Anti-seismic aluminum honeycomb panel assembly

Abstract

The utility model belongs to the technical field of aluminum honeycomb panels, and particularly relates to an anti-seismic aluminum honeycomb panel assembly. Comprising a supporting frame which comprises multiple rows of supporting transverse columns fixed to a wall and formed in the height direction of the wall and multiple columns of supporting vertical plates arranged on the multiple rows of supporting transverse columns and formed in the left side direction and the right side direction of the wall; the splicing panels comprise splicing frames arranged between the adjacent supporting transverse columns and the adjacent supporting vertical plates and aluminum honeycomb plates arranged in the splicing frames; the anti-seismic unit comprises anti-seismic plates and a plurality of anti-seismic fasteners, wherein the anti-seismic plates are arranged in the splicing panels and symmetrically arranged in the height direction of the wall and the left side and the right side of the wall, and the anti-seismic fasteners are arranged between the splicing frames and the anti-seismic plates along the peripheral sides of the splicing frames. The aluminum honeycomb panel can be kept stable in the using process.

Description

TECHNICAL FIELD

[0001] The utility model belongs to aluminum honeycomb board technical field, especially an anti-seismic aluminum honeycomb board assembly. BACKGROUND

[0002] As a new type of building decoration material, aluminum honeycomb board has excellent characteristics such as light weight, high strength, good flatness, sound insulation and heat insulation, and is widely used in building curtain wall, indoor decoration, aerospace and many other fields. In modern architecture, its elegant appearance and excellent performance add unique charm and practicality to the building, meeting people's demand for building space diversification and high quality.

[0003] However, in practical application, the existing aluminum honeycomb board has obvious shortcomings in terms of seismic performance. For example, in some building projects in earthquake-prone areas, the traditional aluminum honeycomb board structure is simply fixed to the wall surface, and when an earthquake occurs, due to the lack of effective seismic design, the aluminum honeycomb board is easily affected by the earthquake force and may be displaced, deformed or even fall off. This not only causes serious damage to the appearance of the building and affects the overall aesthetics, but also may pose a threat to the safety of personnel and property inside the building. This highlights the problem of poor seismic performance of the existing aluminum honeycomb board, and there is an urgent need for an aluminum honeycomb board assembly with good seismic performance to meet the safety needs of buildings in earthquake environment. SUMMARY

[0004] The aluminum honeycomb board of the utility model can remain stable during use.

[0005] The utility model discloses a kind of anti-seismic aluminum honeycomb board assemblies, including:

[0006] Support frame, including being fixed on wall surface and being formed multiple rows along the height direction of wall body Support column and being formed multiple columns along the left and right sides of wall body Support vertical plate is set on multiple rows of support column;

[0007] Splicing panel, including being set between adjacent support column and adjacent support vertical plate Splicing frame and being set in splicing frame Aluminum honeycomb board;

[0008] Anti-seismic unit, including being set in splicing panel and being symmetrically arranged along the height direction of wall body and the left and right sides of wall body Anti-seismic plate, multiple Anti-seismic fasteners are set between splicing frame and anti-seismic plate along the circumferential side of splicing frame.

[0009] The utility model is further provided with, the circumferential side of splicing frame is equipped with the splicing plate that is outwardly extended and is connected with support column and support vertical plate, and the splicing plate can be matched with the splicing plate of adjacent splicing frame.

[0010] The utility model further sets up, the splicing board includes:

[0011] The upper plate is arranged at the top of the splicing frame, the upper plate abuts against the support column, and the bottom of the splicing frame is provided with a lower plate matched with the upper plate, and the lower plate is away from the support column.

[0012] The right plate is arranged at the right side of the splicing frame, the right plate abuts against the support vertical plate, and the left side of the splicing frame is provided with a left plate matched with the right plate, and the left plate is away from the support vertical plate.

[0013] The utility model further sets up, the splicing board and the anti-seismic plate are provided with the anti-seismic component for preventing the anti-seismic fastener from moving, and the anti-seismic component includes:

[0014] The first capsule hole is provided with a plurality of first capsule holes along the circumferential side of the splicing frame, and the long axis of the first capsule hole is parallel to the wall surface.

[0015] The second capsule hole is provided with a second capsule hole on the anti-seismic plate and corresponds to the first capsule hole, and the long axis of the second capsule hole is perpendicular to the wall surface.

[0016] The elastic protrusion is arranged in the first capsule hole and the second capsule hole.

[0017] The utility model further sets up, and the anti-seismic fastener includes:

[0018] The anti-seismic bolt is arranged in the first capsule hole and the second capsule hole and extends into the anti-seismic plate, and the circumferential side of the anti-seismic bolt is located in the elastic protrusion.

