Honeycomb hooking and lapping plate aluminum alloy ceiling

Abstract

The invention discloses a honeycomb hooking and lapping plate aluminum alloy ceiling, which belongs to the technical field of aluminum alloy ceilings and comprises an aluminum alloy outer plate, and a supporting structure is mounted on the inner surface layer of the aluminum alloy outer plate. By designing the honeycomb structure, the supporting structure and the adjusting mechanism, the honeycomb hooking and lapping plate aluminum alloy ceiling can quickly cope with the size change problem in the using process, cutting is more accurate, meanwhile, attaching between plates is tighter, and in addition, the service life of the aluminum alloy ceiling is prolonged. When the large honeycomb hooking and lapping plate is used, the large honeycomb hooking and lapping plate can be better supported through the supporting structure, stress is dispersed, and deformation is avoided.

Description

Technical Field

[0001] This invention belongs to the field of aluminum alloy ceiling technology, specifically relating to a honeycomb hook-and-loop aluminum alloy ceiling. Background Technology

[0002] Aluminum alloy ceiling panels, as a modern building decoration material, are widely used in commercial and industrial fields. Their main characteristics are lightweight, high strength, corrosion resistance, and oxidation resistance, effectively extending their service life. Aluminum alloy ceiling panels are typically made of high-quality aluminum alloy materials, processed with special techniques to achieve a smooth surface and strong stain resistance, making them suitable for various interior design styles. Compared to traditional wooden or plastic ceiling panels, aluminum alloy ceiling panels not only have better fire resistance but also resist moisture and temperature changes. Furthermore, aluminum alloy ceiling panels are easy to install and maintain, allowing for easy disassembly and cleaning, making them very popular in the market.

[0003] Currently, honeycomb hook-and-loop aluminum alloy ceiling panels are frequently used in conference rooms or gymnasiums, and multiple panels need to be spliced ​​together to form a complete ceiling surface. Existing honeycomb hook-and-loop aluminum alloy ceiling panels require extra-large aluminum single panels for splicing. Over time, the ceiling will sag due to gravity, which will affect the aesthetics of the aluminum alloy ceiling and pose a safety hazard. In addition, honeycomb hook-and-loop aluminum alloy ceiling panels need to be cut and trimmed during the ceiling installation process, which will require the hook-and-loop parts to be reinstalled during the ceiling support process, thus extending the assembly period. Summary of the Invention

[0004] The technical problem to be solved by the present invention is to overcome the shortcomings of the prior art and provide a honeycomb hook panel aluminum alloy ceiling.

[0005] The technical solution adopted to solve the above technical problems is: a honeycomb hook panel aluminum alloy ceiling, including an aluminum alloy outer panel, wherein a support structure is installed on the inner surface of the aluminum alloy outer panel.

[0006] The aluminum alloy outer panel has a first splicing component installed on one side, and the first splicing component is in the shape of a barb.

[0007] Preferably, the aluminum alloy outer panel has a honeycomb structure installed inside to form a supporting honeycomb hook panel. The honeycomb structure includes a honeycomb layer, which is composed of multiple hexagons spliced ​​together. A second polymer adhesive layer for fixing is provided at the bottom of the honeycomb layer. The inner surface of the aluminum alloy outer panel is sprayed with polyester paint that contacts the second polymer adhesive layer. A first polymer adhesive layer for fixing is provided at the top of the honeycomb layer, and an aluminum plate is fixed on the top of the first polymer adhesive layer. The surface of the aluminum plate is sprayed with fluorocarbon paint.

[0008] Using the above technical solution, an aluminum alloy outer panel can be used to create a basic ceiling frame. A honeycomb structure is then used to support and reinforce the interior of the panel, while also providing corrosion protection to prevent a decrease in panel quality over prolonged use. Specifically, multiple hexagonal honeycomb layers are used to form the honeycomb layer, which is supported by an aluminum honeycomb core, increasing the overall stability of the panel. A first and second polymer adhesive layers are sprayed separately to give the honeycomb layer adhesive properties. An aluminum panel is then placed on top and bonded to the first polymer adhesive layer, and then coated with fluorocarbon paint to create a dense, non-porous ceiling that resists moisture, acid rain, and salt spray corrosion. This makes it suitable for large, high-humidity locations such as swimming pools and coastal buildings. The bottom is bonded to the aluminum alloy outer panel using a second polymer adhesive layer, and the aluminum alloy outer panel is coated with polyester paint for protection, effectively improving resistance to minor scratches and daily wear.

