Anti-deformation cabinet door and processing technology

Abstract

This invention discloses an anti-deformation cabinet door and its processing technology, comprising an upper decorative panel, a combined frame, and a lower decorative panel arranged sequentially from top to bottom. The combined frame includes an outer frame, an anti-deformation supporting inner frame, and a filler plate. The anti-deformation supporting inner frame is disposed within the outer frame, and the filler plate is disposed within the anti-deformation supporting inner frame. The anti-deformation supporting inner frame is formed by two horizontal aluminum square tubes and a vertical aluminum square tube. Through the design of the anti-deformation supporting inner frame, a supporting skeleton is formed inside the cabinet door, maintaining internal stress balance and making the cabinet door less prone to deformation during long-term use, fundamentally solving the problem of easy deformation of cabinet doors.

Description

Technical Field

[0001] This invention relates to the field of cabinet doors, specifically to an anti-deformation cabinet door and its processing technology. Background Technology

[0002] With the popularity of the Nordic style, interior design is increasingly leaning towards a simpler style, and large wardrobes are particularly popular. However, during the use of large wardrobes, the doors often warp due to their height, or they may not close properly after long-term use. To prevent this, most existing systems use door straighteners. However, these straighteners involve cutting a groove in the door panel, inserting the aluminum alloy straightener, and then using a special wrench to adjust the straightness of the panel. This type of straightener can only adjust minor deformations and cannot correct severely deformed doors. Furthermore, with long-term use, the surrounding environment, especially high and low temperatures, can cause the straightened door to spring back. Therefore, a new anti-deformation wardrobe door and its processing technology are needed. Summary of the Invention

[0003] The purpose of this invention is to solve the problems in the background art and provide an anti-deformation cabinet door and its processing technology.

[0004] The above-mentioned technical objective of the present invention is achieved through the following technical solution:

[0005] An anti-deformation cabinet door includes an upper decorative panel, a combined frame, and a lower decorative panel arranged sequentially from top to bottom. The combined frame includes an outer frame, an anti-deformation supporting inner frame, and a filler plate. The anti-deformation supporting inner frame is located inside the outer frame, and the filler plate is located inside the anti-deformation supporting inner frame. The anti-deformation supporting inner frame is formed by two horizontal aluminum square tubes and a vertical aluminum square tube. Through the design of the anti-deformation supporting inner frame, a supporting skeleton is formed inside the cabinet door, maintaining internal stress balance and making the cabinet door less prone to deformation during long-term use, fundamentally solving the problem of easy deformation of cabinet doors.

[0006] Preferably, the horizontal aluminum square tube has a first bevel at both ends, and the vertical aluminum square tube has a second bevel at both ends. The first bevel and the second bevel cooperate with each other. The bevel design makes the anti-deformation support inner frame more robust. The bevel is 45°.

[0007] Preferably, the horizontal aluminum square tube and the vertical aluminum square tube are connected by a connector. The connector includes a horizontal insertion part and a vertical insertion part, which are perpendicular to each other. The horizontal insertion part is inserted into the horizontal aluminum square tube, and the vertical insertion part is inserted into the vertical aluminum square tube to complete the assembly of the anti-deformation support inner frame, which is convenient for installation. The upper and lower surfaces of the horizontal and vertical insertion parts are formed with cavities, which saves materials.

[0008] A manufacturing process for an anti-deformation cabinet door includes the following steps:

[0009] S1, planing: Select thick wooden boards and plan them into thin planks to serve as upper and lower decorative panels;

[0010] S2, Steaming and softening: The wooden boards are placed in an anti-insect liquid for steaming and softening.

[0011] S3, Drying and leveling: The wood boards that have been softened by steaming are dried and leveled.

[0012] S4, Making the outer frame: Cut the LVL board into horizontal and vertical panels, and then combine the horizontal and vertical panels to form the outer frame.

[0013] S5, the fabrication of the anti-deformation support inner frame involves cutting aluminum square tubes into vertical and horizontal aluminum square tubes according to the required dimensions, cutting the vertical and horizontal aluminum square tubes into the first and second bevels using a bevel cutting device, and then connecting the vertical and horizontal aluminum square tubes with connectors to form the anti-deformation support inner frame.