[0019] The first elastic reset piece is arranged between the anti-seismic bolt and the splicing frame, and the anti-seismic gasket is arranged between the first elastic reset piece and the splicing frame.

[0020] The second elastic reset piece is arranged between the splicing frame and the anti-seismic plate, and the anti-seismic gasket is arranged at the both ends of the second elastic reset piece.

[0021] The threaded portion of the anti-seismic bolt extending into the anti-seismic plate is provided with two anti-seismic nuts matched with each other, and the anti-seismic gasket is also arranged between the anti-seismic nut and the anti-seismic plate.

[0022] The utility model further sets up, and the support vertical plate includes:

[0023] A plurality of adhesion plates are arranged along the height direction of the wall body and are covered outside the support columns forming multiple rows.

[0024] The guide block is arranged in the adhesion plate, and the support column is provided with a guide rail matched with the guide block along the left and right sides of the wall body.

[0025] The utility model further sets up, and the aluminum honeycomb plate includes:

[0026] The honeycomb panel is arranged on both sides of the splicing frame and covers the shockproof plate;

[0027] The honeycomb core is arranged in the honeycomb panel, and the honeycomb core is filled with butyl rubber.

[0028] The utility model further sets up that the composite sealing pad is established between the adjacent splicing frame, and the composite sealing pad comprises:

[0029] The internal elastic layer is connected with the support horizontal column and the support vertical plate;

[0030] The middle shockproof layer is arranged on the outside of the internal elastic layer, and the outside of the middle shockproof layer is provided with the external elastic layer;

[0031] The internal elastic layer and the external elastic layer are all natural rubber, and the middle shockproof layer is a metal wire mesh.

[0032] By adopting the above technical scheme, the utility model can obtain the beneficial effects that:

[0033] 1. By setting the shockproof unit, including the symmetrically arranged shockproof plate and the plurality of shockproof fasteners, when the earthquake occurs, the shockproof plate can disperse and bear part of the earthquake force, the shockproof fastener tightly connects the splicing frame and the shockproof plate, limits the relative displacement between the components, thereby improving the shockproof capability of the whole aluminum honeycomb plate assembly, reducing the deformation, displacement and damage caused by the earthquake, and guaranteeing the integrity and safety of the building.

[0034] 2. The splicing frame is provided with the outwardly extending splicing plate on the periphery, including the upper plate, the lower plate, the right plate and the left plate, the splicing plate can be matched with the splicing plate of the adjacent splicing frame, the splicing and installation process of the aluminum honeycomb plate assembly on the support frame is facilitated, the connection stability of the splicing part is enhanced, the various splicing panels form a whole, the overall structural strength of the assembly is improved, and the loosening and falling phenomena in the use process are prevented.

[0035] 3. The first capsule hole, the second capsule hole and the elastic protrusion in the shockproof assembly cooperate with the shockproof fastener, under the action of the earthquake force, the elastic protrusion can play a certain limiting and buffering effect on the shockproof bolt, prevents loosening due to vibration. Meanwhile, the first elastic reset member and the second elastic reset member can also absorb the vibration energy to a certain extent, maintain the fastening state of the shockproof fastener, ensure the reliability and stability of the whole shockproof structure, and prolong the service life. BRIEF DESCRIPTION OF DRAWINGS

[0036] Figure 1 It is the front view structural schematic diagram of the utility model;

[0037] Figure 2This is a side view structural diagram of the present invention;

[0038] Figure 3 This is a three-dimensional structural diagram of the present invention in the first direction;

[0039] Figure 4 This is a utility model Figure 3 A magnified structural diagram of part A;

[0040] Figure 5 This is a utility model Figure 4 A schematic diagram of the enlarged structure of part B;

[0041] Figure 6 This is a utility model Figure 1 A schematic diagram of the cross-sectional structure;

[0042] Figure 7 This is a utility model Figure 6 A magnified structural diagram of section C;

[0043] Figure 8 This is a three-dimensional structural diagram of the splicing panel in this utility model;

[0044] Figure 9 This is a utility model Figure 8 A schematic diagram of the enlarged structure of part D;

[0045] Figure 10 This is a utility model Figure 8 A magnified structural diagram of part E;

[0046] Figure 11 This is a cross-sectional structural diagram of the composite sealing gasket in this utility model.

