A decorative panel pressing device for architectural design

Abstract

This invention belongs to the field of decorative panel pressing technology, specifically referring to a decorative panel pressing device for architectural design. It includes a base, a glue injection cylinder, an arc-shaped platform, a top-feeding processing mechanism, and a resistance-adjustable hot glue mechanism. The glue injection cylinder is located on the upper wall of the base, the arc-shaped platform is located on the upper wall of the glue injection cylinder, the top-feeding processing mechanism is located on the glue injection cylinder, and the resistance-adjustable hot glue mechanism is located on the top-feeding processing mechanism. The top-feeding processing mechanism includes a steering component, a lifting component, a pressing component, a scraping component, a glue supply component, and a feeding component. This invention provides a decorative panel pressing device for architectural design capable of real-time monitoring of the viscosity of the glue used during the pressing process and automatically controlling the glue heating temperature.

Description

Technical Field

[0001] This invention belongs to the field of decorative panel pressing technology, specifically referring to a decorative panel pressing device for architectural design. Background Technology

[0002] Architectural design refers to the process by which designers, before the formal construction of a building, comprehensively consider potential problems that may arise during the construction and use phases, based on the requirements of the construction task, and plan corresponding solutions and strategies in advance. These plans are then presented in the form of drawings and documents, serving as a unified basis for subsequent material preparation, construction organization, and collaborative work among various trades during the fabrication and construction process. In the pre-fabrication stage of design samples, rigid multi-layer decorative panels are often required, thus necessitating the use of multi-layer decorative panel pressing equipment.

[0003] The existing decorative panel pressing equipment used in architectural design has the following problems:

[0004] Existing decorative panel pressing equipment for architectural design lacks the ability to monitor the viscosity of the adhesive in the pressing cylinder in real time. This results in the use of adhesives that do not meet the viscosity requirements for the pressing operation, affecting the final pressing quality of the decorative panels. Furthermore, traditional decorative panel pressing equipment for architectural design cannot automatically adjust the temperature of the heater based on the viscosity of the pressing adhesive. Therefore, it cannot meet the current usage requirements for decorative panel pressing equipment for architectural design. Summary of the Invention

[0005] In order to overcome the shortcomings of the existing technology, this solution provides a building design decorative panel pressing equipment that can monitor the viscosity of the adhesive used in the pressing process in real time and automatically control the heating temperature of the adhesive.

[0006] The technical solution adopted in this plan is as follows: This plan proposes a decorative panel pressing equipment for architectural design, including a base, a glue injection cylinder, an arc-shaped platform, a top-feed processing mechanism, and a resistance-adjustable hot glue mechanism. The glue injection cylinder is located on the upper wall of the base, the arc-shaped platform is located on the upper wall of the glue injection cylinder, the top-feed processing mechanism is located on the glue injection cylinder, and the resistance-adjustable hot glue mechanism is located on the top-feed processing mechanism. The top-feed processing mechanism includes a steering component, a lifting component, a pressing component, a scraping component, a glue supply component, and a feeding component. The steering component is located inside the glue injection cylinder, the lifting component is located above the steering component, the pressing component is located on the side wall of the lifting component, the scraping component is located on the side wall of the lifting component on one side of the pressing component, the glue supply component is located on the upper wall of the steering component, and the feeding component is located on the upper wall of the base on one side of the glue injection cylinder. The resistance-adjustable hot glue mechanism includes a linkage component and a sensing component. The linkage component is located inside the glue injection cylinder, and the sensing component is located on the linkage component.

