Heat insulation type mirror surface aluminum honeycomb panel

Abstract

The invention discloses a heat insulation type mirror surface aluminum honeycomb panel in the technical field of aluminum plates, the heat insulation type mirror surface aluminum honeycomb panel comprises a plurality of pairs of panel bodies and a keel, each pair of panel bodies is provided with a plug pin entering the keel, the keel is internally provided with a fixing assembly used for clamping the plug pin in the direction perpendicular to the plug pin and a locking assembly used for locking the fixing assembly, and the fixing assembly comprises a pair of sliding rods; the sliding rods are provided with moving spaces in the direction parallel to the plug pins, elastic resistance is generated when the sliding rods move in the moving spaces, the plate bodies of the aluminum honeycomb plate are installed in pairs, and when the aluminum honeycomb plate is dismantled, the dismantling mode is that one plate body generates thrust, the other plate body generates tensile force, and the two sliding rods are staggered in the direction of the moving spaces of the two sliding rods. The sliding rod can freely slide, the plate body can be freely disassembled and assembled, the disassembly and assembly mode enables the plate body to be in seamless / micro-seam design, only thermal expansion and cold contraction seams need to be reserved, and heat preservation and heat insulation are facilitated.

Description

Technical Field

[0001] The present invention relates to the field of aluminum plates, and particularly to a heat-insulating mirror aluminum honeycomb panel. Background Art

[0002] An aluminum honeycomb panel is a lightweight and high-strength composite material, which is composed of a hexagonal honeycomb core layer sandwiched between two thin aluminum plates on the upper and lower layers. It has high compressive strength and excellent sound insulation, heat insulation, and fireproof performance. The surface can be processed to form a mirror effect and is widely used in fields such as building facades, interior ceilings, high-speed rail carriages, and furniture, combining functionality and decoration.

[0003] When the existing mirror aluminum honeycomb panel is used as a curtain wall, it has both heat insulation and decoration effects. However, when installing the honeycomb aluminum panel, generally there is a gap between adjacent aluminum honeycomb panels, and angle codes are used to fix the aluminum honeycomb panel from this gap. Although the aluminum honeycomb panel itself has heat insulation effect, the gap leaks air, and the heat insulation performance is greatly reduced after the gas exchange inside and outside the aluminum honeycomb panel. If the gap is filled with foam, it not only affects the aesthetics but also is not conducive to replacing the damaged aluminum honeycomb panel. Summary of the Invention

[0004] The purpose of the present invention is to provide a heat-insulating mirror aluminum honeycomb panel, which solves the problems brought by the installation gap of the existing aluminum honeycomb panel.

[0005] The present invention realizes the above purpose through the following technical solutions: A heat-insulating mirror aluminum honeycomb panel includes several pairs of plate bodies and keels. Each pair of plate bodies is provided with pins that enter the keels. A fixing component perpendicular to the direction of the pins for clamping the pins and a locking component for locking the fixing component are arranged inside the keels. The fixing component includes a pair of sliding rods. The sliding rods have a moving space in the direction parallel to the pins, and there is an elastic resistance when moving within the moving space. Among them, when the sliding rods corresponding to each pair of the plate bodies move in opposite directions within the moving space, the locking component is unlocked.

[0006] As a preferred solution of the present invention, an elastic edge is arranged at the edge of the plate body, and adjacent elastic edges are mutually abutted for heat preservation and waterproofing. By setting the elastic edges to be mutually abutted, the gap between adjacent plate bodies is further reduced, and the gas exchange between the inner and outer layers of the plate body is greatly reduced, which is beneficial to exert the heat insulation effect of the aluminum honeycomb panel.

[0007] As a preferred embodiment of the present invention, a track for the sliding rod to slide is provided inside the keel, and guide wheels are arranged on the surface of the sliding rod to roll along the track. Among them, an elastic part is provided at the edge of the guide wheel so that the sliding rod has the movable space. The contact directions of the guide wheels of each pair of sliding rods with the track are opposite. In this solution, by providing guide wheels with elastic parts, the sliding rod rolls on the track through the guide wheels, and then the sliding rod slides along the direction perpendicular to the vertical pin. By squeezing the elastic part of the guide wheel in the direction of the movable space, the two sliding rods are misaligned when receiving tensile and compressive forces, thereby facilitating the unlocking of the locking assembly.