[0014] S6, Adhesion: Apply panel glue to the upper surface of the lower trim panel, place the outer frame on the upper surface of the lower trim panel, and adhere the outer frame to the upper surface of the lower trim panel. Then, apply a ring of ironwood glue to the lower trim panel near the inner edge of the outer frame. Next, fix the prepared anti-deformation support inner frame at the position with ironwood glue, so that the anti-deformation support inner frame is fixed inside the outer frame and adhered to the upper surface of the lower trim panel. Then, fill the anti-deformation support inner frame with wood strips processed from pine and miscellaneous wood in the manner of finger-jointed board. The wood strips are adhered to the lower trim panel with panel glue to form a filling board. Then, apply panel glue to the lower surface of the upper trim panel, apply a ring of ironwood glue to the upper surface of the anti-deformation support inner frame, and cover the upper trim panel on the combined frame to complete the assembly of the anti-deformation cabinet door.

[0015] S7, Rolling: Roll the bonded anti-deformation cabinet door back and forth 3-4 times with a roller to make the anti-deformation cabinet door fit better.

[0016] The moth-repellent liquid can be obtained by boiling lavender sachets in water, making the moth-repellent liquid natural and more environmentally friendly.

[0017] By adding steaming, softening, and drying processes, the problem of warping in the planed wood can be solved. At the same time, the anti-insect liquid fully penetrates the wood through steaming, giving the wood a fragrance and making the cabinet doors made later have an anti-insect effect.

[0018] Preferably, the oblique cutting device includes a worktable, an aluminum square tube fixing mechanism, a cutting mechanism, a first slide, a pressing mechanism, and a feeding mechanism. Two first slides are symmetrically arranged on the worktable. The aluminum square tube fixing mechanism is slidably arranged on the first slide. The cutting mechanism is located on the side of the worktable. The pressing mechanism is located above the aluminum square tube fixing mechanism. The feeding mechanism is located above the aluminum square tube fixing mechanism and above the first slide. The aluminum square tube fixing mechanism includes a fixing plate and dividing strips. The fixing plate is slidably arranged on the first slide. A plurality of dividing strips are arranged in an inclined array above the fixing plate. An aluminum square tube placement space is formed between two adjacent dividing strips. The inclination angle between the dividing strips and the fixing plate is 45°.

[0019] A bevel cutting device is used to place several groups of aluminum square tubes horizontally at an angle within the aluminum square tube placement space. A pressing mechanism covers the aluminum square tubes to fix them in place. The cutting mechanism then cuts the aluminum square tubes to create bevels. Multiple aluminum square tubes can be cut at once, reducing labor and saving time.

[0020] Preferably, the feeding mechanism includes an inclined discharge pipe, with the inlet end of the discharge pipe higher than the outlet end. The discharge pipe is fixedly mounted on the frame, and a feed hopper is fixedly connected to the inlet end of the discharge pipe. An aluminum square tube buffer frame is fixedly connected to the outlet end of the discharge pipe. The bottom surface of the feed hopper is a downwardly inclined surface, with the inclination angle being the same as that of the discharge pipe. A discharge port with the same diameter as the aluminum square tube is opened at the bottom of the side of the feed hopper connected to the discharge pipe. The discharge port is fixedly connected to the discharge pipe. The aluminum square tube buffer frame is located at the starting end of the first slide and above the aluminum square tube placement space. A partition is connected to the bottom of the aluminum square tube buffer frame. A partition electric push rod is fixedly connected to the outer wall of the partition. The partition electric push rod is fixed to the worktable. The diameter of the discharge pipe is 0-2mm larger than the diameter of the aluminum square tube.