[0009] Preferably, the support structure is a first support structure used to obliquely support the honeycomb hook panel and disperse the shear stress in the diagonal direction. The first support structure includes a plurality of first strip-shaped ribs stamped on the surface of the aluminum alloy outer panel. Every nine first strip-shaped ribs form a group to be set as a first rib group. The surface of the aluminum alloy outer panel is provided with multiple groups of first ribs, and the multiple groups of first ribs form a cross shape, thereby forming a dual support of panel ribs and honeycomb core. The surfaces of the multiple groups of first ribs are connected to a second polymer adhesive layer and polyester paint.

[0010] The above technical solution uses a honeycomb structure as the base of the honeycomb hook-and-loop ceiling panel, while a supporting structure is used for further reinforcement. Layered arrangement and shape configuration are achieved through panel stripe reinforcement, honeycomb arrangement reconstruction, and the superposition of irregularly shaped support layers, thereby optimizing stress distribution and solving the problem of dents in large aluminum alloy ceiling panels. Specifically, the first supporting structure involves stamping out cross-shaped ribs on the inner surface of the aluminum alloy outer panel. The spacing of the ribs is set according to the panel size, forming a double support of the panel ribs and the honeycomb core. The direction of the ribs forms a 45° angle with the long side of the hexagon of the honeycomb core. This diagonal support disperses the shear stress in the diagonal direction, making it suitable for large rectangular panels. It is important to understand that the honeycomb layer is formed by a vertical row arrangement, so the direction of the ribs mainly forms an angle with the long side. Nine first strip-shaped ribs are used as a group to form the first rib group. Multiple groups of first ribs are used to form a cross shape, providing support and preventing dents from forming after prolonged use. Furthermore, during the ceiling cutting process, the panel can be cut along one side of the cross shape, thus maintaining stability even when the remaining portion is used.

[0011] Preferably, the support structure is a second support structure, which supports the hook panel while the elastic deformation of the corrugations absorbs local bending stress. The second support structure includes multiple corrugated ribs stamped on the surface of the aluminum alloy outer panel. Every nine corrugated ribs are grouped together as a second rib group. The surface of the aluminum alloy outer panel is provided with multiple groups of second ribs, and the multiple groups of second ribs form a corrugated star shape, so that the stress is diffused along the corrugation direction. The surfaces of the multiple groups of second ribs are connected to a second polymer adhesive layer and polyester paint.

[0012] Through the above technical solution, a second support structure is set up inside the hook panel, and the star pattern is changed into a wavy stripe. The direction of the wavy stripe is perpendicular to the main stress direction of the panel, such as the bending moment direction caused by its own weight. The elastic deformation of the wavy stripe absorbs the local bending stress and allows the stress to diffuse along the wavy direction. For the corner area, radial stripes are used, which radiate from the hook edge to the center. The stripe spacing increases from the edge to the center, guiding the corner stress to disperse to the center and avoiding the hook edge from warping due to stress concentration. Specifically, nine wavy ribs are set up as a group to form a second rib group. At the same time, multiple groups of second ribs are set up in a star pattern to form a support body.

[0013] Preferably, the support structure is a third support structure, which supports the honeycomb hook panel while dividing the panel into multiple small-span units. The third support structure includes multiple second strip-shaped ribs stamped on the surface of the aluminum alloy outer panel. Every nine second strip-shaped ribs form a group to be a third rib group, and multiple groups of third ribs intersect horizontally and vertically to form a grid pattern. The concentrated load is converted into a line load and transferred to the honeycomb core through the orthogonal grid, reducing the stress on the panel. The surfaces of the multiple groups of third ribs are connected to a second polymer adhesive layer and polyester paint.