[0007] As a further preferred embodiment of the present invention, the steering assembly includes a groove, a drive motor, and a drive shaft. The groove is located at the bottom of the base and is open at one end. The drive motor is located inside the groove. The drive shaft is rotatably located at the bottom of the glue injection cylinder, with one end of the drive shaft extending through and out of the glue injection cylinder. The power end of the drive motor passes through the groove and the glue injection cylinder and is fixedly connected to the drive shaft. The lifting assembly includes a lifting groove, a metal block, a lifting spring, and a lifting electromagnet. The lifting groove is located at the end of the drive shaft away from the drive motor. The metal block is slidably located outside the lifting groove. The lifting spring is located between the metal block and the bottom wall of the lifting groove and is extended. The lifting electromagnet is located on the upper wall of the glue injection cylinder outside the drive shaft and is positioned opposite to the metal block. The pressing assembly includes a pressing frame and pressing rollers. Multiple sets of pressing frames are located on the side wall of the metal block, and the pressing rollers are rotatably located on the bottom wall of the pressing frame away from the metal block. The scraping assembly includes... The system includes a glue-scraping box and scrapers. The glue-scraping box is located on the side of the metal block away from the lower pressure frame, and the scrapers are symmetrically arranged on both sides of the glue-scraping box. The glue supply assembly includes a glue supply pump, an anti-sticking tube, a glue-feeding connector, and a glue suction port. The glue supply pump is located on the upper wall of the drive tube shaft, and the glue suction port is located on the bottom side wall of the drive tube shaft. The material suction end of the glue supply pump passes through the drive tube shaft and is connected to the glue suction port through the anti-sticking tube. The anti-sticking tube is connected between the material discharge end of the glue supply pump and the glue-scraping box. Multiple sets of glue-feeding connectors are connected and located in the glue-scraping box away from the metal block. The bottom wall of the material feeding assembly includes a top material cylinder, a top material slide, top material columns, a top material inlet, and a discharge trough. The top material cylinder is located on the upper wall of the base on one side of the glue injection cylinder. The top material slide is slidably located on the side wall of the glue injection cylinder below the arc-shaped platform. The power end of the top material cylinder is in contact with the bottom wall of the top material slide. Multiple sets of top material columns are located on the upper wall of the top material slide. The discharge trough is located on the upper wall of the arc-shaped platform and is open on three sides. Multiple sets of top material inlets are located on the bottom wall of the discharge trough. The top material columns and top material inlets are coaxially and vertically arranged.

[0008] In use, glue for bonding decorative panels is injected into the glue injection cylinder. The lifting spring is normally in its extended position. A layer of decorative panel is placed into the material feeding trough. The drive motor rotates the drive tube shaft via the power end, causing the glue scraper box to reach a position above one end of the curved platform. The lifting electromagnet is energized and generates magnetism, attracting a metal block. The metal block, deformed by the lifting spring, causes the glue scraper box to descend. The glue scraper box then moves the glue lowering connector closer to the decorative panel. At this point, the distance between the scraper and the upper wall of the decorative panel is the thickness of the glue layer. The glue supply pump delivers the glue from the injection cylinder through the suction port to the glue scraper box via the anti-stick tube. The glue scraper box then delivers the glue to the upper wall of the decorative panel through the glue lowering connector. The scraper, rotating with the glue scraper box, evenly spreads the glue on the upper wall of the decorative panel. Once the glue lowering connector has moved from one end of the curved platform to the other, the glue application of the decorative panel is complete. In operation, the lifting electromagnet is de-energized, and the metal block slides upward along the lifting groove, placing another decorative panel on the upper wall of the glued decorative panel. The drive motor continues to drive the drive tube shaft to rotate, and the drive tube shaft drives the lower pressure frame to rotate above the arc-shaped platform through the lifting groove. The lifting electromagnet is energized and generates magnetism. The lifting electromagnet is fixed to the upper wall of the glue injection cylinder and attracts the metal block through magnetic force. The metal block slides downward along the lifting groove, and the metal block drives the lower pressure roller to adhere to the upper wall of the decorative panel. The drive tube shaft drives the lower pressure roller through the metal block to perform a rolling operation on the decorative panel. After the decorative panel is pressed, the lifting electromagnet is de-energized, and the metal block is reset by the deformation of the lifting spring. The power end of the top material cylinder extends and pushes the top material slide table to slide upward along the side wall of the glue injection cylinder. The top material slide table drives the top material column through the top material opening to push out the pressed decorative panel inside the discharge groove. The operator removes the decorative panel that has been pushed out of the discharge groove.

