Bonding and hanging structure of metal heat preservation integrated plate

Abstract

The utility model relates to the technical field of metal insulation boards, in particular to a metal insulation integrated board sticking and hanging structure which comprises a mounting base and a fastening mechanism, the fastening mechanism is made of an integrally-formed fastening board, one end of the fastening board is a plane, a mounting hole connected with the metal insulation integrated board is formed in the end, and the fastening board is fixedly connected with the mounting base. Uniform sawteeth are arranged on the surface of one side of the other end of the buckling plate, the mounting base comprises a bottom plate, a baffle, a first sawtooth plate and a second sawtooth plate, the baffle, the first sawtooth plate and the second sawtooth plate are parallel to one another and are vertically mounted on the bottom plate, and the surfaces of the sides, facing the baffle, of the first sawtooth plate and the second sawtooth plate are sawtooth faces; and the uniform sawteeth on the buckling plate are respectively matched with the sawtooth surfaces on the first sawtooth plate and the second sawtooth plate. According to the metal thermal insulation integrated plate, the rapid installation of the metal thermal insulation integrated plate can be realized.

Description

Technical Field

[0001] This utility model relates to the field of metal insulation board technology, specifically to a metal insulation integrated board adhesive structure. Background Technology

[0002] The traditional construction of integrated metal insulation panels faces numerous technical challenges. Firstly, precise fixing by workers ensures accurate positioning of each panel, increasing construction difficulty and potentially affecting the overall aesthetics and insulation performance of the wall due to operational errors. Secondly, traditional processes require applying adhesive mortar to the panels, adding weight and significantly increasing construction complexity. More seriously, the difficulty in precisely controlling the mortar thickness can lead to noticeable unevenness in the exterior wall finish. Furthermore, the use of fasteners for physical fixing during installation can easily damage corner brackets or deform the panels. Additionally, when using anchors, the gaps between adjacent panels are relatively large, typically 8-12 mm, severely impacting the overall aesthetics of the exterior wall. These technical issues significantly restrict the construction efficiency and quality of integrated metal insulation panels, necessitating technological innovation to address them. Existing technologies urgently need improvement to address these problems. Utility Model Content

[0003] In view of the shortcomings of the existing technology, the purpose of this utility model is to provide a metal insulation integrated panel adhesive structure.

[0004] To achieve the above objectives, this utility model provides the following technical solution: a metal insulation integrated panel adhesive structure, including a mounting base and a fastening mechanism. The fastening mechanism is made of an integrally formed fastening plate. One end of the fastening plate is flat and has a mounting hole for connecting with the metal insulation integrated panel. The other end of the fastening plate has uniformly serrated edges on one side. The mounting base includes a base plate, a baffle, a first serrated plate, and a second serrated plate. The baffle, the first serrated plate, and the second serrated plate are parallel to each other and perpendicularly mounted on the base plate. The surface of the first serrated plate and the second serrated plate facing the baffle is serrated. The uniformly serrated edges on the fastening plate respectively cooperate with the serrated surfaces on the first serrated plate and the second serrated plate.

[0005] In some embodiments, pull-out rivets are provided in the mounting holes of the snap-fit ​​plate, and the side of the integrated metal insulation panel is fixedly connected to the snap-fit ​​plate by pull-out rivets.

[0006] In some embodiments, the base plate is provided with fixing holes for connection to the base wall. In some embodiments, expansion screws are installed in the fixing holes.

[0007] In some embodiments, the spacing between the baffle and the first serrated plate and the spacing between the first serrated plate and the second serrated plate are consistent with the thickness of the fastening plate.

[0008] Compared with the prior art, the beneficial effects of this utility model are: by using an integrally formed snap-fit ​​plate and a serrated mounting base, precise positioning installation can be achieved, effectively avoiding positioning errors and board deformation problems in traditional construction. At the same time, it reduces the width of the expansion joint, which has the advantages of simplifying the construction process, improving installation accuracy, reducing the risk of board deformation, and improving the flatness of the exterior wall.

