. Simultaneously, the two squeezing plates slide towards each other to their original positions, coming into contact with the water-saturated absorbent sponge, thus squeezing out the water. During this process, the ratchet gear, due to its ratchet and pawl mechanism, cannot be driven to rotate by the short rack. When the stretching part drives the octagonal rattan braid upwards again, the switching rack slides upwards to its original position under the force of the switching spring. This upward sliding of the switching rack causes the drive shaft to rotate in the opposite direction, which in turn causes the linkage rack to slide upwards, further causing the squeezing plates to slide closer to the absorbent sponge, further squeezing out the water. The linkage rack is no longer connected to the drive shaft as it slides upwards, and it can also slide downwards under gravity to reconnect with the drive shaft.

[0035] This invention incorporates a motor gear. When the motor gear rotates forward, it first drives two movable clamping plates to slide away from each other to their limit positions. The motor gear continues to rotate, causing the stretching part to slide downwards until the octagonal rattan weave is positioned between the two movable clamping plates. When the motor gear rotates in the reverse direction, it first drives the two movable clamping plates to slide and clamp the octagonal rattan weave. Subsequently, the motor gear continues to rotate, causing the stretching part to slide upwards to the upper end of the door frame. This invention uses only one drive mechanism without adding any new operating steps, thus improving assembly and processing efficiency.

[0036] This invention features a rotating plate. When the two rotating plates slide away from each other, they simultaneously drive a squeezing plate away from the absorbent sponge. This allows the rotating plate to rotate half a turn, turning the water-soaked sponge towards the squeezing plate. Simultaneously, when the two rotating plates slide closer together, the squeezing plate slides to contact the absorbent sponge, dehydrating it. The dry absorbent sponge then contacts the octagonal rattan weave, absorbing any water droplets adhering to it. This prevents dust, sawdust, and other environmental pollutants from mixing with water and forming scale in the gaps of the rattan weave, improving the overall aesthetics. Furthermore, the automatic replacement of the absorbent sponge reduces manual intervention and increases processing efficiency.

[0037] This invention incorporates elastic clamps. When the support plates are at their extreme positions of distance, the octagonal rattan weave can slide relative to the elastic clamps, allowing it to move to the door frame installation position. Furthermore, the holes in the octagonal rattan weave are arranged horizontally and vertically, respectively, eliminating the need for adjustments during installation, reducing human error, and shortening processing time, thus improving efficiency. When the support plates are at their extreme positions of close proximity, the octagonal rattan weave cannot slide relative to the elastic clamps. The elastic clamps slide downwards, tautning the octagonal rattan weave, preventing wrinkles during installation, improving aesthetics, and requiring no additional manual labor, thus reducing human intervention.

[0038] This invention removes water droplets from the surface of soaked octagonal rattan weaving, preventing dust, sawdust, and other materials from mixing with water and forming scale in the gaps of the rattan weaving during assembly. It also straightens the rattan weaving during assembly, preventing wrinkles and maintaining its aesthetic appeal. During installation, only one positional adjustment is needed to ensure the octagonal holes in each row and column remain horizontal and vertical, eliminating the need for repeated adjustments. Furthermore, assembly can be performed by a single person, reducing manual labor and improving production efficiency. Attached Figure Description

[0039] Figure 1 This is a schematic diagram of the structure of the present invention;

[0040] Figure 2 This is a cross-sectional structural diagram of the present invention;

[0041] Figure 3 This is an exploded structural diagram of the present invention;

[0042] Figure 4 This is a schematic diagram of the inclined plate of the present invention.

[0043] Figure 5 This is a schematic diagram of the structure of the tray of the present invention;

[0044] Figure 6 This is an exploded structural diagram of the stretching part of the present invention;

[0045] Figure 7 This is an exploded structural diagram of the water-absorbing part of the present invention;

[0046] Figure 8 This is an exploded structural diagram of the straightening portion of the present invention;

[0047] Figure 9 This is a schematic diagram of the flipping structure of the flipping plate of the present invention.