[0014] The above technical solution uses a third support structure inside the hook panel, so that the ribs form a grid shape. The grid-shaped ribs can achieve efficient stress dispersion and deformation control without changing the honeycomb core structure, through the orthogonal grid reinforcement on the inner side of the panel. Its core advantages are mature technology and controllable cost. It is suitable for indoor ceilings, curtain walls and other scenarios with high flatness requirements. Specifically, nine second strip ribs are used as a group to set up the third rib group. At the same time, multiple groups of third ribs are used to form a grid shape for support by intersecting horizontally and vertically.

[0015] Preferably, the aluminum alloy outer plate is equipped with an adjustment mechanism for rapid positioning and cutting to achieve assembly. The adjustment mechanism includes sliding grooves on the front and rear plates of the aluminum alloy outer plate, and threaded rods are fixed inside both sliding grooves. The outer walls of the two threaded rods are slidably connected to a second component that can move at any position. Two movable buckles are installed at the bottom of the second component, and movable plates are installed at the other ends of the two movable buckles. The top of the two sliding grooves is provided with a scale groove for calibrating accuracy. Two round holes are provided on the side of the aluminum alloy outer plate near the first component. Nuts for fitting and fixing are installed on the outer walls of the two threaded rods. Two fixing screws are provided on the surface of the movable plate. A limiting groove for fitting the corresponding fixing screw is provided on one side of the aluminum alloy outer plate.

[0016] With the above technical solution, when the honeycomb hook-and-loop ceiling panel is used, and cutting is required, the adjustment mechanism can be used to quickly adjust according to the needs. The panel can be moved and measured simultaneously to cut according to the required width, reducing the use of auxiliary tools and enabling rapid assembly. Specifically, when the honeycomb hook-and-loop ceiling panel is used, the two fixing screws and two nuts can be quickly removed. Then, the second mounting piece can be pushed along the two sliding grooves until the required length is reached. At the same time, the second mounting piece can be cut according to one side. After cutting, the fixing screws can be reinstalled. Then, the second mounting piece can be aligned with the first mounting piece of another panel. At the same time, the two threaded rods after cutting can be passed through the round holes of the other panel. Finally, the nuts can be installed, thereby effectively improving the adhesion and stability between the two panels.

[0017] The beneficial effects of this invention are as follows: (1) By designing a honeycomb structure, a support structure, and an adjustment mechanism, this invention enables the honeycomb hook panel aluminum alloy ceiling to quickly respond to size changes during use, and makes cutting more accurate. At the same time, the fit between the panels is tighter. In addition, large honeycomb hook panels can be better supported and stress-dispersed by the support structure during use, thus avoiding deformation. (2) By adjusting the mechanism, this invention can move and cut the honeycomb hook panel according to the required length during use, accurately aligning the required length, and marking and cutting according to the panel itself, reducing the use of auxiliary tools, and finally enabling quick fixing. (3) This invention supports and fixes the honeycomb hook panel through the honeycomb structure and support structure, ensuring that the large honeycomb hook panel aluminum alloy ceiling is used. The diagonal support disperses the shear stress in the diagonal direction, preventing the hook panel from denting and deforming during long-term use, thereby improving the quality of the honeycomb hook panel aluminum alloy ceiling. Attached Figure Description

[0018] Figure 1 This is a structural schematic diagram from a first perspective of the present invention; Figure 2 This is a structural schematic diagram from a second perspective of the present invention; Figure 3 yes Figure 2 A magnified view of a section at point A in the middle; Figure 4 This is the front view of the present invention; Figure 5 This is a schematic diagram of the internal structure of the adjustment mechanism of the present invention; Figure 6 yes Figure 5 A magnified view of a section at point B in the middle; Figure 7 This is a schematic diagram of the internal structure of the present invention; Figure 8 This is a schematic diagram of the honeycomb structure of the present invention; Figure 9 yes Figure 8 A magnified view of a section at point C; Figure 10 This is a structural schematic diagram of Embodiment 1 of the present invention; Figure 11 This is a schematic diagram of the structure of Embodiment 2 of the present invention; Figure 12 This is a schematic diagram of the structure of Embodiment 3 of the present invention.