[0047] The attached figures are labeled as follows: 1. Support frame; 10. Supporting horizontal column; 11. Supporting vertical plate; 110. Adhesive plate; 111. Guide block; 2. Splicing panel; 20. Splicing frame; 21. Aluminum honeycomb panel; 210. Honeycomb panel; 211. Honeycomb core; 3. Seismic unit; 30. Seismic plate; 31. Seismic fastener; 310. Seismic bolt; 311. First elastic reset component; 312. Second elastic reset component; 313. Seismic pad; 314. Seismic nut; 4. Splicing plate; 40. Upper plate; 41. Lower plate; 42. Right plate; 43. Left plate; 5. Seismic component; 50. First capsule hole; 51. Second capsule hole; 52. Elastic protrusion; 6. Composite sealing gasket; 60. Inner elastic layer; 61. Middle seismic layer; 62. Outer elastic layer. Detailed Implementation

[0048] The present invention will be further described below with reference to the accompanying drawings and specific embodiments. See also: Figures 1-11 :

[0049] Embodiment 1:

[0050] The embodiment provides an anti-seismic aluminum honeycomb panel assembly, which comprises:

[0051] A support frame 1 comprises support columns 10 fixed to a wall surface and arranged in multiple rows along the height direction of the wall, and support vertical plates 11 arranged on the multiple rows of support columns 10 and arranged in multiple columns along the left and right sides of the wall.

[0052] A spliced panel 2 comprises a splicing frame 20 arranged between adjacent support columns 10 and adjacent support vertical plates 11, and an aluminum honeycomb panel 21 arranged in the splicing frame 20.

[0053] An anti-seismic unit 3 comprises anti-seismic plates 30 arranged in the splicing panel 2 and symmetrically arranged along the height direction of the wall and the left and right sides of the wall, and a plurality of anti-seismic fasteners 31 arranged between the splicing frame 20 and the anti-seismic plates 30 along the circumferential side of the splicing frame 20.

[0054] The support column 10 mainly undertakes the support task distributed along the height direction of the wall, provides horizontal support force for the splicing panel 2, and ensures the stability of the splicing panel 2 in the vertical direction. The support column 10 is in the form of a long strip-shaped rod structure, is generally arranged vertically along the height direction of the wall, is arranged in multiple rows horizontally, and keeps a certain spacing between adjacent support columns 10, which needs to be matched with the size of the splicing panel 2. The connection between the support column 10 and the wall surface is usually fixed by using expansion bolts, chemical anchors and the like.

[0055] The support vertical plate 11 supports and positions the splicing panel 2 in the left and right sides of the wall, cooperates with the support column 10, and enhances the stability and rigidity of the entire support frame 1. The support vertical plate 11 is generally in the form of a long strip-shaped plate structure, is vertically distributed in multiple columns along the left and right sides of the wall, is perpendicular to the support column 10, and together forms a grid-shaped support frame 1. The support vertical plate 11 can be connected to the support column 10 by welding, bolt connection or slot connection.

[0056] The splicing frame 20 mainly plays a role in fixing and supporting the aluminum honeycomb panel 21, simultaneously provides an interface for the connection between the splicing panel 2 and the support frame 1, and ensures that the splicing panel 2 can be accurately and stably installed on the support frame 1 to form a complete wall covering. The splicing frame 20 is generally in the form of a rectangular frame, is located between adjacent support columns 10 and adjacent support vertical plates 11, is closely combined with the support frame 1, and is fixed by a specific connection mode at four edges of the splicing frame 20 and the support columns 10 and the support vertical plates 11, thereby forming a stable installation unit. A plurality of splicing frames 20 are spliced in sequence, are collectively arranged on the support frame 1, and constitute a complete wall decoration surface. The connection mode between the splicing frame 20 and the support columns 10 and the support vertical plates 11 can be bolt connection, slot connection or welding.

[0057] The aluminum honeycomb panel 21, as the core part of the splicing panel 2, has multiple excellent performances. First, it has good heat and sound insulation functions, can effectively block the transmission of heat and sound, improve the energy-saving effect and comfort of the building, and meet the requirements of modern buildings on energy saving and environmental protection and indoor environmental quality.

[0058] The anti-seismic plate 30, as the main force and energy dissipation component during an earthquake, bears and disperses the seismic force, absorbs a large amount of seismic energy through its deformation, reduces the seismic force transmitted to the splicing panel 2 and the supporting frame 1, and thus protects the structural integrity of the entire aluminum honeycomb panel 21 assembly. The anti-seismic plate 30 is generally flat, and is symmetrically arranged in the splicing panel 2 along the height direction of the wall and the left and right side directions of the wall, between the aluminum honeycomb panel 21 and the splicing frame 20. The anti-seismic plate 30 is connected with the splicing frame 20 through the anti-seismic fastener 31.

[0059] The anti-seismic fastener 31 is used to firmly connect the anti-seismic plate 30 and the splicing frame 20 together, so as to ensure that they can tightly cooperate and work together under the action of the seismic force, and effectively transmit and disperse the seismic force.

[0060] Embodiment 2:

[0061] The embodiment provides an anti-seismic aluminum honeycomb panel assembly, in addition to comprising the technical scheme of the above-mentioned embodiment, further has the following technical features.