[0008] As a preferred embodiment of the present invention, the locking assembly includes a connecting column arranged inside the keel and a sliding part slidably arranged on the outer surface of the connecting column. Connecting rods are arranged on both sides of the sliding part and are respectively hinged to the two sliding rods. The sliding part is unidirectionally locked by a locking member that can be unlocked and arranged inside the connecting column. In this solution, the structure of the locking assembly is further set. When the locking member functions, the sliding part can only descend and cannot move upward, so that the two sliding rods cannot return after sliding to both sides to clamp the pin. By unlocking the locking member, the sliding part can move upward and the sliding rod can slide freely.

[0009] As a preferred embodiment of the present invention, a groove is provided on the side surface of the connecting column. The locking member includes a hinged arm hinged in the groove. A ratchet is provided in the middle part of the hinged arm, and a protrusion is provided at one end far from the hinged end. A ratchet groove corresponding to the ratchet is provided on the inner side surface of the sliding part. The hinged arm is unfolded outward through a torsion spring arranged on the shaft part so that the ratchet enters the ratchet groove, and the hinged arm retracts into the groove to be unlocked. In this solution, the specific structure of the locking member is further set, which includes a hinged arm and a ratchet. The hinged arm sends the ratchet into the ratchet groove to lock the sliding part, and the hinged arm is pressed to unlock the sliding part.

[0010] As a preferred embodiment of the present invention, sliding sleeves are provided at one end of each pair of the sliding rods close to each other. Elastic members are arranged inside the sliding sleeves. The sliding sleeves are limited to slide along the movable space of the sliding rods. Unlocking members for retracting the hinged arm into the groove are provided on each pair of the sliding sleeves. The unlocking members are unlocked when the two sliding sleeves slide towards each other along the movable space. In this solution, the unlocking members are triggered by the misalignment of the two sliding rods. Its function is to lock and unlock the back surface of the plate body in the case of seamless or micro-seam on the outside. Generally, when two plate bodies are blown and sucked by wind, the forces they receive are in the same direction, and under non-human conditions, it will not happen that one extreme of a plate body is subjected to tensile force while the other extreme is subjected to thrust force.

[0011] As a preferred embodiment of the present invention, the unlocking member includes a boss provided on the sliding sleeve, and a hinge member provided on one of the bosses. The hinge member has a first end and a second end. The first end is movably connected to a lever provided on the other boss, and the second end is used to press a protrusion at the bottom of the hinge arm. In this solution, a specific structure of the unlocking member is provided. When the sliding sleeve with the hinge member approaches the hinge arm, the lever on the other sliding sleeve drives the hinge member to rotate, so that the second end presses the hinge arm back.

[0012] As a preferred embodiment of the present invention, the bolt includes a first bolt provided on one of the plate bodies and a second bolt provided on the other plate body. Among them, two first pushing blocks with bevels are provided oppositely on the first bolt, and a second pushing block with a bevel is provided on the second bolt. A triangular block is provided at the end of the first pushing block. A locking groove is provided on the surface of the sliding rod, and an inclined convex block corresponding to the pushing block is provided at one end of the sliding rod. In this solution, by specifically setting the structure of the bolt, it can cooperate with the sliding rod, and two-directional forces are formed on the sliding rod through the insertion and extraction forces of the bolt, which are respectively used to slide the sliding rod and compress the guide wheel.

[0013] The beneficial effect of the present invention is that by installing the plate bodies of the aluminum honeycomb board in pairs, when disassembling, the disassembly method is to generate a thrust on one plate body and a pulling force on the other plate body. The two sliding rods are misaligned in the direction of their movement spaces, thereby triggering the unlocking of the locking assembly, so that the sliding rods can slide freely and the plate bodies can be disassembled and assembled freely. This disassembly and assembly method enables the plate bodies to be designed with seamless / micro-seam designs, and only thermal expansion and contraction seams need to be left, which is beneficial to heat insulation. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 is the front view of the present invention; Figure 2 is the top cross-sectional view of the present invention; Figure 3 is the front cross-sectional view of the keel of the present invention; Figure 4 of the present invention Figure 2 is the enlarged view of the structure of part A in the present invention; Figure 5 of the present invention Figure 3 is the enlarged view of the structure of part B in the present invention; Figure 6 of the present invention Figure 4 is the enlarged view of the structure of part C in the present invention; Figure 7 is the side cross-sectional view of the locking assembly of the present invention; Figure 8 is the schematic diagram of the first bolt and the second bolt of the present invention; In the figure: 1. Plate body; 101. Elastic edge; 2. Keel; 201. Track; 3. First bolt; 301. First pushing block; 302. Triangular block; 4. Second bolt; 401. Second pushing block; 5. Fixing component; 51. Slide bar; 52. Guide wheel; 53. Lock groove; 54. Oblique convex block; 55. Slide sleeve; 56. Elastic member; 57. Boss; 58. Hinge member; 59. Lever; 510. First end; 511. Second end; 6. Locking component; 61. Connecting column; 62. Sliding part; 63. Side plate; 64. Link; 65. Groove; 66. Hinge arm; 67. Ratchet groove; 68. Ratchet pawl. Detailed implementation mode