[0009] Preferably, the linkage assembly includes a linkage magnet, a sliding ring, a connecting frame, and a magnetic sleeve. Multiple sets of linkage magnets are arranged sequentially from top to bottom on the outside of the drive tube shaft inside the dispensing cylinder. The sliding ring is rotatably arranged from top to bottom on the inner wall of the dispensing cylinder. The connecting frame is arranged on the inner wall of the sliding ring. The magnetic sleeve is arranged between the connecting frames on the outside of the drive tube shaft. The sensing assembly includes an inner sensing block, an inner proximity switch, an outer sensing block, an outer proximity switch, and a heater. Multiple sets of inner sensing blocks are arranged on the side wall of the linkage magnet. Multiple sets of inner proximity switches are arranged on the inner wall of the magnetic sleeve. Multiple sets of outer sensing blocks are arranged on the side of the sliding ring near the inner wall of the dispensing cylinder. Multiple sets of outer proximity switches are arranged through the inner wall of the dispensing cylinder. The inner sensing block, inner proximity switch, outer sensing block, and outer proximity switch are arranged horizontally. The heater is arranged through the inner wall of the dispensing cylinder between adjacent sliding rings. The heaters are arranged sequentially from top to bottom on the inner wall of the dispensing cylinder.

[0010] When in use, if the viscosity of the glue inside the dispensing tube is low, the drive tube shaft, through the magnetic attraction between the linkage magnet and the magnetic sleeve, drives the sliding ring to rotate along the inner wall of the dispensing tube. The sliding ring causes the outer sensing block to contact and disconnect with the outer proximity switch, while there is no change between the inner sensing block and the inner proximity switch. The operator needs to change the viscosity of the glue. If the viscosity of the glue inside the dispensing tube is high, due to the resistance of the glue, the drive tube shaft causes the linkage magnet to rotate freely. The linkage magnet causes the inner sensing block to contact and disconnect with the inner proximity switch, while there is no change between the outer sensing block and the outer proximity switch. The operator needs to change the viscosity of the glue.

[0011] Specifically, the side wall of the glue injection cylinder is equipped with a controller.

[0012] The controller is electrically connected to the drive motor, lifting electromagnet, glue supply pump, top material cylinder, inner sensing block, inner proximity switch, outer sensing block, outer proximity switch and heater respectively.

[0013] The beneficial effects achieved by this solution using the above structure are as follows:

[0014] Compared with existing technologies, this solution combines a top-feed processing mechanism and a resistance-adjustable hot glue mechanism. Through a set of steering, lifting, pressing, scraping, supplying, unloading, linkage, and sensing components, the viscosity of the glue inside the injection cylinder can be monitored in real time by the steering motion of the drive shaft when changing tools for the decorative panels. This ensures the bonding quality between the decorative panels. When the glue viscosity inside the injection cylinder is low, the drive shaft, through the magnetic attraction between the linkage magnet and the magnetic sleeve, drives the sliding ring to rotate along the inner wall of the injection cylinder. The sliding ring causes the outer sensing block to contact and disconnect with the outer proximity switch, while there is no change between the inner sensing block and the inner proximity switch. The operator needs to change the glue with lower viscosity. When the glue viscosity inside the injection cylinder is high, due to the resistance of the glue, the drive shaft drives the linkage magnet to rotate freely. The linkage magnet causes the inner sensing block to contact and disconnect with the inner proximity switch, while there is no change between the outer sensing block and the outer proximity switch. The operator needs to change the glue with higher viscosity. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the overall structure of this solution;

[0016] Figure 2 This is the front perspective stereoscopic view of this solution;

[0017] Figure 3 This is a bottom-view perspective of the design.