[0019] Reference numerals: 11. Aluminum alloy outer plate; 12. First assembly; 2. Honeycomb structure; 21. Fluorocarbon spray paint; 22. Aluminum plate; 23. First polymer adhesive layer; 24. Honeycomb layer; 25. Second polymer adhesive layer; 26. Polyester paint; 3. Support structure; 31. First support structure; 311. First strip rib; 312. First rib group; 32. Second support structure; 321. Wavy rib; 322. Second rib group; 33. Third support structure; 331. Second strip rib; 332. Third rib group; 4. Adjustment mechanism; 41. Scale groove; 42. Second assembly; 43. Movable plate; 44. Movable buckle; 45. Slide groove; 46. Threaded rod; 47. Nut; 48. Fixing screw; 49. Limiting groove; 410. Round hole. Detailed Implementation

[0020] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the invention. Example 1

[0021] like Figures 1-12As shown, this embodiment of a honeycomb hook-and-loop aluminum alloy ceiling includes an aluminum alloy outer panel 11. A support structure 3 is installed on the inner surface of the aluminum alloy outer panel 11. A first connecting piece 12 for splicing is installed on one side of the aluminum alloy outer panel 11. The first connecting piece 12 is hook-shaped. A honeycomb structure 2 is installed inside the aluminum alloy outer panel 11 to form a support for the honeycomb hook-and-loop panel. The honeycomb structure 2 includes a honeycomb layer 24, which is composed of multiple hexagonal splices. A second polymer adhesive layer 25 for fixing is provided at the bottom of the honeycomb layer 24. The inner surface of the aluminum alloy outer panel 11 is sprayed with polyester paint 26 that contacts the second polymer adhesive layer 25. A first polymer adhesive layer 23 for fixing is provided at the top of the honeycomb layer 24, and an aluminum plate 22 is fixed to the top of the first polymer adhesive layer 23. The surface of the aluminum plate 22 is sprayed with fluorocarbon paint 21. In use, the aluminum alloy outer panel 11 can be used to create a basic ceiling frame. Subsequently, the honeycomb structure 2 is used to support and reinforce the interior of the panel, while also providing corrosion protection to prevent the panel quality from deteriorating over long-term use. Specifically, multiple hexagons are used to form a honeycomb layer 24, which is supported by an aluminum honeycomb core, increasing the overall stability of the panel. A first polymer adhesive layer 23 and a second polymer adhesive layer 25 are sprayed on top to make the honeycomb layer 24 adhesive. In addition, an aluminum plate 22 is placed on top and bonded to the first polymer adhesive layer 23. Fluorocarbon paint 21 is then applied to the top to make the ceiling dense and non-porous, which can resist moisture, acid rain, and salt spray corrosion. It is suitable for large venues with high humidity, such as swimming pools and coastal buildings. The bottom is bonded to the aluminum alloy outer panel 11 using the second polymer adhesive layer 25. The aluminum alloy outer panel 11 is then coated with polyester paint 26 for protection, which can effectively improve resistance to minor scratches and daily wear.

[0022] like Figure 10As shown, the support structure 3 is the first support structure 31, used to obliquely support the honeycomb hook panel and disperse the shear stress in the diagonal direction. The first support structure 31 includes multiple first strip-shaped protrusions 311 stamped on the surface of the aluminum alloy outer panel 11. Every nine first strip-shaped protrusions 311 form a group of first protrusion groups 312. Multiple groups of first protrusion groups 312 are provided on the surface of the aluminum alloy outer panel 11, and the multiple groups of first protrusion groups 312 form a star shape, thus forming a dual support of panel protrusions and honeycomb core. The surfaces of the multiple groups of first protrusion groups 312 are connected to the second polymer adhesive layer 25 and polyester paint 26. The honeycomb structure 2 is used as the base of the honeycomb hook panel ceiling, and the support structure 3 is used for further reinforcement. Through panel strip reinforcement, honeycomb arrangement reconstruction, and irregular support layer superposition, layering and shape configuration are achieved, thereby optimizing stress distribution and solving the problem. To address the issue of dents in large aluminum alloy ceiling panels, a first support structure 31 is utilized. Specifically, a star-shaped rib is stamped onto the inner surface of the aluminum alloy outer panel 11. The spacing of the ribs is set according to the panel size, forming a double support of the panel ribs and the honeycomb core. The direction of the ribs forms a 45° angle with the long side of the hexagon of the honeycomb core. This diagonal support disperses the shear stress in the diagonal direction, making it suitable for large rectangular panels. It should be noted that the honeycomb layer 24 is formed by a row arrangement, so the direction of the ribs mainly forms an angle with the long side. Nine first strip ribs 311 are used as a group to form a first rib group 312. At the same time, multiple groups of first rib groups 312 are used to form a star shape to form support, preventing dents from forming after long-term use. Furthermore, during the cutting process of the ceiling, it can be cut along one side of the star shape, so that the remaining part still has stability.