[0062] The splicing frame 20 is provided with a splicing plate 4 extending outward and connected with the supporting horizontal column 10 and the supporting vertical plate 11 on the circumferential side, and the splicing plate 4 can cooperate with the splicing plate 4 of the adjacent splicing frame 20.

[0063] The splicing plate 4 is used to realize the connection and cooperation between the adjacent splicing frames 20, enhance the integrity and stability between the splicing panels 2, and enable multiple splicing panels 2 to be tightly spliced together to form a continuous and flat wall decoration surface. The splicing plate 4 generally has a plate structure, and its shape is designed according to the edge shape of the splicing frame 20, and is generally rectangular. The splicing plate 4 and the splicing frame 20 are usually firmly connected in a manner of welding, bolt connection or clamping groove connection.

[0064] Embodiment 3:

[0065] The embodiment provides an anti-seismic aluminum honeycomb panel assembly, in addition to comprising the technical scheme of the above-mentioned embodiment, further has the following technical features.

[0066] The splicing plate 4 comprises:

[0067] An upper plate 40 is arranged on the top of the splicing frame 20, and the upper plate 40 is in abutment with the support column 10. A lower plate 41 is arranged on the bottom of the splicing frame 20 and cooperates with the upper plate 40, and the lower plate 41 is away from the support column 10.

[0068] A right plate 42 is arranged on the right side of the splicing frame 20, and the right plate 42 is in abutment with the support vertical plate 11. A left plate 43 is arranged on the left side of the splicing frame 20 and cooperates with the right plate 42, and the left plate 43 is away from the support vertical plate 11.

[0069] The upper plate 40 is used for connecting and positioning the top of the splicing frame 20 and the support column 10, and enhances the stability of the splicing panel 2 in the vertical direction. The lower plate 41 cooperates with the upper plate 40, further enhances the stability and connection strength of the bottom of the splicing frame 20, and cooperates with the upper plate 40 to make the stress of the splicing frame 20 in the vertical direction more uniform. The right plate 42 is responsible for connecting and positioning the right side of the splicing frame 20 and the support vertical plate 11, and enhances the stability of the splicing panel 2 in the horizontal direction.

[0070] The left plate 43 cooperates with the right plate 42 to play a similar role of stability and connection on the left side of the splicing frame 20, and cooperates with the right plate 42 to ensure the stress balance and connection reliability of the splicing frame 20 in the horizontal direction. The upper plate 40, the lower plate 41, the right plate 42 and the left plate 43 are all rectangular plate structures. The upper plate 40 is connected with the support column 10 by welding or bolts, the lower plate 41 is connected with the upper plate 40 by welding or riveting, the right plate 42 is connected with the support vertical plate 11 by welding or bolts, and the left plate 43 is connected with the right plate 42 by welding or riveting.

[0071] Embodiment 4:

[0072] The embodiment provides an anti-seismic aluminum honeycomb panel assembly, in addition to the technical solutions of the above-mentioned embodiments, further having the following technical features.

[0073] An anti-seismic assembly 5 for preventing the anti-seismic fastener 31 from moving is arranged between the splicing plate 4 and the anti-seismic plate 30, and the anti-seismic assembly 5 comprises:

[0074] A first capsule hole 50 is arranged on the periphery of the splicing frame 20, and the long axis of the first capsule hole 50 is parallel to the wall surface.

[0075] A second capsule hole 51 is arranged on the anti-seismic plate 30 and corresponds to the first capsule hole 50, and the long axis of the second capsule hole 51 is perpendicular to the wall surface.

[0076] An elastic protrusion 52 is arranged in the first capsule hole 50 and the second capsule hole 51.

[0077] The first capsule hole 50 mainly provides installation positioning and constraint space for the anti-seismic fastener 31, ensures the accurate installation position of the anti-seismic fastener 31 on the splicing frame 20, and limits the movement of the anti-seismic fastener 31 in a specific direction under the action of seismic force. The first capsule hole 50 is provided along the circumferential side of the splicing frame 20, and has a circular or elliptical hole structure, the long axis of which is parallel to the wall surface, and a plurality of first capsule holes 50 are uniformly distributed at the position where the splicing frame 20 is connected with the anti-seismic plate 30.

[0078] The second capsule hole 51 corresponds to the first capsule hole 50, and together provides complete installation and constraint space for the anti-seismic fastener 31, ensures that the anti-seismic fastener 31 can accurately connect the anti-seismic plate 30 and the splicing frame 20, and under the action of seismic force, cooperates with the first capsule hole 50 and the elastic protrusion 52 to limit the movement of the anti-seismic fastener 31. The second capsule hole 51 is provided on the anti-seismic plate 30, and is matched with the first capsule hole 50 in shape and size, the long axis of which is perpendicular to the wall surface, and the first capsule hole 50 and the second capsule hole 51 are aligned with each other in the vertical direction to form a continuous space for accommodating the anti-seismic fastener 31.