[0009] Details of one or more embodiments of this application are set forth in the following drawings and description to make other features, objects and advantages of this application more readily apparent. The embodiments of this application will provide a detailed description and understanding of this application. Attached Figure Description

[0010] Figure 1 is a schematic diagram of the assembly structure of this utility model;

[0011] Figure 2 is a schematic diagram of the mounting base structure of this utility model; Figure 3 is a side view of the mounting base structure in Figure 2;

[0012] Figure 4 is a schematic diagram of the fastening mechanism of this utility model; Figure 5 is a side view of the fastening mechanism in Figure 4.

[0013] In the diagram: 1. Base plate; 2. Baffle; 3. First serrated plate; 4. Second serrated plate; 5. Interlocking plate; 6. Uniform serrations; 7. Draw-out rivet; 8. Base wall; 9. Integrated metal insulation panel; 10. Expansion screw. Detailed Implementation

[0014] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0015] In traditional metal insulation panel construction, the reliance on manual positioning for panel fixation means installation accuracy is limited by the skill level of the workers, easily leading to cumulative installation errors. The bonding mortar application process results in thickness differences at the interface between the panel and the base wall, causing a wavy, uneven surface on the exterior wall. Physical fasteners and forced anchoring methods generate lateral compressive stress, causing plastic deformation at the panel edges and creating continuous wide joints between adjacent panels.

[0016] For example, in the construction of curtain walls for high-rise buildings, six prefabricated metal insulation panels need to be installed per square meter of a standard floor. When using traditional fastener anchoring technology, the work team needs to pre-embed corner brackets on the sides of the panels and rigidly connect the corner brackets to the concrete structural layer using expansion bolts. The shear force generated by the self-weight of the panels and wind loads is concentrated at the corner bracket connection point, causing the local stress to exceed the yield strength of the aluminum alloy corner brackets. Adjacent panels experience longitudinal displacement due to corner bracket installation errors, ultimately forming a stepped misalignment at the external corner of the wall. During the curing and shrinkage stage of the bonding mortar, differences in the mortar mix ratio between different batches lead to non-uniform deformation of the interface layer, resulting in thermal stress cracks under the influence of solar radiation and temperature differences.

[0017] If the above problems are not addressed, the cumulative installation errors will lead to a decrease in the overall airtightness of the curtain wall system, allowing rainwater to seep into the insulation layer along the wide-groove structure. The propagation of thermal stress cracks in the interface layer will damage the closed-cell structure of the insulation material, reducing the stability of the wall's heat transfer coefficient. Plastic deformation of the corner brackets will reduce the curtain wall's wind pressure resistance, potentially causing localized panel detachment under extreme weather conditions.

[0018] Faced with the aforementioned problems, this application first analyzes the root causes of plate positioning errors and fastener stress concentration in traditional installation processes. Manual positioning relies on the operator's accumulated experience and cannot eliminate displacement deviations caused by the plate's own weight; concentrated stress at physical anchor points leads to yielding deformation of the corner brackets. To address this, this application considers using a continuously distributed mechanical restraint structure to replace discrete anchor points, distributing the load through surface contact.

[0019] Further research revealed that an adjustable interlocking mechanism on the side of the sheet metal can compensate for installation tolerances and create multi-directional constraints. Specifically, the bidirectional serrated interlocking structure achieves both longitudinal positioning and lateral limiting functions, while the integrally formed interlocking plate avoids strength reduction caused by welding joints. Ultimately, a self-locking mechanism was determined through the interlocking of the serrated surfaces, while the spacing between the baffle and the serrated plate was matched to control the assembly gap of the sheet metal.

[0020] As shown in Figures 1-5, this application proposes a metal insulation integrated panel adhesive structure, including a mounting base and a fastening mechanism. The fastening mechanism is made of an integrally formed fastening plate 5. One end of the fastening plate 5 is flat and has a mounting hole for connecting with the metal insulation integrated panel 9. The other end of the fastening plate 5 has uniform serrations 6 on one side surface. The mounting base includes a base plate 1, a baffle 2, a first serrated plate 3, and a second serrated plate 4. The baffle 2, the first serrated plate 3, and the second serrated plate 4 are parallel to each other and perpendicularly mounted on the base plate 1. The side surface of the first serrated plate 3 and the second serrated plate 4 facing the baffle 2 is serrated. The uniform serrations 6 on the fastening plate 5 respectively cooperate with the serrated surfaces on the first serrated plate 3 and the second serrated plate 4.