[0048] Explanation of the numbers in the diagram: 10. Water tank; 11. Inclined plate; 111. Long rack; 112. Short rack; 113. Narrow groove; 114. Wide groove; 115. Horizontal groove; 116. Vertical groove; 117. Climbing rack; 21. Door frame; 22. Octagonal rattan weaving; 31. Support plate; 311. Driven groove; 32. Short shaft; 321. Eccentric shaft; 33. Long shaft; 331. Straightening gear; 34. First motor; 35. Synchronous belt; 4. Stretching section; 41. Housing; 42. Climbing shaft; 421. Delay gear; 422. Climbing gear; 43. Clamping shaft; 44. Moving clamping plate; 441. Moving column; 45. Clamping disc; 451. Clamping inclined groove; 46. Second motor 47. Motor gear; 471. Drive block; 48. Transmission gear; 481. Driven block; 49. Sector gear; 491. Spring; 5. Straightening section; 51. Force plate; 511. Force column; 52. Elastic clamp; 53. First spring; 54. Force column; 541. Force groove; 542. Force column; 55. Transmission plate; 551. Force groove; 56. Rack column; 57. Second spring; 6. Water absorption section; 61. Flipping plate; 611. Water-absorbing sponge; 612. Rectangular block; 62. Squeezing plate; 621. Squeezing rack; 63. Ratchet; 64. Linkage gear; 65. Connecting rod; 66. Linkage rack; 67. Switching rack; 68. Transmission shaft. Detailed Implementation

[0049] Specific Implementation Example 1: Please refer to... Figure 1-9An octagonal rattan door bathroom cabinet assembly table includes a water tank 10 for soaking octagonal rattan, an inclined plate 11 fixedly connected to the upper end of the water tank 10, a water-absorbing part 6 provided at the lower part of the inclined plate 11, and a stretching part 4 slidably connected to the inclined plate 11 for pulling the octagonal rattan upward.

[0050] The term "octagonal rattan weaving" refers to a soft mat woven from the stems of rattan plants. Because the holes formed between the woven materials are regular octagonal, it has a better aesthetic effect. Therefore, soft mats with such regular octagonal holes are called octagonal rattan weaving.

[0051] The water-absorbing part 6 includes two symmetrically arranged water-squeezing plates 62 that are slidably connected to the lower part of the inclined plate 11 in the horizontal direction, and two symmetrically arranged flip plates 61 that are slidably connected to the two water-squeezing plates 62 in the horizontal direction and can respectively drive the adjacent water-squeezing plates 62 to slide; water-absorbing sponges 611 are respectively installed on both sides of the flip plates 61; a plurality of short racks 112 are formed on the inclined plate 11 and are respectively unidirectionally connected to the flip plates 61.

[0052] When the two flipping plates 61 slide to their extreme positions close to each other, the two opposite absorbent sponges 611 abut against the octagonal rattan weave to absorb water, while the other two absorbent sponges 611 abut against the squeezing plate 62 to be squeezed dry.

[0053] When the two flipping plates 61 slide to their extreme positions of being far apart from each other, the flipping plates 61 rotate half a turn, and the water-absorbing sponge 611 rotates to face the water-squeezing plate 62 after absorbing water, and the water-squeezed sponge 611 rotates to face the octagonal rattan weaving.

[0054] The water-absorbing part 6 includes two driving parts respectively disposed at both ends of the flip plate 61; the driving part includes a linkage rack 66 longitudinally slidably connected to the inclined plate 11, two connecting rods 65 whose ends are respectively rotatably connected to the linkage rack 66 and the corresponding flip plate 61, a transmission shaft 68 rotatably connected to the inclined plate 11 and capable of drivingly connecting with the linkage rack 66, and a switching rack 67 slidably connected to the inclined plate 11 and capable of drivingly connecting with the transmission shaft 68; a switching spring is disposed between the switching rack 67 and the inclined plate 11 for causing the switching rack 67 to slide upward; a linkage spring is disposed between the linkage rack 66 and the inclined plate 11 for causing the linkage rack 66 to slide upward; the stretching part 4 slides downward and can abut against the switching rack 67, thereby driving the switching rack 67 to slide downward.

[0055] The transmission shaft 68 has rack gears formed at both ends, which are connected to the corresponding switching rack 67 and linkage rack 66.

[0056] When the stretching part 4 slides downward, the switching rack 67 slides downward, causing the transmission shaft 68 to rotate, so that the two flip plates 61 slide to their extreme positions far apart. The linkage rack 66 slides downward and causes the linkage spring to compress and store force. Then, the switching rack 67 slides downward until it is no longer connected to the transmission shaft 68, and the flip plates 61 slide to their extreme positions close together under the elastic force of the linkage spring. The linkage rack 66 then slides upward to its original position.

[0057] When the stretching part 4 slides upward, the switching rack 67 slides upward under the elastic force of the switching spring, and the linkage rack 66 slides upward until it is no longer connected to the drive shaft 68. The squeezing plate 62 further compresses the absorbent sponge 611 to dehydrate it. The linkage rack 66 can slide downward under the action of gravity until it is connected to the drive shaft 68.