[0021] By placing aluminum square tubes in the feed hopper, they slide through the discharge port and into the aluminum square tube buffer frame for waiting. Simultaneously, the next aluminum square tube slides into the discharge pipe for waiting. When the first slide, carrying the aluminum square tube placement space, moves to below the aluminum square tube buffer frame, the partition electric push rod drives the partition to move open, allowing the aluminum square tube to fall into the placement space. The partition electric push rod then causes the partition to close the bottom of the aluminum square tube buffer frame. At the same time, the aluminum square tube buffer frame that has slid into the discharge pipe, not being blocked by the previous aluminum square tube, will automatically slide into the aluminum square tube buffer frame. This cycle continues, achieving automatic feeding of aluminum square tubes, reducing manual labor, and improving work efficiency.

[0022] Preferably, the cutting mechanism includes a second slide, a cutting blade drive motor, and a cutting blade. The second slide is located on the side of the worktable along its length. The cutting blade drive motor is located on the second slide. The cutting blade is fixedly connected to the output end of the cutting blade drive motor. The cutting blade and the first slide are parallel to each other. The movement of the cutting blade on the second slide drives the cutting blade to cut the aluminum square tube.

[0023] Preferably, the pressing mechanism includes a support frame, a pressing electric push rod, and a pressing plate. The support frame is fixed above the worktable, the pressing electric push rod is fixed on the support frame, and the pressing plate is fixed to the push rod end of the pressing electric push rod and is located on the side of the aluminum square tube buffer frame. The side of the pressing plate near the starting end of the first slide is an inclined surface, and the inclination angle of the inclined surface is the same as the inclination angle of the dividing strip. The pressing electric push rod drives the pressing plate to press, thereby pressing the aluminum square tube and preventing the aluminum square tube from shaking during the cutting process.

[0024] Preferably, the workbench is provided with a collection groove fixedly connected to the bottom side of the cutting mechanism, which facilitates the collection of unwanted parts left after the aluminum square tube is cut.

[0025] In summary, the beneficial effects of this invention are as follows:

[0026] 1. This invention, through the design of an anti-deformation supporting inner frame, forms a supporting skeleton inside the cabinet door, maintaining internal stress balance and making the cabinet door less prone to deformation during long-term use, thus fundamentally solving the problem of cabinet door deformation.

[0027] 2. This invention solves the problem of warping of wood boards after slicing by adding steaming softening and drying flattening treatments. At the same time, the anti-insect liquid fully penetrates into the wood board through steaming, giving the wood board a fragrance and making the cabinet doors made later have an anti-insect effect.

[0028] 3. The present invention uses a bevel cutting device to place several groups of aluminum square tubes horizontally and obliquely in the aluminum square tube placement space. A pressing mechanism covers the aluminum square tubes to fix them in place. The cutting mechanism cuts the aluminum square tubes to create bevels. Multiple aluminum square tubes can be cut at once, reducing labor and saving time.

[0029] 4. This invention places aluminum square tubes in the feeding hopper, and they slide down through the discharge port and discharge pipe into the aluminum square tube buffer frame for waiting. At the same time, the next aluminum square tube slides down into the discharge pipe for waiting. When the first slide table moves the aluminum square tube placement space to below the aluminum square tube buffer frame, the partition electric push rod drives the partition to move open, allowing the aluminum square tube to fall into the aluminum square tube placement space. The partition electric push rod also causes the partition to close the bottom of the aluminum square tube buffer frame. At the same time, the aluminum square tubes that have slid into the discharge pipe are not blocked by the previous aluminum square tubes and will automatically slide into the aluminum square tube buffer frame. This cycle continues, realizing automatic feeding of aluminum square tubes, reducing manual labor, and improving work efficiency. Attached Figure Description

[0030] Figure 1 This is a schematic diagram of the anti-deformation cabinet door of the present invention;

[0031] Figure 2 This is a schematic diagram of the combined frame of the present invention;

[0032] Figure 3 This is a schematic diagram showing the connection of the horizontal aluminum square tube, the vertical aluminum square tube, and the connector of the present invention.