[0023] like Figures 1-6As shown, an adjustment mechanism 4 is installed inside the aluminum alloy outer panel 11 for quick positioning and cutting to achieve assembly. The adjustment mechanism 4 includes slide grooves 45 on the front and rear plates of the aluminum alloy outer panel 11, and threaded rods 46 are fixed inside both slide grooves 45. The outer walls of the two threaded rods 46 are slidably connected to second mounting pieces 42 that can move at any position. Two movable buckles 44 are installed at the bottom of the second mounting pieces 42, and movable plates 43 are installed at the other end of the two movable buckles 44. The top of both slide grooves 45 is provided with a scale groove 41 for calibrating accuracy. Two round holes 410 are provided on the side of the aluminum alloy outer panel 11 near the first mounting piece 12. Nuts 47 for fitting and fixing are installed on the outer walls of the two threaded rods 46. Two fixing screws 48 are provided on the surface of the movable plate 43. A limiting groove 49 for fitting the corresponding fixing screws 48 is provided on one side of the aluminum alloy outer panel 11. When the honeycomb hook ceiling is attached... When in use, if cutting is required, the adjustment mechanism 4 can be used to quickly adjust according to the needs. The cutting can be carried out simultaneously by moving and measuring according to the required width, reducing the use of auxiliary tools and enabling quick assembly. Specifically, when the honeycomb hook ceiling is used, the two fixing screws 48 and the two nuts 47 can be quickly removed. Then, the second mounting piece 42 can be pushed along the two sliding grooves 45. It can be pushed according to the scale groove 41 until the required length is reached. At the same time, it can be cut according to one side of the second mounting piece 42. After cutting, the fixing screws 48 can be reinstalled. Then, the second mounting piece 42 is aligned with the first mounting piece 12 of another board. At the same time, the two threaded rods 46 after cutting are passed through the round hole 410 of the other board. Finally, the nuts 47 are installed, thereby effectively improving the adhesion and stability between the two boards. Example 2

[0024] like Figure 11As shown, the difference between this embodiment and Embodiment 1 is that the support structure 3 is a second support structure 32, which supports the hook panel while the elastic deformation of the corrugations absorbs local bending stress. The second support structure 32 includes multiple corrugated ribs 321 stamped on the surface of the aluminum alloy outer plate 11. Every nine corrugated ribs 321 form a group to be a second rib group 322. Multiple groups of second rib groups 322 are provided on the surface of the aluminum alloy outer plate 11, and the multiple groups of second rib groups 322 form a corrugated star shape, so that the stress is diffused along the corrugation direction. The surfaces of the multiple groups of second rib groups 322 are connected to the second polymer adhesive layer 25 and the polyester paint 26. The hook panel is equipped with a second support structure 32. The cross pattern is set as a wavy stripe with the direction of the wavy stripe perpendicular to the main stress direction of the panel, such as the bending moment caused by its own weight. The elastic deformation of the wavy stripe absorbs the local bending stress and diffuses the stress along the wavy stripe direction. For the corner area, radial stripes are used, which radiate from the hook edge to the center. The stripe spacing increases from the edge to the center to guide the corner stress to disperse to the center and avoid the hook edge from warping due to stress concentration. Specifically, nine wavy ribs 321 are set as a group to form a second rib group 322. At the same time, multiple groups of second rib groups 322 are set as a cross pattern to form a support body. Example 3