[0015] The present application will be further described in detail below with reference to the accompanying drawings. It is necessary to point out here that the following specific implementation modes are only used to further illustrate the present application and cannot be understood as limiting the protection scope of the present application. Those skilled in the art can make some non-essential improvements and adjustments to the present application according to the above application content.

[0016] Embodiment 1 As Figures 1-8 shown, a heat-insulating mirror aluminum honeycomb panel includes several pairs of plate bodies 1 and keels 2. Each pair of plate bodies 1 is provided with bolts for entering the keel 2. A fixing component 5 perpendicular to the bolt direction for clamping the bolts and a locking component 6 for locking the fixing component 5 are arranged in the keel 2. The fixing component 5 includes a pair of slide bars 51. The slide bars 51 have an activity space in the direction parallel to the bolts and have an elastic resistance when moving in the activity space. Among them, when the slide bars 51 corresponding to each pair of plate bodies 1 move in opposite directions in the activity space, the locking component 6 is unlocked.

[0017] In this solution, the plate bodies 1 of the aluminum honeycomb panel are installed in pairs. When disassembling, the disassembly method is to generate a thrust on one plate body 1 and a pulling force on the other plate body 1. The two slide bars 51 are displaced in the direction of their activity space, thereby triggering the unlocking of the locking component 6, so that the slide bars 51 can slide freely and the plate bodies 1 can be disassembled and assembled freely. This disassembly and assembly method enables the plate bodies 1 to be designed with seamless / micro-seam design, and only a thermal expansion and contraction seam needs to be left, which is beneficial to heat preservation and insulation.

[0018] It should be noted that since the aluminum honeycomb panel is a mirror surface, a suction cup can be used as a tool to generate a pulling force, and when pushing, the suction cup can be used to suck to prevent falling.

[0019] An elastic edge 101 is arranged at the edge of the plate body 1. The adjacent elastic edges 101 are abutted against each other for heat preservation and waterproofing. By arranging the adjacent elastic edges 101 to abut against each other, the gap between the adjacent plate bodies 1 is further reduced, and the gas exchange between the inner and outer layers of the plate body 1 is greatly reduced, which is beneficial to the heat insulation effect of the aluminum honeycomb panel.

[0020] A track 201 for the sliding of the sliding rod 51 is provided inside the keel 2. Guide wheels 52 are arranged on the surface of the sliding rod 51 to roll along the track 201. Among them, an elastic part is provided at the edge of the guide wheel 52 so that the sliding rod 51 has a moving space. The contact directions of the guide wheels 52 of each pair of sliding rods 51 with the track 201 are opposite. In this solution, by providing the guide wheel 52 with an elastic part, the sliding rod 51 rolls on the track 201 through the guide wheel 52, and then the sliding rod 51 slides along the direction perpendicular to the vertical pin. By squeezing the elastic part of the guide wheel 52 in the direction of the moving space, the two sliding rods 51 are displaced from each other when receiving tensile force and pressure, and then it is convenient to unlock the locking component 6.

[0021] The locking component 6 includes a connecting column 61 arranged inside the keel 2 and a sliding part 62 slidably arranged on the outer surface of the connecting column 61. Link rods 64 are arranged on both sides of the sliding part 62 and are respectively hinged to the two sliding rods 51. The sliding part 62 is unidirectionally locked by a locking member arranged inside the connecting column 61. In this solution, the structure of the locking component 6 is further set. When the locking member plays a role, the sliding part 62 can only descend and cannot move upward, so that the two sliding rods 51 cannot return after sliding to both sides to clamp the pin. By unlocking the locking member, the sliding part 62 can move upward, and the sliding rod 51 can slide freely.