[0079] The elastic protrusion 52 provides buffering and limiting action for the anti-seismic fastener 31, prevents the anti-seismic fastener 31 from loosening, moving or coming out in the first capsule hole 50 and the second capsule hole 51, ensures that the connection between the anti-seismic fastener 31 and the splicing frame 20 and the anti-seismic plate 30 always remains tight and stable, thereby ensuring that the anti-seismic unit 3 can effectively play an anti-seismic role. The elastic protrusion 52 is arranged in the first capsule hole 50 and the second capsule hole 51, and has a columnar, hemispherical or other suitable protrusion shape. The elastic protrusion 52 can be fixed in the first capsule hole 50 and the second capsule hole 51 by injection molding, bonding or other methods during the manufacturing process, and is tightly combined with the hole wall to form a stable elastic constraint structure.

[0080] Embodiment 5:

[0081] The embodiment provides an anti-seismic aluminum honeycomb panel assembly, in addition to the technical solutions of the above-mentioned embodiments, further having the following technical features.

[0082] The anti-seismic fastener 31 comprises:

[0083] The anti-seismic bolt 310 is arranged in the first capsule hole 50 and the second capsule hole 51 and extends into the anti-seismic plate 30, and the circumferential side of the anti-seismic bolt 310 is located in the elastic protrusion 52;

[0084] The first elastic reset member 311 is arranged between the anti-seismic bolt 310 and the splicing frame 20, and an anti-seismic gasket 313 is arranged between the first elastic reset member 311 and the splicing frame 20;

[0085] The second elastic reset member 312 is arranged between the splicing frame 20 and the anti-seismic plate 30, and the two ends of the second elastic reset member 312 are provided with anti-seismic gaskets 313.

[0086] The threaded part of the anti-seismic bolt 310 extending into the anti-seismic plate 30 is provided with two anti-seismic nuts 314 matched with each other, and the anti-seismic nuts 314 and the anti-seismic plate 30 are also provided with anti-seismic gaskets 313.

[0087] The anti-seismic bolt 310 is used for connecting the splicing frame 20 and the anti-seismic plate 30, and can bear tensile force, pressure and shear force and other complex external forces under the action of earthquake force, so as to firmly fix the anti-seismic plate 30 on the splicing frame 20 and ensure the tightness and stability of the connection between the two. The anti-seismic bolt 310 passes through the first capsule hole 50 of the splicing frame 20 and the second capsule hole 51 of the anti-seismic plate 30, and is used in cooperation with the nut, so that the friction force and the axial tension generated on the thread by tightening the nut can tightly press the anti-seismic plate 30 on the splicing frame 20, thereby realizing reliable connection between the two.

[0088] The first elastic reset member 311 is used for providing elastic buffering and resetting function for the connection between the anti-seismic bolt 310 and the splicing frame 20 under the action of earthquake force. The first elastic reset member 311 is generally in the shape of a spiral spring or a rubber block, and is located between the anti-seismic bolt 310 and the splicing frame 20 and surrounds the rod part of the anti-seismic bolt 310, and is in close contact with the anti-seismic bolt 310 and the splicing frame 20.

[0089] The second elastic reset member 312 is similar to the first elastic reset member 311, and is mainly used for providing elastic buffering and resetting function for the connection between the splicing frame 20 and the anti-seismic plate 30 under the action of earthquake force. The second elastic reset member 312 is generally in the shape of a spiral spring or a rubber block, and is located between the splicing frame 20 and the anti-seismic plate 30 and near the connection position of the first capsule hole 50 and the second capsule hole 51, and is in close contact with the anti-seismic plate 30 and the splicing frame 20.

[0090] The anti-seismic gasket 313 is used for increasing the friction and damping of the connection parts between the anti-seismic bolt 310 and the splicing frame 20, the anti-seismic plate 30 and the nut, and reducing the relative sliding and loosening between these parts under the action of earthquake force. The anti-seismic gasket 313 is generally a thin sheet in the shape of a circle or a square, is installed between the anti-seismic bolt 310 and the splicing frame 20, between the splicing frame 20 and the anti-seismic plate 30, and between the nut and the anti-seismic plate 30, and is in close contact with each part. Under the action of earthquake force, the anti-seismic gasket 313 can effectively reduce the relative displacement and loosening between the parts through its elastic deformation and friction characteristics.