[0018] Figure 4 This is a schematic diagram of the internal structure of this solution;

[0019] Figure 5 This is a schematic diagram of the dispensing cylinder in this solution;

[0020] Figure 6 This is the main view of this solution;

[0021] Figure 7 This is a side view of the design.

[0022] Figure 8 This is a top view of the plan;

[0023] Figure 9 for Figure 8 Sectional view of AA section;

[0024] Figure 10 for Figure 8 Sectional view of BB section;

[0025] Figure 11 for Figure 10 Enlarged structural view of section I;

[0026] Figure 12 for Figure 4 Enlarged structural view of Part II.

[0027] The components include: 1. Base; 2. Glue injection cylinder; 3. Arc-shaped platform; 4. Top-feed processing mechanism; 5. Steering assembly; 6. Groove; 7. Drive motor; 8. Drive tube shaft; 9. Lifting assembly; 10. Lifting groove; 11. Metal block; 12. Lifting spring; 13. Lifting electromagnet; 14. Pressing assembly; 15. Pressing frame; 16. Pressing roller; 17. Glue scraping assembly; 18. Glue scraping box; 19. Scraper; 20. Glue supply assembly; 21. Glue supply pump; 22. Anti-stick glue tube; 23. 24. Adhesive connector, 25. Adjustable resistance hot glue mechanism, 26. Linkage assembly, 27. Linkage magnet, 28. Sliding ring, 29. Connecting frame, 30. Magnetic sleeve, 31. Sensing assembly, 32. Inner sensing block, 33. Inner proximity switch, 34. Outer sensing block, 35. Outer proximity switch, 36. Heater, 37. Controller, 38. Adhesive suction port, 39. Material feeding assembly, 40. Material ejector cylinder, 41. Material ejector slide, 42. Material ejector column, 43. Material ejector port, 44. Material discharge trough.

[0028] The accompanying drawings are provided to further understand the present solution and form part of the specification. They are used together with the embodiments of the present solution to explain the present solution and do not constitute a limitation thereof. Detailed Implementation

[0029] The technical solutions in this embodiment will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this solution, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of this solution without creative effort are within the scope of protection of this solution.

[0030] In the description of this solution, it should be understood that the terms "upper", "lower", "front", "rear", "left", "right", "top", "bottom", "inner", and "outer" indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this solution and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this solution.

[0031] like Figures 1-12 As shown, this solution proposes a decorative panel pressing device for architectural design, comprising a base 1, a glue injection cylinder 2, an arc-shaped platform 3, a top-feeding processing mechanism 4, and a resistance-adjustable hot glue mechanism 24. The glue injection cylinder 2 is located on the upper wall of the base 1, the arc-shaped platform 3 is located on the upper wall of the glue injection cylinder 2, the top-feeding processing mechanism 4 is located on the glue injection cylinder 2, and the resistance-adjustable hot glue mechanism 24 is located on the top-feeding processing mechanism 4. The top-feeding processing mechanism 4 includes a steering assembly 5, a lifting assembly 9, a pressing assembly 14, a glue scraping assembly 17, a glue supply assembly 20, and a material unloading assembly 38. The steering assembly 5 is located inside the glue injection cylinder 2. The lifting assembly 9 is located on the upper part of the steering assembly 5. The pressing assembly 14 is located on the side wall of the lifting assembly 9. The scraping assembly 17 is located on the side wall of the lifting assembly 9 on one side of the pressing assembly 14. The glue supply assembly 20 is located on the upper wall of the steering assembly 5. The feeding assembly 38 is located on the upper wall of the base 1 on one side of the glue injection cylinder 2. The resistance-adjustable hot glue mechanism 24 includes a linkage assembly 25 and a sensing assembly 30. The linkage assembly 25 is located inside the glue injection cylinder 2, and the sensing assembly 30 is located on the linkage assembly 25.