[0021] The mounting base refers to the base structure used to support and fix the fastening mechanism. Specifically, it can be a combination structure with a base plate 1, a baffle 2, and a serrated plate. The base plate 1 provides a supporting surface, and the baffle 2 and the serrated plate form a limiting groove to ensure the stability of the fastening mechanism during installation. The fastening mechanism refers to the component used to connect the integrated metal insulation panel 9. Specifically, it can be implemented using an integrally molded fastening plate 5. One end of the fastening plate 5 is fixed to the metal plate through a mounting hole, and the other end engages with the serrated plate of the mounting base through its serrated surface, achieving positioning without relying on adhesive mortar. The uniform serrations 6 refer to the toothed contact surface between the fastening plate 5 and the mounting base. Specifically, it can be implemented using a continuous, equidistant trapezoidal tooth structure. The insertion depth of the fastening plate 5 is adjusted by the meshing of the tooth surfaces, eliminating positional deviations caused by human error during installation. Among them, the first serrated plate 3 and the second serrated plate 4 refer to the serrated limiting parts symmetrically distributed on the mounting base. Specifically, they can be implemented by metal plates vertically welded to the base plate 1. The distance between the two serrated plates matches the thickness of the fastening plate 5, which limits the lateral displacement of the fastening plate 5 and avoids problems such as plate deformation or excessively large gaps.

[0022] The core innovation of this application lies in the use of an integrated interlocking plate 5 and a mounting base with a serrated plate. The serrated meshing enables the rapid positioning and fixing of the metal insulation board, replacing the traditional installation method that relies on adhesive mortar and anchor fasteners. This reduces the weight of the board and the difficulty of construction, while also allowing for precise control of the width of the expansion joints, ensuring the flatness of the wall surface and the overall aesthetics.

[0023] The working process and principle of this application are as follows: the metal insulation integrated panel 9 adhesive structure includes a mounting base and a fastening mechanism. The fastening mechanism is made of an integrally formed fastening plate 5. One end of the fastening plate 5 is flat and has mounting holes for connecting with the metal insulation integrated panel 9. The other end of the fastening plate 5 has uniformly serrated edges 6 on one side surface. The mounting base includes a base plate 1, a baffle 2, a first serrated plate 3, and a second serrated plate 4. The baffle 2, the first serrated plate 3, and the second serrated plate 4 are parallel to each other and perpendicularly mounted on the base plate 1. The surface of the first serrated plate 3 and the second serrated plate 4 facing the baffle 2 is serrated. The uniformly serrated edges 6 on the fastening plate 5 cooperate with the serrated surfaces on the first serrated plate 3 and the second serrated plate 4.

[0024] During operation, the mounting base is first fixed to the wall. Then, the integrated metal insulation panel 9 is connected to the interlocking plate 5 through the mounting holes. Next, the uniformly spaced serrations 6 on the interlocking plate 5 are inserted between the first serrated plate 3 and the second serrated plate 4. The uniformly spaced serrations 6 on the interlocking plate 5 engage with the serrated surfaces of the first serrated plate 3 and the second serrated plate 4, forming a self-locking mechanism. The baffle 2 is used to limit the insertion depth of the interlocking plate 5 to ensure installation accuracy.

[0025] This structure achieves both longitudinal positioning and lateral restraint through serrated engagement. The one-piece molded interlocking plate 5 avoids the strength reduction caused by welding joints. The spacing between the baffle 2 and the serrated plate controls the assembly gap of the plates. A continuously distributed mechanical restraint structure replaces discrete anchor points, distributing loads through surface contact and avoiding stress concentration. The adjustable interlocking mechanism compensates for installation tolerances, forming multi-directional constraints.

[0026] As a preferred embodiment, the solution of this application is specifically implemented as follows:

[0027] The integrated metal insulation panel 9 has an adhesive structure including a mounting base and a fastening mechanism. The fastening mechanism is made of a one-piece molded fastening plate 5. The fastening plate 5 is made of aluminum alloy and manufactured through an extrusion molding process. One end of the fastening plate 5 is flat and has several circular mounting holes. The mounting holes are evenly distributed along the length of the fastening plate 5. The other end of the fastening plate 5 has evenly distributed triangular serrations on one side surface.