[0033] Figure 4 This is a schematic diagram of the connector of the present invention;

[0034] Figure 5 This is a schematic diagram of the oblique cutting device of the present invention;

[0035] Figure 6 This is a top view schematic diagram of the oblique cutting device of the present invention;

[0036] Figure 7 This is a schematic diagram of the feeding mechanism of the present invention;

[0037] Figure 8 This is a cross-sectional schematic diagram of the feed hopper of the present invention;

[0038] Figure 9 This is a schematic diagram of the placement space for the aluminum square tube of the present invention;

[0039] Figure 10 This is a schematic diagram of the process flow of the present invention. Detailed Implementation

[0040] The following specific embodiments are merely illustrative of the present invention and are not intended to limit the invention. After reading this specification, those skilled in the art can make modifications to these embodiments without contributing any inventive step, but such modifications are protected by patent law as long as they fall within the scope of the claims of the present invention.

[0041] The present invention will now be described in detail with reference to the accompanying drawings and embodiments. Example

[0042] like Figure 1-4 As shown, an anti-deformation cabinet door includes an upper decorative panel 1, a combined frame 2, and a lower decorative panel 3 arranged sequentially from top to bottom. The combined frame 2 includes an outer frame 21, an anti-deformation supporting inner frame 22, and a filling plate 23. The anti-deformation supporting inner frame 22 is located inside the outer frame 21, and the filling plate 23 is located inside the anti-deformation supporting inner frame 22. The anti-deformation supporting inner frame 22 is formed by two horizontal aluminum square tubes 221 and two vertical aluminum square tubes 222. The two ends of the horizontal aluminum square tubes 221 are provided with first bevels 223, and the two ends of the vertical aluminum square tubes 222 are provided with second bevels 224. The first bevels 223 and the second bevels 224 cooperate with each other. The horizontal aluminum square tubes 221 and the lower decorative panel 3 are connected to the upper decorative panel 1, the combined frame 2, and the lower decorative panel 3. The vertical aluminum square tubes 222 are connected by connectors 4. The connectors 4 include a horizontal insertion part 41 and a vertical insertion part 42, which are at 90° to each other. A cavity 43 is formed from the upper surface to the lower surface of the horizontal insertion part 41 and the vertical insertion part 42. A groove 44 is formed on the outer wall of the horizontal insertion part 41 and the vertical insertion part 42. The groove 44 has a first mounting hole 45. The horizontal aluminum square tube 221 and the vertical aluminum square tube 222 have a second mounting hole 46 that mates with the mounting hole. The horizontal aluminum square tube 221 and the vertical aluminum square tube 222 are further fixed by connecting bolts. The groove 44 is used to hide the countersunk head of the connecting bolt.

[0043] like Figure 10 As shown, a processing technology for an anti-deformation cabinet door includes the following steps:

[0044] S1, planing: Select a thick wooden board and plan it into thin planks to serve as the upper trim 1 and the lower trim 3;

[0045] S2, Steaming and softening: The wooden boards are placed in an anti-insect liquid for steaming and softening.

[0046] S3, Drying and leveling: The wood boards that have been softened by steaming are dried and leveled.

[0047] S4, Making the outer frame: Cut the LVL board into horizontal and vertical pieces, and combine the horizontal and vertical pieces to form the outer frame 21.

[0048] S5, the fabrication of the anti-deformation support inner frame: the aluminum square tube is cut into vertical aluminum square tube 222 and horizontal aluminum square tube 221 according to the required size. The vertical aluminum square tube 222 and horizontal aluminum square tube 221 are cut into the first bevel 223 and the second bevel 224 by the bevel cutting device 5. Then the vertical aluminum square tube 222 and horizontal aluminum square tube 221 are connected by the connector 4 and then assembled to form the anti-deformation support inner frame 22.

[0049] S6, Adhesion: Apply panel glue to the upper surface of the lower trim panel 3, place the outer frame 21 on the upper surface of the lower trim panel, and adhere the outer frame 21 to the upper surface of the lower trim panel 3. Then, apply a ring of ironwood glue to the lower trim panel 3 near the inner edge of the outer frame 21. Next, fix the prepared anti-deformation support inner frame 22 at the position where ironwood glue is applied, so that the anti-deformation support inner frame 22 is fixed inside the outer frame 21 and adhered to the upper surface of the lower trim panel 3. Then, fill the anti-deformation support inner frame 22 with wood strips processed from pine and miscellaneous wood in the manner of finger-jointed board. The wood strips are adhered to the lower trim panel 3 with panel glue on the lower trim panel 3 to form a filling board 23. Then, apply panel glue to the lower surface of the upper trim panel 1, apply a ring of ironwood glue to the upper surface of the anti-deformation support inner frame 22, and cover the upper trim panel 1 on the combined frame to complete the assembly of the anti-deformation cabinet door.