[0058] The flip plate 61 is rotatably connected to two ends of a ratchet gear 63 with a rotating shaft coaxial with the rotating shaft of the flip plate 61; the ratchet gear 63 can be driven to connect with the corresponding short rack 112; the flip plate 61 has rectangular blocks 612 formed at both ends along the rotating shaft of the flip plate 61; the inclined plate 11 has multiple narrow grooves 113 with a width equal to the side length of the rectangular blocks 612; the inclined plate 11 has multiple wide grooves 114 with a width equal to the diagonal length of the rectangular blocks 612; the narrow grooves 113 are connected to the adjacent wide grooves 114, and the connection has an arc-shaped guide angle.

[0059] When the two flip plates 61 are in their extreme positions close to each other, the rectangular block 612 is located in the narrow groove 113, and the ratchet 63 does not contact the short rack 112.

[0060] When the two flip plates 61 are in extreme positions far apart from each other, the rectangular block 612 is located in the wide groove 113, and the ratchet 63 is connected to the short rack 112 in a transmission connection.

[0061] The two ends of the flip plate 61 are respectively rotatably connected to a linkage gear 64 with a rotating shaft coaxially arranged with the rotating shaft of the flip plate 61; the inclined plate 11 is formed with a plurality of long racks 111 respectively connected to the corresponding linkage gears 64; the two ends of the squeezing plate 62 are respectively formed with squeezing racks 621 connected to the corresponding linkage gears 64.

[0062] The stretching part 4 includes a housing 41 slidably connected to the inclined plate 11, two symmetrically arranged movable clamping plates 44 slidably connected to the lower end of the housing 41, a clamping shaft 43 rotatably connected to the housing 41 and driven by the movable clamping plates 44, a climbing shaft 42 rotatably connected to the housing 41 and driven by the inclined plate 11, and a second motor 46 fixedly connected to the housing 41 and capable of driving the clamping shaft 43 and the climbing shaft 42 to rotate respectively; the second motor 46 has a self-locking function.

[0063] The upper end of the movable clamping plate 44 is formed with a plurality of evenly arranged movable columns 441; the stretching part 4 includes a plurality of clamping discs 45 rotatably connected to the housing 41 and drivenly connected to the clamping shaft 43; the clamping discs 45 are formed with two symmetrically arranged inclined clamping grooves 451 that are slidably connected to the movable columns 441.

[0064] The climbing shaft 42 has climbing gears 422 formed at both ends; the inclined plate 11 has two climbing racks 117 that are respectively connected to the corresponding climbing gears 422.

[0065] When the second motor 46 rotates in the forward direction, the two movable clamps 44 first slide to their extreme positions far apart from each other, and then the outer shell 41 slides downward.

[0066] When the second motor 46 rotates in the opposite direction, the two movable clamping plates 44 slide to their extreme positions close to each other, clamping the octagonal rattan weave, and then the outer shell 41 slides upward.

[0067] The stretching part 4 includes a sector gear 49 rotatably connected to the outer wall of the clamping shaft 43, a spring 491 with its two ends fixedly connected to the sector gear 49 and the clamping shaft 43 respectively, a transmission gear 48 rotatably connected to the outer casing 41 and driven by the climbing shaft 42, and a motor gear 47 fixedly connected to the output shaft of the second motor 46 and capable of driving with the sector gear 49; a driven block 481 is formed at a non-central position on the end face of the transmission gear 48; a driving block 471 is formed at a non-central position on the end face of the motor gear 47 and capable of abutting against the driven block 481; the elasticity of the spring 491 causes the sector gear 49 to rotate to drive with the motor gear 47.

[0068] The climbing shaft 42 has a delay gear 421 coaxially arranged and connected to the transmission gear 48.

[0069] A straightening section 5 is provided on the inclined plate 11 between the water absorption section 6 and the stretching section 4; the straightening section 5 includes two symmetrically arranged force-adding plates 51 slidably connected to the inclined plate 11, two elastic clamping plates 52 respectively slidably connected to the force-adding plates 51 and located between the two force-adding plates 51, a plurality of first springs 53 respectively arranged between the force-adding plates 51 and the elastic clamping plates 52 for moving them away from each other, and a force-adding column 54 slidably connected to the inclined plate 11 for driving the force-adding plates 51 to slide; the sliding direction of the force-adding plates 51 and the elastic clamping plates 52 is perpendicular to the inclined plate 11.

[0070] When the force-adding column 54 is at its upper limit position, the two force-adding plates 51 are at their respective extreme positions, and the octagonal rattan weaving held between the two elastic clamps 52 can slide relative to the elastic clamps 52.

[0071] When the force-adding column 54 is at its lower limit position, the two force-adding plates 51 are at their respective limit positions close to each other, and the two elastic clamps 52 further clamp the octagonal rattan weave, preventing the octagonal rattan weave from sliding relative to the elastic clamps 52.