[0025] like Figure 12 As shown, the difference between this embodiment and Embodiment 1 is that the support structure 3 is a third support structure 33, which supports the honeycomb hook panel while dividing the panel into multiple small-span units. The third support structure 33 includes multiple second strip-shaped ribs 331 stamped on the surface of the aluminum alloy outer panel 11. Every nine second strip-shaped ribs 331 form a group to set up a third rib group 332, and multiple groups of third rib groups 332 intersect horizontally and vertically to form a grid pattern. The concentrated load is converted into a line load and transferred to the honeycomb core through the orthogonal grid, reducing the panel stress. The surfaces of the multiple groups of third rib groups 332 are in contact with the second polymer. The adhesive layer 25 and the polyester paint 26 are connected, and the hook panel is set with a third support structure 33, so that the ribs form a grid. The grid-shaped ribs can achieve efficient stress dispersion and deformation control without changing the honeycomb core structure, through the orthogonal grid reinforcement on the inner side of the panel. Its core advantage is that the process is mature and the cost is controllable. It is suitable for indoor ceilings, curtain walls and other scenarios with high flatness requirements. Specifically, nine second strip ribs 331 are used as a group to set up a third rib group 332. At the same time, multiple groups of third rib groups 332 are used to form a grid shape for support by intersecting horizontally and vertically.

[0026] The working principle of this embodiment is as follows: In use, an aluminum alloy outer panel 11 can be used to create a basic ceiling frame. Multiple hexagons are used to form a honeycomb layer 24, which is supported by an aluminum honeycomb core. A first polymer adhesive layer 23 and a second polymer adhesive layer 25 are sprayed onto the honeycomb core. An aluminum plate 22 is then placed on top and bonded to the first polymer adhesive layer 23, and coated with fluorocarbon paint 21. Simultaneously, the bottom is bonded to the aluminum alloy outer panel 11 using the second polymer adhesive layer 25. The aluminum alloy outer panel 11 is then coated with polyester paint 26 for protection. A star-shaped or cross-shaped rib is stamped on the inner surface of the aluminum alloy outer panel 11, with the rib direction at a 4° angle to the long side of the hexagon of the honeycomb core. With a 5° included angle, nine first strip-shaped ribs 311 are used as a group to form a first rib group 312. At the same time, multiple groups of first rib groups 312 are used to form a cross shape. When the honeycomb hook ceiling is used, the two fixing screws 48 and the two nuts 47 can be quickly removed. Then, the second mounting piece 42 is pushed along the two sliding grooves 45. It can be pushed according to the scale groove 41 until it reaches the required length position. At the same time, it is cut according to one side of the second mounting piece 42. After the cutting is completed, the fixing screws 48 can be reinstalled. Then, the second mounting piece 42 is aligned with the first mounting piece 12 of another board. At the same time, the two threaded rods 46 after being cut are passed through the round hole 410 of the other board. Finally, the nuts 47 are installed. Thus, the manufacturing and installation are completed.

[0027] The above description is merely a preferred embodiment of the present invention and is not intended to limit the scope of protection of the present invention.

Claims

1. A honeycomb hook-and-loop aluminum alloy ceiling panel, comprising an aluminum alloy outer panel (11), characterized in that: The aluminum alloy outer plate (11) has a support structure (3) installed on its inner surface.

2. The honeycomb hook-and-loop aluminum alloy ceiling panel according to claim 1, characterized in that, The aluminum alloy outer plate (11) has a first splicing component (12) installed on one side, and the first splicing component (12) is in the shape of a barb.

3. The honeycomb hook-and-loop aluminum alloy ceiling panel according to claim 1, characterized in that, The aluminum alloy outer panel (11) has a honeycomb structure (2) installed inside to form a supporting honeycomb hook panel. The honeycomb structure (2) includes a honeycomb layer (24), and the honeycomb layer (24) is composed of multiple hexagons spliced ​​together. A second polymer adhesive layer (25) for fixing is provided at the bottom of the honeycomb layer (24). The inner surface of the aluminum alloy outer panel (11) is sprayed with polyester paint (26) that contacts the second polymer adhesive layer (25).