[0022] A groove 65 is formed on the side surface of the connecting column 61. The locking member includes a hinge arm 66 hinged in the groove 65. A ratchet 68 is arranged in the middle part of the hinge arm 66, and a protrusion is arranged at one end far from the hinge end. A ratchet groove 67 corresponding to the ratchet 68 is arranged on the inner side surface of the sliding part 62. The hinge arm 66 unfolds outward through a torsion spring arranged on the shaft part so that the ratchet 68 enters the ratchet groove 67, and the hinge arm 66 retracts into the groove 65 to be unlocked. In this solution, the specific structure of the locking member is further set, which includes a hinge arm 66 and a ratchet 68. The hinge arm 66 sends the ratchet 68 into the ratchet groove 67 to lock the sliding part 62, and the hinge arm 66 is pressed to unlock the sliding part 62.

[0023] Sliding sleeves 55 are arranged at the ends of each pair of sliding rods 51 close to each other. An elastic member 56 is arranged inside the sliding sleeves 55. The sliding sleeves 55 are limited to slide along the moving space of the sliding rods 51. An unlocking member for retracting the hinge arm 66 into the groove 65 is arranged on each pair of sliding sleeves 55. The unlocking member is unlocked when the two sliding sleeves 55 slide towards each other along the moving space. In this solution, the unlocking member is triggered by the misalignment of the two sliding rods 51. Its function is to lock and unlock the back surface of the plate body 1 in the case of seamless or micro-seam on the outside. Generally, when the two plate bodies 1 are blown and sucked by the wind, the forces they receive are in the same direction, and in the non-human case, the situation where one extreme of the plate body 1 is subjected to tensile force and the other extreme of the plate body 1 is subjected to thrust will not occur. Therefore, its fixing structure is firm.

[0024] The unlocking member includes a boss 57 provided on the sliding sleeve 55, and a hinge member 58 provided on one of the bosses 57. The hinge member 58 has a first end 510 and a second end 511. The first end 510 is movably connected to a lever 59 provided on the other boss 57, and the second end 511 is used to press a protrusion at the bottom of the hinge arm 66. In this solution, a specific structure of the unlocking member is set. When the sliding sleeve 55 with the hinge member 58 approaches the hinge arm 66, the lever 59 on the other sliding sleeve 55 drives the hinge member 58 to rotate, so that the second end 511 presses the hinge arm 66 back in compression.

[0025] The bolt includes a first bolt 3 provided on one of the plate bodies 1 and a second bolt 4 provided on the other plate body 1. Among them, two first pushing blocks 301 with bevels are provided oppositely on the first bolt 3, and a second pushing block 401 with a bevel is provided on the second bolt 4. A triangular block 402 is provided at the end of the first pushing block 301. A locking groove 53 is formed on the surface of the sliding rod 51, and a beveled protrusion 54 corresponding to the pushing block is provided at one end of the sliding rod 51. In this solution, by specifically setting the structure of the bolt, it can cooperate with the sliding rod 51, and two-directional forces are formed on the sliding rod 51 through the insertion and extraction forces of the bolt, which are respectively used to slide the sliding rod 51 and compress the guide wheel 52.

[0026] When installing the plate body 1, from the perspective as shown in Figure 2 , first use a magnetic tool or a hook to suck / pull the left sliding rod 51 back towards the compression guide wheel 52, and then install the right plate body 1. Directly push the right plate body 1 inward. As shown in Figure 4 , the triangular block 302 pushes against the sliding rod 51, causing the right sliding rod 51 to move towards the compression guide wheel 52. The two sliding rods 51 are misaligned, causing the hinge member 58 as shown in Figure 6 to rotate counterclockwise. The second end 511 presses the protrusion at the bottom of the hinge arm 66 to unlock the hinge arm 66. At this time, the widest part of the first pushing block 301 abuts against the right sliding rod 51 to prevent the sliding part 62 from falling temporarily. Then remove the magnetic tool or hook, insert the left plate body 1 and the second bolt 4, and finally the widest part of the first pushing block 301 of the right sliding rod 51 no longer abuts. Under the action of the elastic member 56, the two sliding rods 51 slide towards both sides, and then the sliding part 62 descends unidirectionally to lock the sliding rod 51; When disassembling, use a negative pressure device to suck the left (from the perspective as shown in Figures 2-6 ) plate body 1, and push the right plate body 1. Similarly, misalign the two sliding rods 51 to unlock the sliding part 62. Then pull out the left one a small distance so that the widest part of the second pushing block 401 abuts against the sliding rod 51, thereby preventing the sliding part 62 from falling temporarily, facilitating the removal of the right first bolt 3 and the right plate body 1. Finally, pull out the left plate body 1 to complete the disassembly.