[0028] The mounting base includes a base plate 1, a baffle 2, a first serrated plate 3, and a second serrated plate 4. The base plate 1 is made of steel plate and formed by stamping. The baffle 2, the first serrated plate 3, and the second serrated plate 4 are all made of aluminum alloy and formed by extrusion. The baffle 2, the first serrated plate 3, and the second serrated plate 4 are welded parallel to each other and perpendicular to the base plate 1. The surface of the first serrated plate 3 and the second serrated plate 4 facing the baffle 2 has triangular serrations that match the serrations of the fastening plate 5.

[0029] During installation, first, fix the mounting base to the wall using expansion bolts. Then, connect the integrated metal insulation panel 9 to the interlocking plate 5 using blind rivets. Next, insert the serrated edge of the interlocking plate 5 between the first serrated plate 3 and the second serrated plate 4, so that the serrations mesh together. Finally, adjust the position of the interlocking plate 5 so that it fits snugly against the baffle 2 to complete the installation.

[0030] Through the above scheme, this application achieves rapid and precise installation of the integrated metal insulation panel 9. The continuously distributed serrated interlocking structure replaces the traditional discrete anchor points, avoiding corner bracket deformation caused by stress concentration. The self-locking mechanism eliminates displacement deviation caused by the panel's own weight, improving installation accuracy. The matching spacing between the baffle 2 and the serrated plate controls the panel assembly gap, improving the flatness of the exterior wall surface. The integrally formed interlocking plate 5 improves connection strength and enhances wind pressure resistance. This structure eliminates the need for adhesive mortar, simplifying the construction process and reducing the weight of the panels.

[0031] In some of the solutions mentioned above in this application, a snap-fit ​​plate 5 is proposed to connect the metal insulation integrated plate 9 through the mounting holes. However, the traditional fixing method relies on the cooperation of adhesive mortar and fasteners, which can easily lead to unstable fixing of the side of the metal plate, resulting in problems such as plate deformation or excessively large partition joints.

[0032] This application further proposes that the mounting holes on the snap-fit ​​plate 5 are provided with pull-out rivets 7, and the side of the integrated metal insulation plate 9 is fixedly connected to the snap-fit ​​plate 5 by the pull-out rivets 7.

[0033] The mounting holes provide space for the pull-out rivets 7, which, after passing through the mounting holes, align with pre-drilled holes on the side of the integrated metal insulation panel 9. The pull-out rivets 7 can be made of aluminum or steel, with a head diameter larger than the mounting hole diameter, and a tail that expands and deforms through a riveting process to form a locking structure. The flat end of the snap-fit ​​plate 5 fits against the side of the integrated metal insulation panel 9, and the axial clamping force of the pull-out rivets 7 secures them tightly. This method avoids applying adhesive mortar to the metal plate surface and eliminates the need for additional corner brackets or fasteners.

[0034] Specifically, the side of the integrated metal insulation panel 9 has pre-drilled through holes corresponding to the mounting holes. After the pull-wire rivet 7 passes through the mounting hole and the through hole, a special tool is used to apply tension to the tail of the rivet, causing it to expand and mechanically engage with the inner wall of the through hole. The increased diameter of the expanded rivet tail effectively limits the relative displacement between the integrated metal insulation panel 9 and the fastening plate 5. For example, the expansion coefficient of the pull-wire rivet 7 can be controlled within the range of 1.5-2.0 times, ensuring connection strength and shear resistance. This fixing method directly transfers the load through the contact surface between the side of the metal plate and the flat end of the fastening plate 5, eliminating the risk of panel deformation caused by fastener compression in traditional processes, while reducing the gap between adjacent panels to 3-5 mm, improving overall flatness.

[0035] As a preferred embodiment, the solution of this application is implemented as follows: A pull-thread rivet 7 is installed in the mounting hole on the snap-fit ​​plate 5, and the side of the integrated metal insulation panel 9 is fixedly connected to the snap-fit ​​plate 5 by the pull-thread rivet 7. Specifically, several mounting holes are pre-drilled on the flat end of the snap-fit ​​plate 5, and the diameter of the mounting holes matches the diameter of the pull-thread rivet 7. The pull-thread rivet 7 consists of a rivet body and a pull rivet; the rivet body is inserted into the mounting hole, and the pull rivet passes through the rivet body. The side of the integrated metal insulation panel 9 is aligned with the snap-fit ​​plate 5, so that the pull-thread rivet 7 passes through the side of the integrated metal insulation panel 9. Then, a special tool is used to pull the pull rivet, causing the rivet body to expand and deform, thereby firmly connecting the integrated metal insulation panel 9 to the snap-fit ​​plate 5.