[0032] The steering assembly 5 includes a groove 6, a drive motor 7, and a drive shaft 8. The groove 6 is located at the bottom of the base 1 and is open at one end. The drive motor 7 is located inside the groove 6. The drive shaft 8 is rotatably mounted at the bottom of the glue injection cylinder 2, with one end of the drive shaft 8 extending through and out of the glue injection cylinder 2. The power end of the drive motor 7 passes through the groove 6 and the glue injection cylinder 2 and is fixedly connected to the drive shaft 8. The lifting assembly 9 includes a lifting groove 10, a metal block 11, a lifting spring 12, and a lifting electromagnet 13. The lifting groove 10 is located at the end of the drive shaft 8 away from the drive motor 7. The metal block 11 is slidably disposed on the outside of the lifting groove 10. The lifting spring 12 is disposed between the metal block 11 and the bottom wall of the lifting groove 10. The lifting spring 12 is extended. The lifting electromagnet 13 is disposed on the upper wall of the glue injection cylinder 2 outside the drive tube shaft 8. The lifting electromagnet 13 is disposed opposite to the metal block 11. The pressing assembly 14 includes a pressing frame 15 and a pressing roller 16. Multiple sets of pressing frames 15 are disposed on the side wall of the metal block 11. The pressing roller 16 is rotatably disposed on the bottom wall of the pressing frame 15 away from the metal block 11. The glue scraping assembly 17 includes a glue scraping box 18 and a scraper 19. The 18 is located on the side of the metal block 11 away from the lower pressure frame 15, and the scraper 19 is symmetrically arranged on both sides of the scraper box 18; the glue supply assembly 20 includes a glue supply pump 21, an anti-sticking tube 22, a glue discharge connector 23, and a glue suction port 37. The glue supply pump 21 is located on the upper wall of the drive tube shaft 8, and the glue suction port 37 is located on the bottom side wall of the drive tube shaft 8. The material extraction end of the glue supply pump 21 passes through the drive tube shaft 8 and is connected to the glue suction port 37 through the anti-sticking tube. The anti-sticking tube 22 is connected between the material discharge end of the glue supply pump 21 and the scraper box 18. Multiple sets of glue discharge connectors 23 are connected on the bottom wall of the scraper box 18 away from the metal block 11. The feeding assembly 38 includes a top feeding cylinder 39, a top feeding slide 40, top feeding columns 41, top feeding ports 42, and a discharge trough 43. The top feeding cylinder 39 is located on the upper wall of the base 1 on one side of the glue injection cylinder 2. The top feeding slide 40 is slidably located on the side wall of the glue injection cylinder 2 below the arc-shaped platform 3. The power end of the top feeding cylinder 39 is in contact with the bottom wall of the top feeding slide 40. Multiple sets of top feeding columns 41 are located on the upper wall of the top feeding slide 40. The discharge trough 43 is located on the upper wall of the arc-shaped platform 3 and is open on three sides. Multiple sets of top feeding ports 42 are located on the bottom wall of the discharge trough 43. The top feeding columns 41 and the top feeding ports 42 are coaxially and vertically arranged.

[0033] The linkage assembly 25 includes a linkage magnet 26, a sliding ring 27, a connecting frame 28, and a magnetic sleeve 29. Multiple sets of linkage magnets 26 are arranged sequentially from top to bottom on the outside of the drive tube shaft 8 inside the dispensing cylinder 2. The sliding ring 27 is rotatably disposed from top to bottom on the inner wall of the dispensing cylinder 2. The connecting frame 28 is disposed on the inner wall of the sliding ring 27, and the magnetic sleeve 29 is disposed between the connecting frames 28 on the outside of the drive tube shaft 8. The sensing assembly 30 includes an inner sensing block 31, an inner proximity switch 32, an outer sensing block 33, an outer proximity switch 34, and a heater 3. 5. Multiple sets of inner sensing blocks 31 are disposed on the side wall of the linkage magnet 26, multiple sets of inner proximity switches 32 are disposed on the inner wall of the magnetic sleeve 29, multiple sets of outer sensing blocks 33 are disposed on the side of the sliding ring 27 near the inner wall of the glue injection cylinder 2, and multiple sets of outer proximity switches 34 are disposed through the inner wall of the glue injection cylinder 2. The inner sensing blocks 31, inner proximity switches 32, outer sensing blocks 33 and outer proximity switches 34 are horizontally arranged, and the heater 35 is disposed through the inner wall of the glue injection cylinder 2 between adjacent sliding rings 27. The heaters 35 are disposed sequentially from top to bottom on the inner wall of the glue injection cylinder 2.