[0091] The anti-seismic nut 314 is used in cooperation with the anti-seismic bolt 310 to firmly fix the anti-seismic plate 30 on the splicing frame 20, and by being screwed on the thread of the anti-seismic bolt 310, sufficient axial tension and friction are generated to make the anti-seismic plate 30 tightly adhere to the splicing frame 20.

[0092] Embodiment 6:

[0093] The anti-seismic aluminum honeycomb panel assembly provided in the embodiment further has the following technical features in addition to the technical solutions in the above embodiments.

[0094] The support vertical plate 11 comprises:

[0095] A plurality of abutting plates 110 are arranged along the height direction of the wall body and are all covered outside the support vertical columns 10 forming multiple rows;

[0096] A guide block 111 is arranged in the abutting plate 110, and the support vertical column 10 is provided with a guide rail matched with the guide block 111 along the left and right sides of the wall body.

[0097] The abutting plate 110 is used to enhance the structural strength and stability of the support vertical plate 11. A plurality of abutting plates 110 are combined together, which can effectively bear horizontal external forces such as horizontal components of wind force and horizontal shear force during an earthquake, so as to prevent the support vertical plate 11 from deforming or twisting under stress, thereby ensuring reliable lateral support for the splicing panel 2 and guaranteeing the stability of the aluminum honeycomb panel 21 assembly in the wall surface plane. The abutting plate 110 is generally a thin plate-shaped structure in the shape of a rectangle. A plurality of abutting plates 110 are stacked and arranged in the vertical direction to constitute the main part of the support vertical plate 11. The abutting plates 110 can be connected by welding, riveting or bolt connection and the like.

[0098] The guide block 111 is used to cooperate with the guide rail on the support vertical column 10, plays a role of positioning and guiding during installation, facilitates accurate connection of the support vertical plate 11 and the support vertical column 10, and can enhance the connection stability and cooperative working capacity between the support vertical plate 11 and the support vertical column 10 under stress. The guide block 111 is generally in the shape of a cuboid or other regular blocks, is arranged on the side of the abutting plate 110 close to the support vertical column 10, is distributed along the length direction of the support vertical plate 11, and corresponds to the position of the guide rail on the support vertical column 10. The guide block 111 and the abutting plate 110 can be connected by welding, bolt connection or one-piece forming and the like.

[0099] Embodiment 7:

[0100] The anti-seismic aluminum honeycomb panel assembly provided in the embodiment further has the following technical features in addition to the technical solutions in the above embodiments.

[0101] The aluminum honeycomb panel 21 comprises:

[0102] The honeycomb panel 210 is arranged on both sides of the splicing frame 20 and covers the anti-vibration plate 30.

[0103] The honeycomb core 211 is arranged in the honeycomb panel 210, and the honeycomb core 211 is filled with butyl rubber.

[0104] The honeycomb panel 210 mainly plays a role in protecting the internal honeycomb core 211, preventing it from being physically damaged, chemically corroded, and the like by the external environment.

[0105] The honeycomb panel 210, as the outer surface part of the aluminum honeycomb panel 21, plays a role in protecting the internal structure and simultaneously undertakes the function of contacting the external environment, such as bearing a certain external force impact, resisting erosion of dust and water vapor, and the like, to ensure the stability and integrity of the overall structure of the aluminum honeycomb panel 21 assembly. The shape of the honeycomb panel 210 is usually designed according to the shape of the splicing frame 20 to adapt to being installed on both sides of the splicing frame 20 and to be able to cover the anti-vibration plate 30, and can be rectangular or other regular shapes to ensure matching the geometric shape of the entire assembly to achieve close installation and coverage. The honeycomb panel 210 is located at the outermost layer of the aluminum honeycomb panel 21, directly contacts the external environment, and is connected to the splicing frame 20 on both sides, wraps the honeycomb core 211 inside, and covers the outside of the anti-vibration plate 30, playing a role in protection and fixation. The honeycomb panel 210 can be connected to the splicing frame 20 by welding, riveting, or bolt connection, and at the same time, it can be bonded with the honeycomb core 211 by means of adhesive or the like.

[0106] The honeycomb core 211 mainly plays a role in supporting and enhancing the overall strength of the aluminum honeycomb panel 21, and through its unique honeycomb structure, it can effectively disperse external forces under the premise of ensuring a lighter mass, improve the compression and bending resistance of the aluminum honeycomb panel 21, and enable the aluminum honeycomb panel 21 assembly to maintain structural stability and reduce the possibility of deformation and damage when subjected to external forces such as pressure and impact force. The honeycomb core 211 has a honeycomb-shaped porous structure composed of a plurality of hexagonal or other similar honeycomb units, and these honeycomb units are connected to form a whole core layer structure. The honeycomb core 211 is located between the two honeycomb panels 210 and is wrapped by the honeycomb panels 210, being the middle layer structure of the aluminum honeycomb panel 21. The honeycomb core 211 is filled with butyl rubber, which has good flexibility, air tightness, and damping performance, and can further enhance the buffering and shock absorption capacity of the honeycomb core 211. The honeycomb core 211 and the honeycomb panel 210 are tightly bonded together by adhesive.