[0072] The force-adding plate 51 has force-adding columns 511 formed at both ends; the inclined plate 11 has a plurality of sliding grooves that are slidably connected to the corresponding force-adding columns 511; the sliding groove group includes a vertical sliding groove 116 arranged along the sliding direction of the force-adding column 54 and a horizontal sliding groove 115 that is connected to the upper end of the vertical sliding groove 116 and perpendicular to the sliding direction of the force-adding column 54; the lower end of the force-adding column 54 has two inclined force-adding inclined grooves 541 that are slidably connected to the corresponding force-adding columns 511.

[0073] When the force-adding column 54 is located in the horizontal sliding groove 115, the force-adding column 54 slides downward, causing the two force-adding plates 51 to slide to their respective extreme positions, and the force-adding column 54 slides into the vertical sliding groove 116.

[0074] When the force-adding column 54 is located in the vertical sliding groove 116, the force-adding column 54 continues to slide downward, so that the octagonal rattan weave between the straightening part 5 and the stretching part 4 is straightened.

[0075] A support plate 31 for placing a door frame is slidably connected to the inclined plate 11; two symmetrically arranged long shafts 33 for driving the support plate 31 to slide are rotatably connected to the inclined plate 11; the straightening part 5 includes a transmission plate 55 slidably connected to the inclined plate 11 and driven by the force column 54, a rack column 56 slidably connected to the transmission plate 55, and a second spring 57 disposed between the rack column 56 and the transmission plate 55 to keep them apart; a straightening gear 331 is formed at the lower end of the long shaft 33 and driven by the rack column 56; the support plate 31 pushes the door frame towards the octagonal rattan while straightening the octagonal rattan.

[0076] The outer wall of the force-adding column 54 is formed with a force-adding column 542; the transmission plate 55 is formed with an inclined force-adding groove 551 that is slidably connected to the force-adding column 542.

[0077] The end of the support plate 31 away from the door frame is formed with a plurality of driven grooves 311; the inclined plate 11 is rotatably connected with a plurality of short shafts 32 respectively driven by the long shaft 33; the short shaft 32 is formed with an eccentric shaft 321 whose axis is parallel to the short shaft 32 and does not coincide with the short shaft 32, and is slidably connected to the corresponding driven groove 311; the inclined plate 11 is fixedly connected with a first motor 34 driven by the two long shafts 33.

[0078] The first motor 34 is connected to the long shaft 33 via a synchronous belt 35; the first motor 34 has a self-locking function; a controller is provided on the inclined plate 11; a control panel is provided on the inclined plate 11; the control panel is provided with multiple buttons; the first motor 34, the second motor 46, the control panel, and the controller are electrically connected.

[0079] In the initial state, the two force plates 51 are located at their extreme positions far apart from each other, and the first spring 53 has elastic force; the support plate 31 is located at its inner extreme position; the two water-absorbing sponges 611 that are close to each other abut against the octagonal rattan weave, and the two water-absorbing sponges 611 that are far apart from each other are pressed and dehydrated by the water-squeezing plate 62; the switching rack 67 and the linkage rack 66 are located at their upper extreme positions.

[0080] When installing octagonal rattan onto the bathroom cabinet door frame, the rattan needs to be soaked beforehand and kept moist during installation to ensure that the rattan strips do not break. At the same time, water droplets should be prevented from remaining on the surface of the rattan during installation to prevent dust, wood chips, and other substances in the installation environment from mixing with water and forming scale in the gaps of the rattan.

[0081] During assembly, the soaked octagonal rattan is first placed in water tank 10, where the water keeps it moist. Then, one end of the rattan is pulled upwards and passed between two absorbent sponges 611. Next, the elastic clamps 52 are opened, and one end of the rattan is placed between the two clamps, extending upwards a certain distance. The clamps 52 are then released, and the spring force of the first spring 53 clamps the rattan between them. During this process, the position of the rattan is adjusted so that the first row of holes at the top is on the same horizontal plane. When installed on the door frame, the holes in each row and column of the rattan are linearly aligned, preventing tilting and ensuring a neat appearance after installation. Only one adjustment is needed when placing the rattan; subsequent adjustments are unnecessary when installing multiple door frames, saving time and improving assembly efficiency.