[0050] S7, Rolling: Roll the bonded anti-deformation cabinet door back and forth 3-4 times with a roller to make the anti-deformation cabinet door fit better.

[0051] like Figure 5-9As shown, the oblique cutting device 5 includes a worktable 51, an aluminum square tube fixing mechanism 52, a cutting mechanism 53, a first slide 54, a pressing mechanism 55, and a feeding mechanism 56. Two first slides 54 are symmetrically arranged on the worktable 51. The aluminum square tube fixing mechanism 52 is slidably mounted on the first slide 54. The cutting mechanism 53 is located on the side of the worktable. The pressing mechanism 55 is located above the aluminum square tube fixing mechanism 52. The feeding mechanism 56 is located above the aluminum square tube fixing mechanism 52 and above the first slide 54. The aluminum square tube fixing mechanism 52 includes a fixing plate 521 and a dividing strip 522. The fixing plate 521 is slidably mounted on the first slide 54. Several... The dividing strips 522 are arranged in an inclined array above the fixed plate 521. An aluminum square tube placement space 523 is formed between two adjacent dividing strips 522. The feeding mechanism 56 includes an inclined discharge pipe 561, with the inlet end of the discharge pipe 561 higher than its outlet end. The discharge pipe 561 is fixedly mounted on the frame 562. A feeding hopper 563 is fixedly connected to the inlet end of the discharge pipe 561, and an aluminum square tube buffer frame 564 is fixedly connected to the outlet end of the discharge pipe 561. The bottom surface of the feeding hopper 563 is a downwardly inclined surface, with the inclination angle being the same as that of the discharge pipe 561. The bottom side of the feeding hopper 563 connected to the discharge pipe 561 has an opening for the aluminum square tube. The discharge port 565 has the same diameter and is fixedly connected to the discharge pipe 561. The aluminum square tube buffer frame 564 is located at the starting end of the first slide table 54 and above the aluminum square tube placement space 523. A partition plate 566 is connected to the bottom of the aluminum square tube buffer frame 564. A partition plate electric push rod 437 is fixedly connected to the outer wall of the partition plate 566. The partition plate electric push rod 437 is fixed to the worktable. The diameter of the discharge pipe 561 is 0~2mm larger than the diameter of the aluminum square tube. The cutting mechanism 53 includes a second slide table 531, a cutting blade drive motor 532, and a cutting blade 533. The second slide table 531 is located on the side of the worktable 51 along its length. 3. The cutting blade 533 is fixedly connected to the output end of the cutting blade drive motor 532 on the second slide table 531. The cutting blade 533 and the first slide table 54 are parallel to each other. The pressing mechanism 55 includes a support frame 551, a pressing electric push rod 552, and a pressing plate 553. The support frame 551 is fixed above the worktable 51. The pressing electric push rod 552 is fixed on the support frame 551. The pressing plate 553 is fixed to the push rod end of the pressing electric push rod 552 and is located on the side of the aluminum square tube buffer frame 564. The side of the pressing plate near the starting end of the first slide table 54 is an inclined surface, and the inclination angle of the inclined surface is the same as the inclination angle of the dividing strip 522.The workbench has a collection trough 50 fixedly connected to the bottom side of the cutting mechanism.