[0107] Example 8:

[0108] The embodiment provides an anti-vibration aluminum honeycomb panel assembly, in addition to the technical solutions of the above-mentioned embodiments, further having the following technical features.

[0109] The composite sealing pad 6 is provided between the adjacent splicing frames 20, and the composite sealing pad 6 comprises:

[0110] An inner elastic layer 60 connected with the support horizontal column 10 and the support vertical plate 11;

[0111] A middle anti-vibration layer 61 provided outside the inner elastic layer 60, and an outer elastic layer 62 provided outside the middle anti-vibration layer 61;

[0112] The inner elastic layer 60 and the outer elastic layer 62 are both natural rubber, and the middle anti-vibration layer 61 is a metal mesh.

[0113] The inner elastic layer 60 mainly plays a connecting and buffering function. On the one hand, it can connect the composite sealing pad 6 with the support horizontal column 10 and the support vertical plate 11, so that the composite sealing pad 6 is stably fixed in the corresponding position; on the other hand, when subjected to external force, such as vibration caused by an earthquake or extrusion, collision and other situations that may occur in daily use, it can absorb and buffer these external forces through its elastic deformation, reduce the transmission of impact force between adjacent components, and protect the entire aluminum honeycomb panel 21 assembly structure. The inner elastic layer 60 is generally a continuous layered structure with a certain elasticity, usually in the form of a long strip or a sheet, so as to be able to cover the corresponding connecting parts and achieve good fitting and connecting effect. The inner elastic layer 60 is located on the inner side of the composite sealing pad 6, that is, the side closest to the support horizontal column 10 and the support vertical plate 11, directly contacting them, at the connecting interface of the adjacent splicing frame 20 and the support frame 1 in the entire aluminum honeycomb panel 21 assembly. The inner elastic layer 60 is made of natural rubber, which has good elasticity, flexibility and wear resistance, and is very suitable for use as an elastic buffer material. The connection between the inner elastic layer 60 and the support horizontal column 10 and the support vertical plate 11 can be by fitting, gluing or through some auxiliary structures such as buckles and slots.

[0114] The middle anti-seismic layer 61 is used for enhancing the anti-seismic performance of the whole composite sealing gasket 6, preventing the external force from directly acting on the internal elastic layer 60 and the external elastic layer 62 to cause excessive deformation or damage, playing a role of a middle support and an anti-seismic buffer bridge, and guaranteeing the overall anti-seismic capability of the composite sealing gasket 6 and the protection effect on the whole aluminum honeycomb plate 21 assembly. The middle anti-seismic layer 61 is generally in a mesh or grid structure, for example, can be in a metal wire mesh form, and the shape thereof is matched with the internal elastic layer 60 and the external elastic layer 62, and is generally in a strip or sheet shape, and covers the outer side of the internal elastic layer 60 and is tightly combined with the internal elastic layer 60 to jointly constitute the main structure of the composite sealing gasket 6. The middle anti-seismic layer 61 is located in the middle position of the composite sealing gasket 6, is tightly connected with the internal elastic layer 60 on one side, is covered by the external elastic layer 62 on the other side, and is located between the adjacent splicing frames 20 in the whole aluminum honeycomb plate 21 assembly. The middle anti-seismic layer 61 can be connected with the internal elastic layer 60 and the external elastic layer 62 through gluing, weaving or nesting and the like.

[0115] The external elastic layer 62 also has the functions of buffering the external force and protection. The external elastic layer 62 is also in a layer structure, is similar to the internal elastic layer 60, and is also in a strip or sheet shape, so as to completely cover the outer side of the middle anti-seismic layer 61 and constitute the outermost layer structure of the composite sealing gasket 6. The external elastic layer 62 is made of natural rubber, like the internal elastic layer 60, utilizes the excellent elastic performance of the natural rubber, forms an internal and external elastic buffering system with the internal elastic layer 60, and better guarantees the function implementation of the composite sealing gasket 6. The connection mode of the external elastic layer 62 and the middle anti-seismic layer 61 can be similar to the connection mode of the external elastic layer 62 and the internal elastic layer 60, such as gluing, to ensure that the three are tightly combined into a unified composite sealing gasket 6 and jointly play a role in the use process.

[0116] The above embodiment is only a preferred embodiment of the present application, and does not limit the protection scope of the present application, so that: equivalent changes made according to the structure, shape and principle of the present application should be covered in the protection scope of the present application.