[0034] The glue injection cylinder 2 is equipped with a controller 36 on its side wall.

[0035] The controller 36 is electrically connected to the drive motor 7, the lifting electromagnet 13, the glue supply pump 21, the top material cylinder 39, the inner sensing block 31, the inner proximity switch 32, the outer sensing block 33, the outer proximity switch 34, and the heater 35.

[0036] In practical use, glue for pressing decorative panels is injected into the glue injection cylinder 2. The lifting spring 12 is normally extended. A layer of decorative panel with the same shape and size as the material feeding groove 43 is placed inside the material feeding groove 43.

[0037] The controller 36 controls the drive motor 7 to start, and the drive motor 7 drives the drive tube shaft 8 to rotate through the power end. The drive tube shaft 8 drives the glue scraper box 18 to reach one end of the arc-shaped platform 3. The controller 36 controls the lifting electromagnet 13 to start. The lifting electromagnet 13 generates magnetism when energized. The lifting electromagnet 13 attracts the metal block 11. The metal block 11 uses the deformation of the lifting spring 12 to drive the glue scraper box 18 to descend. The glue scraper box 18 drives the glue joint 23 to approach the decorative panel. At this time, the distance between the scraper 19 and the upper wall of the decorative panel is the thickness of the glue layer.

[0038] The controller 36 controls the glue supply pump 21 to start. The glue supply pump 21 delivers the glue inside the glue injection cylinder 2 through the glue suction port 37 and the anti-stick glue tube 22 to the glue scraper box 18. The glue scraper box 18 sprays the glue onto the upper wall of the decorative panel through the glue dispensing connector 23. The scraper 19 scrapes the glue sprayed on the upper wall of the decorative panel evenly as the glue scraper box 18 rotates. After the glue dispensing connector 23 moves from one end of the curved platform 3 to the other end, the glue application operation on the decorative panel is completed.

[0039] The controller 36 controls the lifting electromagnet 13 to be de-energized and demagnetized. The metal block 11 slides up along the lifting groove 10 and places another decorative panel on the upper wall of the glued decorative panel. The drive motor 7 continues to drive the drive tube shaft 8 to rotate. The drive tube shaft 8 drives the lower pressure frame 15 to rotate above the arc-shaped platform 3 through the lifting groove 10. The controller 36 controls the lifting electromagnet 13 to be energized and generate magnetism. The lifting electromagnet 13 is fixed on the upper wall of the glue injection cylinder 2 and attracts the metal block 11 through magnetic force. The metal block 11 slides down along the lifting groove 10. The metal block 11 drives the lower pressure roller 16 to stick to the upper wall of the decorative panel. The drive motor 7 drives the drive tube shaft 8 to reciprocate within a small angle. The drive tube shaft 8 drives the lower pressure roller 16 through the metal block 11 to perform a rolling operation on the decorative panel.

[0040] After the decorative panel is pressed, the controller 36 controls the lifting electromagnet 13 to be de-energized and demagnetized. The metal block 11 is reset by the deformation of the lifting spring 12. The controller 36 controls the top material cylinder 39 to start. The power end of the top material cylinder 39 extends and pushes the top material slide 40 to slide and rise along the side wall of the glue injection cylinder 2. The top material slide 40 drives the top material column 41 to pass through the top material opening 42 and push out the pressed decorative panel inside the discharge groove 43. The operator takes out the decorative panel that has been pushed out of the discharge groove 43.