4. The honeycomb hook-and-loop aluminum alloy ceiling panel according to claim 3, characterized in that, The top of the honeycomb layer (24) is provided with a first polymer adhesive layer (23) for fixing, and an aluminum plate (22) is fixed on the top of the first polymer adhesive layer (23). The surface of the aluminum plate (22) is coated with fluorocarbon spray paint (21).

5. The honeycomb hook-and-loop aluminum alloy ceiling panel according to claim 3, characterized in that, The support structure (3) is a first support structure (31) used to obliquely support the honeycomb hook panel and disperse the shear stress in the diagonal direction. The first support structure (31) includes a plurality of first strip ribs (311) stamped on the surface of the aluminum alloy outer plate (11). Every nine first strip ribs (311) are grouped together as a first rib group (312).

6. The honeycomb hook-and-loop aluminum alloy ceiling panel according to claim 5, characterized in that, The aluminum alloy outer panel (11) has multiple sets of first ribs (312) on its surface, and the multiple sets of first ribs (312) form a cross shape, thereby forming a double support of panel ribs and honeycomb core. The surfaces of the multiple sets of first ribs (312) are connected to the second polymer adhesive layer (25) and polyester paint (26).

7. The honeycomb hook-and-loop aluminum alloy ceiling panel according to claim 3, characterized in that, The support structure (3) is a second support structure (32), which supports the hook board while the elastic deformation of the corrugations absorbs local bending stress. The second support structure (32) includes multiple corrugated ribs (321) stamped on the surface of the aluminum alloy outer plate (11). Every nine corrugated ribs (321) are grouped together as a second rib group (322). The surface of the aluminum alloy outer plate (11) is provided with multiple groups of second rib groups (322), and the multiple groups of second rib groups (322) form a corrugated cross shape, so that the stress is diffused along the corrugation direction. The surface of the multiple groups of second rib groups (322) is connected to the second polymer adhesive layer (25) and polyester paint (26).

8. The honeycomb hook-and-loop aluminum alloy ceiling panel according to claim 3, characterized in that, The support structure (3) is the third support structure (33), which is used to support the honeycomb hook panel. The panel is divided into multiple small span units. The third support structure (33) includes multiple second strip ribs (331) stamped on the surface of the aluminum alloy outer panel (11). Every nine second strip ribs (331) are grouped into a third rib group (332). Multiple groups of third rib groups (332) intersect horizontally and vertically to form a grid. The concentrated load is converted into a line load and transferred to the honeycomb core through the orthogonal grid, reducing the panel stress. The surfaces of multiple groups of third rib groups (332) are connected to the second polymer adhesive layer (25) and polyester paint (26).

9. The honeycomb hook-and-loop aluminum alloy ceiling panel according to claim 2, characterized in that, An adjustment mechanism (4) is installed inside the aluminum alloy outer plate (11) for quick positioning and cutting to achieve assembly. The adjustment mechanism (4) includes a sliding groove (45) opened on the front and rear plates of the aluminum alloy outer plate (11), and a threaded rod (46) is fixed inside the two sliding grooves (45). The outer walls of the two threaded rods (46) are slidably connected to a second mounting piece (42) at any movable position. The bottom of the second mounting piece (42) is equipped with one end of two movable buckles (44), and the other end of the two movable buckles (44) is equipped with a movable plate (43).

10. The honeycomb hook-and-loop aluminum alloy ceiling panel according to claim 9, characterized in that, The top of each of the two slides (45) is provided with a scale groove (41) for calibrating accuracy. The aluminum alloy outer plate (11) has two round holes (410) on the side near the first mounting piece (12). The outer walls of the two threaded rods (46) are each equipped with nuts (47) for fitting and fixing. The surface of the movable plate (43) is provided with two fixing screws (48). The aluminum alloy outer plate (11) has a limiting groove (49) on one side for fitting the corresponding fixing screws (48).

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