[0027] The above-described embodiments merely represent several implementation manners of the present invention. The description thereof is relatively specific and detailed, but it should not be construed as a limitation to the scope of the patent of the present invention. It should be noted that for those of ordinary skill in the art, without departing from the concept of the present invention, several modifications and improvements can still be made, and these all belong to the protection scope of the present invention.

Claims

1. A heat-insulating mirror aluminum honeycomb panel, characterized in that It includes several pairs of plate bodies (1) and keels (2). Each pair of plate bodies (1) is provided with a bolt that enters the keel (2). A fixing component (5) perpendicular to the direction of the bolt for clamping the bolt and a locking component (6) for locking the fixing component (5) are arranged in the keel (2). The fixing component (5) includes a pair of sliding rods (51). The sliding rods (51) have an activity space in the direction parallel to the bolt and have elastic resistance when moving in the activity space. Among them, when the sliding rods (51) corresponding to each pair of plate bodies (1) move in opposite directions in the activity space, the locking component (6) is unlocked.

2. The heat-insulating mirror aluminum honeycomb panel according to claim 1, wherein An elastic edge (101) is arranged at the edge of the plate body (1). The adjacent elastic edges (101) are in mutual abutment for heat preservation and waterproofing.

3. The heat-insulating mirror aluminum honeycomb panel according to claim 1, characterized in that, A track (201) for the sliding of the sliding rod (51) is arranged in the keel (2). Guide wheels (52) are arranged on the surface of the sliding rod (51) to roll along the track (201). Among them, an elastic part is arranged at the edge of the guide wheel (52) so that the sliding rod (51) has the activity space, and the contact directions of the guide wheels (52) of each pair of sliding rods (51) with the track (201) are opposite.

4. A heat-insulating mirror aluminum honeycomb panel according to claim 1, wherein, The locking component (6) includes a connecting column (61) arranged in the keel (2) and a sliding part (62) slidably arranged on the outer surface of the connecting column (61). Link rods (64) are arranged on both sides of the sliding part (62) and are respectively hinged to the two sliding rods (51). The sliding part (62) is unidirectionally locked by a locking part that can be unlocked in the connecting column (61).

5. The heat-insulating mirror aluminum honeycomb panel according to claim 4, characterized in that, A groove (65) is formed on the side surface of the connecting column (61). The locking part includes a hinged arm (66) hinged in the groove (65). A ratchet (68) is arranged in the middle part of the hinged arm (66), and a protrusion is arranged at one end far from the hinged end. A ratchet groove (67) corresponding to the ratchet (68) is arranged on the inner side surface of the sliding part (62). The hinged arm (66) unfolds outwards through a torsion spring arranged on the shaft part so that the ratchet (68) enters the ratchet groove (67), and the hinged arm (66) retracts into the groove (65) for unlocking.

6. The heat-insulating mirror aluminum honeycomb panel according to claim 5, characterized in that, Sliding sleeves (55) are arranged at the ends of each pair of sliding rods (51) close to each other. Elastic members (56) are arranged in the sliding sleeves (55). The sliding sleeves (55) are limited to slide along the activity space of the sliding rods (51). Unlocking parts for retracting the hinged arm (66) into the groove (65) are arranged on each pair of sliding sleeves (55). The unlocking parts are unlocked when the two sliding sleeves (55) slide towards each other along the activity space.

7. The heat-insulating mirror aluminum honeycomb panel according to claim 6, wherein, The unlocking part includes a boss (57) arranged on the sliding sleeve (55), and a hinged part (58) arranged on one of the bosses (57). The hinged part (58) has a first end (510) and a second end (511). The first end (510) is movably connected to a lever (59) arranged on the other boss (57), and the second end (511) is used for pressing the protrusion at the bottom of the hinged arm (66).

8. The heat-insulating mirror aluminum honeycomb panel according to claim 3, characterized in that, The bolt includes a first bolt (3) provided on one of the plate bodies (1) and a second bolt (4) provided on the other plate body (1). Among them, two oppositely arranged first pushing blocks (301) with bevel angles are provided on the first bolt (3), a second pushing block (401) with a bevel angle is provided on the second bolt (4), a triangular block (302) is provided at the end of the first pushing block (301), a locking groove (53) is formed on the surface of the sliding rod (51), and a beveled convex block (54) corresponding to the pushing block is provided at one end of the sliding rod (51).

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