[0041] After the decorative panel is removed, the lower pressure frame 15 needs to be adjusted away from the top of the arc-shaped platform 3. After the drive tube shaft 8 rotates at a large angle, it will drive the glue scraper box 18 to reach the top of one end of the arc-shaped platform 3.

[0042] The controller 36 controls the inner proximity switch 32 and the outer proximity switch 34 to start. When the viscosity of the glue inside the glue dispensing cylinder 2 is low, the drive tube shaft 8 drives the sliding ring 27 to rotate along the inner wall of the glue dispensing cylinder 2 through the magnetic attraction between the linkage magnet 26 and the magnetic sleeve 29. The sliding ring 27 drives the outer sensing block 33 to contact and disconnect with the outer proximity switch 34. There is no change between the inner sensing block 31 and the inner proximity switch 32. When the operator needs to change the viscosity of the glue, the controller 36 controls the heater 35 to start. The heater 35 lowers the heating temperature of the glue inside the glue dispensing cylinder 2.

[0043] When the viscosity of the glue inside the glue dispensing cylinder 2 is high, due to the resistance of the glue, the drive tube shaft 8 drives the linkage magnet 26 to rotate idly. The linkage magnet 26 drives the inner sensing block 31 to contact and disconnect with the inner proximity switch 32, while there is no change between the outer sensing block 33 and the outer proximity switch 34. When the operator needs to change the viscosity of the glue, the controller 36 controls the heater 35 to start, and the heater 35 raises the heating temperature of the glue inside the glue dispensing cylinder 2.

[0044] When the viscosity of the glue inside the glue injection cylinder 2 is appropriate, under the low resistance of the glue, the drive shaft 8 can rotate, which can drive the magnetic sleeve 29 to rotate through the linkage magnet 26. The magnetic sleeve 29 drives the sliding ring 27 to rotate along the inner wall of the glue injection cylinder 2 through the connecting frame 28. The inner sensing block 31 contacts and disconnects from the inner proximity switch 32, and the outer sensing block 33 contacts and disconnects from the outer proximity switch 34, thereby ensuring the pressing quality of the decorative panel. The above operation can be repeated for the next use.

[0045] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0046] The present solution and its implementation methods have been described above. This description is not restrictive, and the accompanying drawings are only one embodiment of the present solution; the actual structure is not limited to this. In conclusion, if a person skilled in the art, inspired by this description, designs a similar structure and embodiment without departing from the inventive intent of this solution, such design should fall within the protection scope of this solution.