[0052] Working principle: such as Figure 1-10 As shown, when using the oblique cutting device, the aluminum square tube 6 is placed in the feed hopper 563, and slides through the discharge port 565 and the discharge pipe 561 into the aluminum square tube buffer frame 564 to wait. At the same time, the next aluminum square tube 6 will slide into the discharge pipe 561 to wait. When the first slide table 54 moves to the right, and the first aluminum square tube placement space 523 formed by the dividing strip 522 moves to below the aluminum square tube buffer frame 564, the partition electric push rod 567 drives the partition 566 to move away, causing the aluminum square tube 6 to fall into the aluminum square tube placement space 523. The partition electric push rod 567 drives the partition 566 to close the bottom of the aluminum square tube buffer frame 564. At the same time, the aluminum square tube 6 that has slid into the discharge pipe 565 will automatically slide away since it is not blocked by the previous aluminum square tube 6. When the next aluminum square tube placement space 523 moves to below the aluminum square tube buffer frame 564, the partition electric push rod 567 drives the partition 566 to move away, causing the aluminum square tube 6 to fall into the aluminum square tube placement space 523. The partition electric push rod 567 drives the partition 566 to close the bottom of the aluminum square tube buffer frame 564. This cycle continues until a certain number of aluminum square tubes 6 are fixed on the aluminum square tube fixing mechanism. Then, the first slide 54 stops moving, and the pressing push rod 552 drives the pressing plate 553 to move downward, pressing and fixing the aluminum square tube 6. After that, the cutting mechanism moves on the second slide 531 to cut the aluminum square tube 6, creating a bevel. Multiple aluminum square tubes can be cut at once, reducing manual labor and saving time.

Claims

1. A processing technology for an anti-deformation cabinet door, characterized in that, The anti-deformation cabinet door includes an upper decorative panel (1), a combined frame (2), and a lower decorative panel (3) arranged sequentially from top to bottom. The combined frame (2) includes an outer frame (21), an anti-deformation support inner frame (22), and a filling plate (23). The anti-deformation support inner frame (22) is located inside the outer frame (21), and the filling plate (23) is located inside the anti-deformation support inner frame (22). The anti-deformation support inner frame (22) is formed by two horizontal aluminum square tubes (221) and a vertical aluminum square tube (222). The processing technology of the anti-deformation cabinet door includes the following steps: S1, planing: Select a thick wooden board and plan it into thin planks to serve as the upper trim panel (1) and the lower trim panel (3). S2, Steaming and softening: The wooden boards are placed in an anti-insect liquid for steaming and softening. S3, Drying and leveling: The wood boards that have been softened by steaming are dried and leveled. S4, Making the outer frame: Cut the LVL board into horizontal and vertical pieces, and combine the horizontal and vertical pieces to form the outer frame (21). S5, Fabrication of the anti-deformation support inner frame: Cut the aluminum square tube into vertical aluminum square tube (222) and horizontal aluminum square tube (221) according to the required size. Cut the vertical aluminum square tube (222) and horizontal aluminum square tube (221) into a first bevel (223) and a second bevel (224) by the bevel cutting device (5). Then connect the vertical aluminum square tube (222) and horizontal aluminum square tube (221) by the connector (4) and then assemble them into an anti-deformation support inner frame (22). S6, Adhesion: Apply panel glue to the upper surface of the lower trim panel (3), place the outer frame (21) on the upper surface of the lower trim panel, and adhere the outer frame (21) to the upper surface of the lower trim panel (3). Then, apply a ring of ironwood glue to the lower trim panel (3) near the inner edge of the outer frame (21). Finally, fix the prepared anti-deformation support inner frame (22) at the position where the ironwood glue has been applied, so that the anti-deformation support inner frame (22) is fixed inside the outer frame (21) and with... The upper surface of the lower trim panel (3) is glued together. Then, the wood strips made of pine and miscellaneous wood are filled into the anti-deformation support inner frame (22) in the manner of finger joints. The wood strips are glued to the lower trim panel (3) through the splicing glue on the lower trim panel (3) to form a filling board (23). Then, the lower surface of the upper trim panel (1) is coated with splicing glue, and a ring of ironwood glue is applied to the upper surface of the anti-deformation support inner frame (22). The upper trim panel (1) is then covered on the combined frame to complete the assembly of the anti-deformation cabinet door. S7, Rolling: Roll the bonded anti-deformation cabinet door back and forth 3-4 times with a roller to make the anti-deformation cabinet door fit better. The oblique cutting device (5) includes a worktable (51), an aluminum square tube fixing mechanism (52), a cutting mechanism (53), a first slide (54), a pressing mechanism (55), and a feeding mechanism (56). Two first slides (54) are symmetrically arranged on the worktable (51). The aluminum square tube fixing mechanism (52) is slidably arranged on the first slide (54). The cutting mechanism (53) is located on the side of the worktable. The pressing mechanism (55) is located above the aluminum square tube fixing mechanism (52). The feeding mechanism (56) is located above the aluminum square tube fixing mechanism (52) and above the first slide (54). The feeding mechanism (56) includes an inclined discharge pipe (561), the feeding end of the discharge pipe (561) is higher than the discharge end of the discharge pipe, the discharge pipe (561) is fixedly installed on the frame (562), the feeding end of the discharge pipe (561) is fixedly connected to a feeding hopper (563), the discharge end of the discharge pipe (561) is fixedly connected to an aluminum square tube buffer frame (564), the bottom surface of the feeding hopper (563) is a downward inclined surface, the inclination angle is the same as the inclination angle of the discharge pipe (561), the bottom side of the feeding hopper (563) connected to the discharge pipe (561) has a discharge port (565) with the same diameter as the aluminum square tube, and the discharge port (565) is fixedly connected to the discharge pipe (561).