[0036] Through the above technical solution, this application achieves a quick and reliable connection between the integrated metal insulation panel 9 and the snap-fit ​​plate 5. The use of pull-out rivets 7 simplifies the installation process, eliminating the need for special tools or complex fixing methods. This reduces installation time and labor costs. Furthermore, pull-out rivets 7 provide a uniform pressure distribution, avoiding localized stress concentration and enhancing the stability and durability of the connection. In addition, the use of pull-out rivets 7 also ensures the waterproof performance of the connection point, reducing the risk of rainwater leakage.

[0037] In some of the solutions described above in this application, the fixing method between the mounting base and the base wall 8 has insufficient reliability, which may affect the structural stability and thus the overall installation effect of the integrated metal insulation panel 9. This application further proposes to provide fixing holes on the base plate 1 for connection with the base wall 8.

[0038] The fixing holes are set at predetermined positions on the base plate 1, and their diameter matches the specifications of the expansion screws 10. The fixing holes are spaced apart along the length of the base plate 1, forming multiple fixing points. After passing through the fixing holes, the expansion screws 10 form a mechanical connection with the base wall 8. Fixing holes are provided in the edge area of ​​the base plate 1 to avoid interference with the installation positions of the baffle 2, the first serrated plate 3, and the second serrated plate 4.

[0039] Specifically, the mounting base is fixed to the base wall 8 via fixing holes on the base plate 1, and expansion bolts 10 are driven into the wall through the fixing holes to achieve anchoring. Multiple fixing holes distribute the force, making the connection between the base plate 1 and the base wall 8 more uniform and reducing localized stress concentration. The layout of the fixing holes on the edge of the base plate 1 ensures installation strength while avoiding positional conflicts with the vertically installed baffle 2 and serrated plate, ensuring the precision of the connection between the fastening mechanism and the mounting base. The tightening force of the expansion bolts 10 is transmitted to the base plate 1 through the fixing holes, forming a stable support foundation, thereby improving the deformation resistance of the integrated metal insulation panel 9 after installation.

[0040] As a preferred embodiment, the solution of this application is specifically implemented as follows:

[0041] Fixing holes are provided on the base plate 1. These holes are used to connect to the base wall 8. The fixing holes can be evenly distributed on the base plate 1 to ensure a secure connection between the mounting base and the base wall 8. The number and distribution of the fixing holes can be adjusted according to actual needs. The shape of the fixing holes can be circular, square, or other suitable shapes. The diameter of the fixing holes can be determined according to the size of the connectors used.

[0042] Through the above technical solution, this application achieves a reliable connection between the mounting base and the base wall 8. The fixing holes allow the mounting base to be firmly fixed to the base wall 8, improving the stability and safety of the entire metal insulation integrated panel 9 adhesive structure. Furthermore, the fixing hole design simplifies the installation process, reducing installation time and labor costs. Since the fixing holes can be adjusted according to actual needs, this solution has high adaptability and can be applied to different types of base walls 8.

[0043] In some of the solutions described above in this application, the fixing holes lack an effective fastening method, resulting in an unstable connection between the mounting base and the base wall 8, which affects the overall structural reliability.

[0044] This application further proposes that an expansion screw 10 be provided in the fixing hole.

[0045] The expansion screw 10 is pre-embedded in the fixing hole as a connector, and its threaded structure forms a mechanical engagement with the inner wall of the fixing hole. Furthermore, the expansion end of the expansion screw 10 expands under pressure during installation, generating radial pressure between it and the base wall 8, achieving bidirectional locking. For example, the expansion screw 10 can be made of metal, and its diameter matches the inner diameter of the fixing hole, with an error controlled within ±0.5 mm.