[0082] Then, pressing the "down" button activates the controller, causing the second motor 46 to operate, which in turn causes the motor gear 47 to rotate forward. This forward rotation of the motor gear 47 drives the sector gear 49, which in turn, via the spring 491, drives the clamping shaft 43 to rotate forward. The rotation of the clamping shaft 43 then drives the clamping disc 45 to rotate, causing the clamping slant 451 to rotate. This rotation of the clamping slant 451 causes the moving column 441 to slide, allowing the two moving clamping plates 44 to slide to their extreme positions, far apart from each other. Continued rotation of the sector gear 49 will cause the spring 491 to store power, and simultaneously, the sector gear 49 will no longer be connected to the motor gear 47 in its transmission. The rotation of the motor rack 47 synchronously drives the drive block 471 to rotate. The continued rotation of the motor rack 47 causes the drive block 471 to collide with the driven block 481, synchronously driving it to rotate, i.e., the transmission gear 48 rotates. The rotation of the transmission gear 48 drives the delay gear 421 to rotate, causing the climbing shaft 42 to rotate in the forward direction. The rotation of the climbing shaft 42 drives the climbing gear 422 to rotate. The climbing gear 422 slides downward along the climbing rack 117, thereby causing the stretching part 4 to slide downward. When the stretching part 4 slides to its lower limit position, the upward-extending part of the octagonal rattan weave is located between the two moving clamps 44. Pressing the "downward" button again stops the controller from operating the second motor 46.

[0083] Place the door frame on the support plate 31 and adjust its installation position. Then, press the "Move Up" button. The controller controls the second motor 46 to operate, causing the motor gear 47 to rotate in the reverse direction. The reverse rotation of the motor gear 47 drives the drive block 471 to rotate until it no longer contacts the driven block 481, and the climbing shaft 42 does not rotate. During this process, the spring force of the mainspring 491 causes the sector gear 49 to be connected to the motor gear 47. The reverse rotation of the motor gear 47 drives the sector gear 49 to rotate in the reverse direction. The reverse rotation of the sector gear 49 causes the two moving clamps 44 to move towards each other to their limit positions, and the moving clamps 44 clamp the upper end of the octagonal rattan weave. The motor gear 47 continues to rotate in the reverse direction, causing the mainspring 491 to store power in the reverse direction. At the same time, the motor gear 47 continues to rotate in the reverse direction until it is no longer connected to the sector gear 49. Next, the motor gear 47 continues to rotate in the opposite direction, driving the drive block 471 to rotate again until it abuts against the other side of the driven block 481. This, in turn, synchronously drives the transmission gear 48 to rotate in the opposite direction. The reverse rotation of the transmission gear 48 causes the stretching part 4 to slide upward, thus causing the upper end of the octagonal rattan weave to slide upward. The water droplets adhering to the octagonal rattan weave, after passing through the two water-absorbing sponges 611, are absorbed, preventing dust, wood chips, and other substances in the installation environment from mixing with water and forming scale in the gaps of the octagonal rattan weave. When the stretching part 4 slides upward to the top of the door frame, pressing the "move up" button again causes the controller to stop the second motor 46 from working.

[0084] Next, pressing the "push out" button activates the controller, causing the first motor 34 to rotate, which in turn rotates the long shaft 33 in the forward direction. This rotation drives the short shaft 32 to rotate, which in turn drives the eccentrically mounted eccentric shaft 321 to rotate. The eccentric shaft 321 then slides the driven groove 311, causing the support plate 31 to slide outwards. During this process, the long shaft 33 rotates, causing the straightening gear 331 to rotate. This rotation drives the rack column 56 to slide, which in turn, via the second spring 57, drives the transmission plate 55 to slide, i.e., the force-applying inclined groove 551 to slide. This sliding motion of the force-applying inclined groove 551 causes the force-applying column 542 to slide downwards. The downward sliding of the force-applying column 541 causes the force-applying inclined groove 541 to slide. The force-applying inclined groove 541 first drives the two force-applying columns 511 to slide towards each other within the transverse sliding groove 115, i.e., the two force-applying plates 51 slide towards each other. The first spring 53 is further compressed, causing the elastic clamping plate 52 to clamp the octagonal rattan weave. The force-adding column 54 slides further downward, causing the force-adding column 511 to slide into the vertical slide groove 116. The octagonal rattan weave cannot move relative to the elastic clamp 52. Driven by the force-adding inclined groove 541, the force-adding column 54 slides downward along the vertical slide groove 116, thereby straightening the octagonal rattan weave. The force-adding column 54 cannot continue to slide downward, and the rotation of the long shaft 33 will further compress the second spring 57. At the same time, the support plate 31 slides, causing the door frame to slide until it abuts against the octagonal rattan weave. Pressing the "push out" button again will cause the controller to stop the first motor 34. Subsequently, the octagonal rattan weave can be attached and installed onto the door frame. The straightening of the octagonal rattan weave effectively ensures that no wrinkles will form during the installation process, achieving an aesthetically pleasing effect. At the same time, no other manual assistance is required, reducing the amount of manual labor and labor costs.