Claims

1. A shock resistant aluminum honeycomb panel assembly characterized by , comprising: a support frame (1) comprising support columns (10) fixed to a wall surface and forming multiple rows along the height direction of the wall, and support vertical plates (11) arranged on the multiple rows of support columns (10) and forming multiple columns along the left and right sides of the wall; a splicing panel (2) comprising a splicing frame (20) arranged between adjacent support columns (10) and adjacent support vertical plates (11), and an aluminum honeycomb panel (21) arranged in the splicing frame (20); an anti-seismic unit (3) comprising anti-seismic plates (30) arranged in the splicing panel (2) and symmetrically arranged along the height direction of the wall and the left and right sides of the wall, and a plurality of anti-seismic fasteners (31) arranged between the splicing frame (20) and the anti-seismic plates (30) along the circumferential side of the splicing frame (20).

2. The shock resistant aluminum honeycomb panel assembly of claim 1, wherein, The circumferential side of the splicing frame (20) is provided with a splicing plate (4) extending outward and connected with the support column (10) and the support vertical plate (11), and the splicing plate (4) can cooperate with the splicing plate (4) of the adjacent splicing frame (20).

3. The shock resistant aluminum honeycomb panel assembly of claim 2, wherein, The splicing plate (4) comprises: an upper plate (40) arranged at the top of the splicing frame (20), the upper plate (40) abutting against the support column (10), and the bottom of the splicing frame (20) being provided with a lower plate (41) cooperating with the upper plate (40), the lower plate (41) being away from the support column (10); a right plate (42) arranged at the right side of the splicing frame (20), the right plate (42) abutting against the support vertical plate (11), and the left side of the splicing frame (20) being provided with a left plate (43) cooperating with the right plate (42), the left plate (43) being away from the support vertical plate (11).

4. The shock resistant aluminum honeycomb panel assembly of claim 2, wherein, An anti-seismic assembly (5) for preventing the anti-seismic fastener (31) from moving is arranged between the splicing plate (4) and the anti-seismic plate (30), and the anti-seismic assembly (5) comprises: a plurality of first capsule holes (50) arranged along the circumferential side of the splicing frame (20), the long axis of the first capsule hole (50) being parallel to the wall surface; a second capsule hole (51) arranged on the anti-seismic plate (30) and corresponding to the first capsule hole (50), the long axis of the second capsule hole (51) being perpendicular to the wall surface; an elastic protrusion (52) arranged in the first capsule hole (50) and the second capsule hole (51).

5. The shock resistant aluminum honeycomb panel assembly of claim 4, wherein, The anti-seismic fastener (31) comprises: an anti-seismic bolt (310) penetrating the first capsule hole (50) and the second capsule hole (51) and extending into the anti-seismic plate (30), and the circumferential side of the anti-seismic bolt (310) being located in the elastic protrusion (52); a first elastic return member (311) arranged between the anti-seismic bolt (310) and the splicing frame (20), and an anti-seismic gasket (313) being arranged between the first elastic return member (311) and the splicing frame (20); a second elastic return member (312) arranged between the splicing frame (20) and the anti-seismic plate (30), and an anti-seismic gasket (313) being arranged at both ends of the second elastic return member (312). The threaded part of the anti-seismic bolt (310) extending into the anti-seismic plate (30) is provided with two matched anti-seismic nuts (314), and the anti-seismic nuts (314) and the anti-seismic plate (30) are also provided with anti-seismic gaskets (313).

6. The shock resistant aluminum honeycomb panel assembly of claim 1, wherein, The support vertical plate (11) comprises: a plurality of abutting plates (110) arranged along the height direction of the wall body and covering the support columns (10) forming multiple rows; a guide block (111) arranged in the abutting plate (110), and the support column (10) is provided with a guide rail matched with the guide block (111) along the left and right sides of the wall body.

7. The shock resistant aluminum honeycomb panel assembly of claim 1, wherein, The aluminum honeycomb plate (21) comprises: a honeycomb panel (210) arranged on both sides of the splicing frame (20) and covering the anti-seismic plate (30); a honeycomb core (211) arranged in the honeycomb panel (210), and the honeycomb core (211) is filled with butyl rubber.

8. The shock resistant aluminum honeycomb panel assembly of claim 1, wherein, The adjacent splicing frames (20) are provided with a composite sealing gasket (6), and the composite sealing gasket (6) comprises: an inner elastic layer (60) connected with the support column (10) and the support vertical plate (11); a middle anti-seismic layer (61) arranged on the outer side of the inner elastic layer (60), and the outer side of the middle anti-seismic layer (61) is provided with an outer elastic layer (62); wherein the inner elastic layer (60) and the outer elastic layer (62) are both natural rubber, and the middle anti-seismic layer (61) is a metal mesh.

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