[0046] Specifically, during installation, the base plate 1 is first aligned with the preset position on the base wall 8 through the fixing holes. Then, the expansion screws 10 are vertically inserted into the fixing holes and screwed into the base wall 8. As the screws rotate, the expansion ends deform within the wall, creating an anchoring effect. This effectively limits the horizontal displacement of the base plate 1, while the tensile strength of the expansion screws 10 can withstand the load of the integrated metal insulation panel 9. This method eliminates the need for adhesive mortar, avoiding flatness deviations caused by uneven mortar thickness in traditional processes. It also reduces the number of gaps created by fastener installation, improving construction efficiency and structural stability.

[0047] As a preferred embodiment, the solution of this application is implemented as follows: An expansion screw 10 is installed in the fixing hole. The expansion screw 10 consists of a bolt and an expansion sleeve. The expansion sleeve is made of plastic, is cylindrical, and has raised anti-slip textures on its outer surface. The bolt is made of metal, and its threaded portion mates with the inner wall of the expansion sleeve. During installation, a hole is first drilled in the base wall 8, the expansion sleeve is inserted into the hole, and then the bolt is screwed into the expansion sleeve. As the bolt is screwed in, the expansion sleeve is compressed and expanded, pressing tightly against the hole wall, thereby firmly fixing the base plate 1 to the base wall 8.

[0048] Through the above technical solution, this application achieves a reliable connection between the base plate 1 and the base wall 8. The use of expansion screws 10 improves the convenience and stability of installation, allowing installation to be completed without the need for special tools. Simultaneously, the expansion screws 10 enhance the connection strength between the base plate 1 and the wall, improving the load-bearing and tensile strength of the entire adhesive structure, ensuring the stability and safety of the integrated metal insulation panel 9 during use. Furthermore, the application of expansion screws 10 is applicable to various base wall materials 8, increasing the applicability of this adhesive structure.

[0049] In some of the above-mentioned solutions of this application, if the distance between the baffle 2, the first serrated plate 3 and the second serrated plate 4 in the mounting base structure deviates from the thickness of the fastening plate 5, the fastening plate 5 may not fit tightly during installation, causing the plate to loosen or the gap to increase, affecting the structural stability and appearance flatness.

[0050] This application further proposes that the spacing between the baffle 2 and the first serrated plate 3 and the spacing between the first serrated plate 3 and the second serrated plate 4 are consistent with the thickness of the fastening plate 5.

[0051] In this design, baffle 2 is vertically fixed to base plate 1 to form a lateral limiting surface. First serrated plate 3 and second serrated plate 4 are arranged parallel to baffle 2 at intervals, with the spacing parameters controlled by a precision stamping process. Both spacings adopt a design standard equal to the thickness of fastening plate 5. For example, when the thickness of fastening plate 5 is 2 mm, the spacing between baffle 2 and first serrated plate 3 is set to 2 mm, and the spacing between first serrated plate 3 and second serrated plate 4 is simultaneously adjusted to 2 mm. This spacing parameter is laser-cut to ensure tolerance control within ±0.1 mm.

[0052] Specifically, during installation, the flat end of the interlocking plate 5 is inserted into the gap formed by the baffle 2 and the first serrated plate 3, while the serrated end is embedded in the gap between the first serrated plate 3 and the second serrated plate 4. Since all three gaps precisely correspond to the thickness of the interlocking plate 5, the plate makes surface contact with the serrated surface rather than point contact when inserted, avoiding lateral wobbling caused by excessive gaps. Actual measurement data shows that this structure reduces the width of the gap between adjacent plates to within 3-5 mm, approximately 60% lower than traditional methods. During installation, the engagement depth between the serrations of the interlocking plate 5 and the base serrations remains uniform, effectively preventing plate deformation caused by localized stress concentration.

[0053] As a preferred embodiment, the solution of this application is specifically implemented as follows:

[0054] The spacing between the baffle 2 and the first serrated plate 3, and the spacing between the first serrated plate 3 and the second serrated plate 4, are consistent with the thickness of the snap-fit ​​plate 5. Specifically, the thickness of the snap-fit ​​plate 5 is 5mm, the spacing between the baffle 2 and the first serrated plate 3 is 5mm, and the spacing between the first serrated plate 3 and the second serrated plate 4 is also 5mm. Therefore, the snap-fit ​​plate 5 can be tightly inserted into the mounting base, achieving a stable connection. Furthermore, the serrations on the first serrated plate 3 and the second serrated plate 4 can mesh with the uniform serrations 6 on the snap-fit ​​plate 5, further enhancing the connection strength.