[0085] After installation, use a utility knife to cut the assembled octagonal rattan weave and discard the scraps. Press the "Pull In" button, and the controller will operate the first motor 34, causing the long shaft 33 to rotate in the opposite direction. This will drive the support plate 31 to slide inward to its original position. Simultaneously, the reverse rotation of the long shaft 33 will cause the two force plates 51 to move to their extreme positions of distance from each other. The elastic clamp 52 will hold the octagonal rattan weave, but the octagonal rattan weave can slide relative to the elastic clamp 52. Press the "Pull In" button again, and the controller will stop the first motor 34 from operating.

[0086] Finally, pressing the "Move Down" button again activates the controller, causing the second motor 46 to rotate forward. This causes the motor gear 47 to rotate forward, and the two moving clamps 44 to slide away from each other to their limit positions, releasing the scrap material. Subsequently, the stretching part 4 slides downward. This downward movement of the stretching part 4 engages with the switching rack 67, causing it to slide downward as well. The switching spring compresses and stores energy, and the downward movement of the switching rack 67 drives the transmission shaft 68 to rotate forward. The rotation of the transmission shaft 68 drives the linkage rack 66 to slide downward, compressing and storing energy. The downward movement of the linkage rack 66 drives the two connecting rods 65 to rotate away from each other, which in turn drives the two tilting plates 61 to slide away from each other. The sliding of the tilting plates 61 causes the linkage gear 64 to slide synchronously. The sliding of the linkage gear 64 relative to the long rack 111 causes the squeezing rack 621 to slide away from the tilting plate 61, meaning the squeezing plate 62 slides away from the tilting plate 61. The sliding of the flip plate 61 causes the rectangular block 612 to slide, moving it from the narrow groove 113 to the wide groove 114. The ratchet 63 slides to engage with the short rack 112. As the flip plate 61 continues to slide, the ratchet 63 rotates half a turn under the drive of the short rack 112. The two water-soaked sponges 611, which were originally close together, rotate towards the wringer 62, while the two dry water-soaked sponges 611, which were originally far apart, rotate towards the octagonal rattan weave.

[0087] Next, the switching rack 67 continues to slide downwards and is no longer connected to the drive shaft 68. The linkage rack 66, under the force of the linkage spring, slides upwards to its original position, causing the two flipping plates 61 to slide towards each other until the absorbent sponge 611 comes into contact with the octagonal rattan weave. Simultaneously, the two squeezing plates 62 slide towards each other to their original positions, coming into contact with the water-saturated absorbent sponge 611, thus squeezing the sponge dry. During this process, the ratchet 63, due to its ratchet and pawl mechanism, cannot be driven to rotate by the short rack 112. When the stretching part 4 drives the octagonal rattan weave upwards again, the switching rack 67, under the force of the switching spring, slides upwards to its original position. The upward sliding of the switching rack 67 causes the drive shaft 68 to rotate in the opposite direction. The reverse rotation of the drive shaft 68 causes the linkage rack 66 to slide upwards, further causing the squeezing plates 62 to slide closer to the absorbent sponge 611, further squeezing the sponge dry. The linkage rack 66 slides upward and is no longer connected to the drive shaft 68. Furthermore, the linkage rack 66 can slide downward under the action of gravity until it is connected to the drive shaft 68.

[0088] This invention features a motor gear 47. When the motor gear 47 rotates in the forward direction, it first drives the two movable clamping plates 44 to slide away from each other to their extreme positions. The motor gear 47 continues to rotate, driving the stretching part 4 to slide downwards until the octagonal rattan weave is located between the two movable clamping plates 44. When the motor gear 47 rotates in the reverse direction, it first drives the two movable clamping plates 44 to slide and clamp the octagonal rattan weave. Subsequently, the motor gear 47 continues to rotate, driving the stretching part 4 to slide upwards to the upper end of the door frame. This invention uses only one drive mechanism without adding any new operating steps, thus improving assembly and processing efficiency.

[0089] This invention features a rotating plate 61. When the two rotating plates 61 slide away from each other, they simultaneously drive the squeezing plate 62 away from the absorbent sponge 611. This allows the rotating plate 61 to rotate half a turn, causing the water-soaked sponge 611 to rotate towards the squeezing plate 62. Simultaneously, when the two rotating plates 61 slide closer together, the squeezing plate 62 slides to contact the absorbent sponge 611, squeezing it dry. The dry absorbent sponge 611 then contacts the octagonal rattan weave, absorbing any water droplets adhering to it. This prevents dust, sawdust, and other environmental pollutants from mixing with water and forming scale in the gaps of the rattan weave, improving the overall aesthetics. Furthermore, the automatic replacement of the absorbent sponge reduces manual intervention and increases processing efficiency.