2. The processing technology for an anti-deformation cabinet door according to claim 1, characterized in that, The horizontal aluminum square tube (221) has a first bevel (223) at both ends, and the vertical aluminum square tube (222) has a second bevel (224) at both ends. The first bevel (223) and the second bevel (224) cooperate with each other.

3. The processing technology for an anti-deformation cabinet door according to claim 2, characterized in that, The horizontal aluminum square tube (221) and the vertical aluminum square tube (222) are connected by a connector (4). The connector (4) includes a horizontal insertion part (41) and a vertical insertion part (42). The horizontal insertion part (41) and the vertical insertion part (42) are perpendicular to each other. The upper and lower surfaces of the horizontal insertion part (41) and the vertical insertion part (42) are formed with cavities (43).

4. The processing technology for an anti-deformation cabinet door according to claim 1, characterized in that, The aluminum square tube fixing mechanism (52) includes a fixing plate (521) and dividing strips (522). The fixing plate (521) is slidably disposed on the first slide table (54). A plurality of dividing strips (522) are arranged in an inclined array above the fixing plate (521). An aluminum square tube placement space (523) is formed between two adjacent dividing strips (522).

5. The processing technology for an anti-deformation cabinet door according to claim 4, characterized in that, The aluminum square tube buffer frame (564) is located at the starting end of the first slide (54) and above the aluminum square tube placement space (523). The bottom of the aluminum square tube buffer frame (564) is connected to a partition (566). The outer side wall of the partition (566) is fixedly connected to a partition electric push rod (567). The partition electric push rod (567) is fixed to the worktable.

6. The processing technology for an anti-deformation cabinet door according to claim 1, characterized in that, The cutting mechanism (53) includes a second slide (531), a cutting blade drive motor (532), and a cutting blade (533). The second slide (531) is located on the side of the worktable (51) along its length. The cutting blade drive motor (532) is located on the second slide (531). The cutting blade (533) is fixedly connected to the output end of the cutting blade drive motor (532). The cutting blade (533) and the first slide (54) are parallel to each other.

7. The processing technology for an anti-deformation cabinet door according to claim 6, characterized in that, The pressing mechanism (55) includes a support frame (551), a pressing electric push rod (552), and a pressing plate (553). The support frame (551) is fixed above the workbench (51), the pressing electric push rod (552) is fixed on the support frame (551), and the pressing plate (553) is fixed at the push rod end of the pressing electric push rod (552) and the pressing plate (553) is located on the side of the aluminum square tube buffer frame (564). The side of the pressing plate near the starting end of the first slide (54) is an inclined surface, and the inclination angle of the inclined surface is the same as the inclination angle of the dividing strip (522).

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