[0055] Through the above technical solution, this application achieves a tight fit between the interlocking plate 5 and the mounting base, improving the installation stability of the integrated metal insulation panel 9. Since the spacing is consistent with the thickness of the interlocking plate 5, shaking and loosening during installation are avoided, ensuring the overall flatness of the wall. Furthermore, this design simplifies the installation process, reduces the need for precise manual adjustments, and improves construction efficiency. Simultaneously, the use of a sawtooth interlocking fixing method eliminates the need for additional adhesive mortar or anchors, reducing installation difficulty, material usage, and narrowing the gaps between adjacent panels, thus improving the aesthetics of the wall surface.

[0056] In some of the solutions described above in this application, the spacing between the baffle 2, the first serrated plate 3, and the second serrated plate 4 is proposed to fix the fastening plate 5. However, during the installation process, the deviation between the spacing and the thickness of the fastening plate 5 may cause the fastening plate 5 to fail to be tightly embedded or to become loose after installation, thereby affecting the stability of the overall structure and the installation efficiency.

[0057] Through the above technical solutions, in the actual construction process,

[0058] 1. Use pull-out rivets 7 to fix the snap-fit ​​plate 5 to the side groove of the integrated insulation panel;

[0059] 2. According to the partition height, fix the mounting base to the base wall 8 using expansion screws 10, and adjust the distance between the base plate 1 and the wall surface using washers. Smooth the remaining wall surface with adhesive mortar, ensuring the adhesive mortar is at the same height as the bottom surface of the base plate 1;

[0060] 3. During installation, align the upper clips of the side grooves around the integrated panel with the corresponding slots of the base plate 1, insert them, and then the clip plate 5 and the corresponding sawtooth plate on the base plate 1 will interlock. Then adjust the flatness, levelness and verticality to ensure that the integrated panel fits the wall. The first insulation board is now installed.

[0061] 4. When installing adjacent panels, insert the upper snap-fit ​​plate 5 into another slot of the same base plate 1. Adjust the flatness, levelness and verticality while adjusting the flatness between adjacent panels. Note that the installation is complete after the upper and lower integrated panels are in sync.

[0062] 5. Apply silicone sealant to the seams between the boards, remove the protective film, and clean the board surface to complete the work.

[0063] In addition, to improve the structural stability between the integrated insulation panel and the wall, adhesive mortar can be injected between the integrated insulation panel and the wall to enhance the firmness between them.

[0064] The above embodiments merely illustrate several implementation methods of this application, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the invention patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this application, and these all fall within the protection scope of this application. Therefore, the protection scope of this patent application should be determined by the appended claims.

[0065] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A metal insulation integrated panel adhesive structure, characterized in that: The device includes a mounting base and a fastening mechanism. The fastening mechanism is made of an integrally formed fastening plate. One end of the fastening plate is flat and has a mounting hole for connecting with the integrated metal insulation panel. The other end of the fastening plate has uniformly serrated edges on one side. The mounting base includes a base plate, a baffle, a first serrated plate, and a second serrated plate. The baffle, the first serrated plate, and the second serrated plate are parallel to each other and perpendicular to the base plate. The surfaces of the first and second serrated plates facing the baffle are serrated. The uniformly serrated edges on the fastening plate respectively mate with the serrated surfaces on the first and second serrated plates.

2. The metal thermal insulation integrated panel sticking structure according to claim 1, characterized in that: The mounting holes on the snap-fit ​​plate are equipped with pull-out rivets, and the side of the integrated metal insulation panel is fixedly connected to the snap-fit ​​plate by pull-out rivets.

3. The metal thermal insulation integrated panel sticking structure according to claim 1, characterized in that: The base plate is provided with fixing holes for connection with the base wall.

4. The metal thermal insulation integrated panel sticking structure according to claim 3, characterized in that: An expansion screw is installed inside the fixing hole.

5. The metal thermal insulation integrated panel sticking structure according to claim 1, characterized in that: The distance between the baffle and the first serrated plate and the distance between the first serrated plate and the second serrated plate are consistent with the thickness of the fastening plate.

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