Claims

1. A decorative panel pressing device for architectural design, comprising a base, an injection cylinder, and an arc-shaped table, characterized in that: It also includes a top-feed processing mechanism and a resistance-adjustable hot glue mechanism. The glue injection cylinder is located on the upper wall of the base, the arc-shaped platform is located on the upper wall of the glue injection cylinder, the top-feed processing mechanism is located on the glue injection cylinder, and the resistance-adjustable hot glue mechanism is located on the top-feed processing mechanism. The top-feed processing mechanism includes a steering component, a lifting component, a pressing component, a scraping component, a glue supply component, and a discharging component. The steering component is located inside the glue injection cylinder, the lifting component is located on the upper part of the steering component, the pressing component is located on the side wall of the lifting component, the scraping component is located on the side wall of the lifting component on one side of the pressing component, the glue supply component is located on the upper wall of the steering component, and the discharging component is located on the upper wall of the base on one side of the glue injection cylinder. The resistance-adjustable hot glue mechanism includes a linkage component and a sensing component. The linkage component is located inside the glue injection cylinder, and the sensing component is located on the linkage component. The steering assembly includes a drive tube shaft, a groove, and a drive motor; The groove is located at the bottom of the base and is open at one end. The drive motor is located inside the groove, and the drive tube shaft is located at the bottom of the glue injection cylinder. The end of the drive tube shaft away from the bottom of the glue injection cylinder passes through and extends into the glue injection cylinder. The power end of the drive motor passes through the groove and the glue injection cylinder and is fixedly connected to the drive tube shaft. The linkage assembly includes a linkage magnet, a sliding ring, a connecting frame, and a magnetic sleeve. Multiple linkage magnets are arranged from top to bottom on the outside of the drive tube shaft inside the glue injection cylinder. The sliding ring is arranged from top to bottom on the inner wall of the glue injection cylinder. The connecting frame is arranged on the inner wall of the sliding ring. The magnetic sleeve is arranged between the connecting frames on the outside of the drive tube shaft. The sensing component includes an inner sensing block, an inner proximity switch, an outer sensing block, an outer proximity switch, and a heater. Multiple sets of inner sensing blocks are located on the side wall of the linkage magnet, multiple sets of inner proximity switches are located on the inner wall of the magnetic sleeve, multiple sets of outer sensing blocks are located on the side of the sliding ring near the inner wall of the glue injection cylinder, and multiple sets of outer proximity switches are installed through the inner wall of the glue injection cylinder. The inner sensing block, inner proximity switch, outer sensing block, and outer proximity switch are horizontally arranged, and the heater is installed through the inner wall of the glue injection cylinder between adjacent sliding rings. The heaters are installed sequentially from top to bottom on the inner wall of the glue injection cylinder. The lifting assembly includes a lifting groove, a metal block, a lifting spring, and a lifting electromagnet. The lifting groove is located at the end of the drive tube shaft away from the drive motor. The metal block is slidably located on the outside of the lifting groove. The lifting spring is located between the metal block and the bottom wall of the lifting groove. The lifting spring is extended. The lifting electromagnet is located on the upper wall of the glue injection cylinder outside the drive tube shaft. The lifting electromagnet is positioned opposite to the metal block.

2. The decorative panel pressing equipment for architectural design according to claim 1, characterized in that: The pressing assembly includes a pressing frame and a pressing roller. Multiple pressing frames are disposed on the side wall of the metal block, and the pressing roller is rotatably disposed on the bottom wall of the pressing frame away from the metal block.

3. The decorative panel pressing equipment for architectural design according to claim 2, characterized in that: The glue scraping assembly includes a glue scraping box and a scraper. The glue scraping box is located on the side of the metal block away from the lower pressure frame, and the scraper is symmetrically arranged on both sides of the glue scraping box.

4. The decorative panel pressing equipment for architectural design according to claim 3, characterized in that: The glue supply assembly includes a glue supply pump, an anti-sticking tube, a glue discharge connector, and a glue suction port. The glue supply pump is located on the upper wall of the drive tube shaft, and the glue suction port is located on the bottom side wall of the drive tube shaft. The material suction end of the glue supply pump passes through the drive tube shaft and is connected to the glue suction port through the anti-sticking tube. The anti-sticking tube is connected between the material discharge end of the glue supply pump and the glue scraper box. Multiple sets of glue discharge connectors are connected on the bottom wall of the glue scraper box at the end away from the metal block.

5. The decorative panel pressing equipment for architectural design according to claim 4, characterized in that: The feeding assembly includes a top feeding cylinder, a top feeding slide, top feeding columns, a top feeding port, and a discharge trough. The top feeding cylinder is located on the upper wall of the base on one side of the glue injection cylinder. The top feeding slide is slidably located on the side wall of the glue injection cylinder below the arc-shaped platform. The power end of the top feeding cylinder is in contact with the bottom wall of the top feeding slide. Multiple sets of top feeding columns are located on the upper wall of the top feeding slide. The discharge trough is located on the upper wall of the arc-shaped platform and is open on three sides. Multiple sets of top feeding ports are located on the bottom wall of the discharge trough. The top feeding columns and top feeding ports are coaxially and vertically arranged.

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