[0090] This invention incorporates an elastic clamp 52. When the force-applying plates 51 are at their extreme positions of distance, the octagonal rattan weave can slide relative to the elastic clamp 52, allowing it to move to the door frame installation position. Furthermore, the holes in the octagonal rattan weave are arranged horizontally and vertically, respectively, eliminating the need for adjustments during installation, reducing human error, and shortening processing time, thus improving efficiency. When the force-applying plates 51 are at their extreme positions of close proximity, the octagonal rattan weave cannot slide relative to the elastic clamp 52. The elastic clamp 52 slides downwards, tautning the octagonal rattan weave, preventing wrinkles during installation, improving aesthetics, and requiring no additional manual labor, thus reducing human intervention.

[0091] This invention removes water droplets from the surface of soaked octagonal rattan weaving, preventing dust, sawdust, and other materials from mixing with water and forming scale in the gaps of the rattan weaving during assembly. It also straightens the rattan weaving during assembly, preventing wrinkles and maintaining its aesthetic appeal. During installation, only one positional adjustment is needed to ensure the octagonal holes in each row and column remain horizontal and vertical, eliminating the need for repeated adjustments. Furthermore, assembly can be performed by a single person, reducing manual labor and improving production efficiency.

Claims

1. An octagonal rattan door bathroom vanity assembly table, characterized in that: It includes a water tank for soaking octagonal rattan weaving, an inclined plate fixedly connected to the upper end of the water tank, a water-absorbing part provided at the lower part of the inclined plate, and a stretching part slidably connected to the inclined plate for pulling the octagonal rattan weaving upward. The water-absorbing part includes two symmetrically arranged water-squeezing plates slidably connected to the lower part of the inclined plate and two symmetrically arranged flip plates slidably connected between the two water-squeezing plates, which can respectively drive the adjacent water-squeezing plates to slide; water-absorbing sponges are respectively installed on both sides of the flip plates; multiple short toothed racks are formed on the inclined plate and are respectively unidirectionally connected to the flip plates. When the two flipping plates slide to their extreme positions close to each other, the two opposite absorbent sponges abut against the octagonal rattan weave to absorb water, while the other two absorbent sponges abut against the squeezing plate to be squeezed dry. When the two flipping plates slide to their extreme positions of distance from each other, the flipping plates rotate half a turn, and the water-absorbing sponge rotates to face the water-squeezing plate after absorbing water, and the water-squeezed sponge rotates to face the octagonal rattan weaving.

2. The octagonal rattan door bathroom vanity assembly table as described in claim 1, characterized in that: The water-absorbing part includes two driving parts respectively disposed at both ends of the flip plate; each driving part includes a linkage rack slidably connected longitudinally to the inclined plate, two connecting rods rotatably connected at both ends to the linkage rack and the corresponding flip plate respectively, a transmission shaft rotatably connected to the inclined plate and capable of driving the linkage rack, and a switching rack slidably connected to the inclined plate and capable of driving the transmission shaft; a linkage spring is disposed between the linkage rack and the inclined plate for causing the linkage rack to slide upward; when the stretching part slides downward, the switching rack slides downward and drives the transmission shaft to rotate, causing the two flip plates to slide to a limit position far apart from each other, and then the switching rack slides downward until it is no longer drivingly connected to the transmission shaft, and the flip plates slide to a limit position close to each other under the elastic force of the linkage spring; When the stretching part slides upward, the switching rack slides upward, and the linkage rack slides upward until it is no longer connected to the drive shaft.

3. The octagonal rattan door bathroom vanity assembly table as described in claim 1, characterized in that: The flip plate has ratchet gears rotatably connected to both ends of its rotating shaft, which are coaxial with the rotating shaft of the flip plate. The ratchet gears can be driven by the corresponding short rack. Rectangular blocks are formed at both ends of the flip plate along its rotating shaft. The inclined plate has multiple narrow grooves with a width equal to the side length of the rectangular blocks. The inclined plate also has multiple wide grooves with a width equal to the diagonal length of the rectangular blocks. When the two flip plates are in their closest possible positions, the rectangular blocks are located within the narrow grooves, and the ratchet gears do not contact the short rack. When the two flip plates are at their extreme positions far apart from each other, the rectangular block is located in the wide groove, and the ratchet is connected to the short rack drive.

4. The octagonal rattan door bathroom vanity assembly table as described in claim 1, characterized in that: The flip plate has a rotating shaft at each end, and a linkage gear is coaxially arranged with the rotating shaft of the flip plate; the inclined plate has a plurality of long racks that are respectively connected to the corresponding linkage gears; the dewatering plate has a dewatering rack at each end that is connected to the corresponding linkage gears.

5. The octagonal rattan door bathroom vanity assembly table as described in claim 1, characterized in that: The stretching part includes a housing slidably connected to the inclined plate, two symmetrically arranged movable clamping plates slidably connected to the lower end of the housing, a clamping shaft rotatably connected to the housing and driven by the movable clamping plates, a climbing shaft rotatably connected to the housing and driven by the inclined plate, and a second motor fixedly connected to the housing and capable of driving the clamping shaft and the climbing shaft to rotate respectively. When the second motor rotates in the forward direction, the two moving clamps first slide to their extreme positions far apart from each other, and then the outer shell slides downward. When the second motor rotates in the opposite direction, the two movable clamping plates slide to their extreme positions close to each other, clamping the octagonal rattan weave, and then the outer shell slides upward.

6. The octagonal rattan door bathroom vanity assembly table as described in claim 5, characterized in that: The stretching part includes a sector gear rotatably connected to the outer wall of the clamping shaft, a spring fixedly connected to the sector gear and the clamping shaft at both ends respectively, a transmission gear rotatably connected to the housing and driven by the climbing shaft, and a motor gear fixedly connected to the output shaft of the second motor and capable of drivingly connecting with the sector gear; a driven block is formed at a non-central position on the end face of the transmission gear; a driving block is formed at a non-central position on the end face of the motor gear and capable of abutting against the driven block; the elasticity of the spring causes the sector gear to rotate to drively connect with the motor gear.

7. An octagonal rattan door bathroom vanity assembly table as described in claim 1, characterized in that: A straightening section is provided on the inclined plate between the water absorption section and the stretching section; the straightening section includes two force plates symmetrically arranged and slidably connected to the inclined plate, two elastic clamps slidably connected to the force plates and located between the two force plates, a plurality of first springs respectively arranged between the force plates and the elastic clamps for moving the two away from each other, and a force column slidably connected to the inclined plate for driving the force plates to slide. When the force-adding column is at its upper limit position, the two force-adding plates are at their respective extreme positions, and the octagonal rattan weaving held between the two elastic clamps can slide relative to the elastic clamps. When the force-adding column is at its lower limit position, the two force-adding plates are at their respective limit positions close to each other, and the two elastic clamps further clamp the octagonal rattan weave, preventing the octagonal rattan weave from sliding relative to the elastic clamps.

8. The octagonal rattan door bathroom vanity assembly table as described in claim 7, characterized in that: The force-adding plate has force-adding rods formed at both ends; the inclined plate has a plurality of sliding grooves that are slidably connected to the corresponding force-adding rods; the sliding groove group includes a vertical sliding groove arranged along the sliding direction of the force-adding column and a horizontal sliding groove perpendicular to the sliding direction of the force-adding column and connected to the upper end of the vertical sliding groove; the lower end of the force-adding column has two inclined force-adding grooves that are slidably connected to the corresponding force-adding rods. When the force-adding column is located in the horizontal sliding groove, the force-adding column slides downward, causing the two force-adding plates to slide to their respective extreme positions, and the force-adding column slides into the vertical sliding groove; When the force-adding column is located in the vertical sliding groove, the force-adding column continues to slide downwards, thereby straightening the octagonal rattan weave between the straightening part and the stretching part.

9. An octagonal rattan door bathroom vanity assembly table as described in claim 8, characterized in that: A support plate for placing a door frame is slidably connected to the inclined plate; a long shaft for driving the support plate to slide is rotatably connected to the inclined plate; the straightening part includes a transmission plate slidably connected to the inclined plate and driven by the force-applying column, a rack column slidably connected to the transmission plate, and a second spring disposed between the rack column and the transmission plate for moving the two apart; a straightening gear is formed at the lower end of the long shaft and driven by the rack column; the support plate pushes the door frame towards the octagonal rattan weave while simultaneously straightening the octagonal rattan weave.

10. An octagonal rattan door bathroom vanity assembly table as described in claim 9, characterized in that: The end of the support plate away from the door frame is formed with multiple driven grooves; multiple short shafts are rotatably connected to the inclined plate and are respectively driven by the long shaft; an eccentric shaft is formed on the short shaft and is arranged with its axis parallel to the short shaft and not overlapping, and is slidably connected to the corresponding driven groove; a first motor is fixedly connected to the inclined plate and is driven by the long shaft.

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