A thermal insulation wall

Abstract

The application provides a thermal insulation wall body, comprising a wall body and a support structure, the wall body comprising a base layer and first and second outer wall plates which are parallel to each other, the base layer being arranged between the first and second outer wall plates and gaps being present between the base layer and the first and second wall plates; the support structure comprising a steel structure, a support column and a spring structure, the steel structure being arranged in the gaps, the first outer wall plate having a first inner side surface facing the base layer, the second outer wall plate having a second inner side surface facing the base layer, the support column having one end arranged on the first inner side surface and the other end arranged on the second inner side surface, and the spring structure being arranged on the support column and fixedly connected with the base layer, the bolt connection mode of the support column and the base layer providing additional structural strength, ensuring the stability and reliability of the entire wall body system under various environmental conditions, and the multi-level and multi-material combined design improving the connection firmness of the wall body.

Description

Technical Field

[0001] This application relates to the field of walls, and more particularly to an insulated wall. Background Technology

[0002] Thermal insulation walls play an important role in the construction industry. They are designed to provide good thermal insulation performance to reduce energy consumption and improve indoor comfort. Traditional thermal insulation walls are usually composed of multiple layers, including exterior wall panels, interior wall panels and insulation materials between them. These components are usually assembled in a variety of ways to ensure the structural stability and strong connection of the wall, thereby providing long-term reliable thermal insulation.

[0003] In the existing technology, the main methods to achieve a firm connection of walls include a variety of structural designs and connection technologies. For example, some solutions use mechanical fasteners or adhesives to ensure a firm connection between different parts of the wall. Mechanical fasteners usually involve metal or plastic structures that fix the exterior wall panels to the interior wall panels together by bolts, clamps or other connectors. On the other hand, adhesives bond wall components together through chemical bonding. Their advantage is that they simplify the installation process and may improve the sealing of the structure.

[0004] However, existing technical solutions have some limitations, especially when dealing with the thermal expansion and contraction between wall components. Due to changes in ambient temperature or different material properties, wall components may experience slight movement or deformation, which may lead to loosening or damage at the connection points. In addition, some connection solutions may not be able to effectively cope with external forces such as vibration or earthquakes, thereby affecting the overall stability and durability of the wall.

[0005] Therefore, a new design and technical solution is needed to effectively address these technical challenges in the connection strength of traditional thermal insulation walls. Utility Model Content

[0006] In view of this, it is necessary to provide a robust and secure insulated wall structure to solve the above problems.

[0007] An embodiment of this application provides an insulated wall, including a wall and a supporting structure. The wall includes a base layer and a first outer wall panel and a second outer wall panel that are parallel to each other. The base layer is disposed between the first outer wall panel and the second outer wall panel, and there are gaps between the base layer and the first wall panel and the second wall panel.

[0008] The supporting structure includes a steel reinforcement structure, a support column, and a spring structure. The steel reinforcement structure is disposed in the gap. The first outer wall panel has a first inner side facing the base layer, and the second outer wall panel has a second inner side facing the base layer. One end of the support column is disposed on the first inner side, and the other end is disposed on the second inner side. The spring is disposed on the support column and is fixedly connected to the base layer.

[0009] In at least one embodiment of this application, the spring structure includes a plurality of spring members, which are arranged parallel to each other and are all disposed on the steel reinforcement structure.

[0010] In at least one embodiment of this application, the spring member includes a spring and a fixing block fixedly connected to the base layer, one end of the spring is disposed on the steel reinforcement structure, and the other end is fixedly connected to the fixing block.

[0011] In at least one embodiment of this application, a heat insulation layer is provided on the back side of the first inner side.

[0012] In at least one embodiment of this application, the reinforcing steel structure is carbon steel.

[0013] In at least one embodiment of this application, the steel reinforcement structure and the exterior wall structure are arranged symmetrically along the central axis of the base width.

[0014] In at least one embodiment of this application, when viewed in the width direction, the distance between the first inner side surface and the steel reinforcement structure surface adjacent to the first inner side surface is a first thickness, and the distance between the steel reinforcement structure surface adjacent to the first inner side surface and the substrate is a second thickness.

[0015] In at least one embodiment of this application, the ratio of the first thickness to the second thickness is 1:3.

[0016] In at least one embodiment of this application, the support column is bolted to the base layer.

[0017] In at least one embodiment of this application, the spring element in the spring structure is made of carbon steel.

[0018] The aforementioned insulated wall system optimizes the connection strength of the wall through the following key design features: First, the wall structure includes a base layer and two parallel outer wall panels, with the base layer located between the outer wall panels and having a gap between them. This design not only ensures the thermal insulation effect of the wall but also provides suitable installation space for the subsequent support structure. Second, the support structure adopts a combination of steel reinforcement, support columns, and spring structure. The steel reinforcement is precisely located in the gap between the base layer and the outer wall panels, while the support columns connect the first and second outer wall panels together through the spring structure. This design not only effectively absorbs minor deformations in the wall structure caused by temperature changes, but also effectively resists external vibrations and seismic forces, thereby improving the overall stability and durability of the wall. Third, the spring components in the spring structure are made of carbon steel, possessing excellent elasticity and durability, ensuring long-term performance stability. Each spring component is firmly connected to the base layer via fixing blocks, ensuring that each part of the wall structure maintains a relatively stable position under external forces. Finally, the bolted connection between the support columns and the base layer provides additional structural strength, ensuring the stability and reliability of the entire wall system under various environmental conditions. This multi-layered, multi-material design not only improves the connection strength of the wall but also simplifies the installation process, reducing maintenance costs and cycles. Therefore, this new thermal insulation wall technology, through innovative structural design and material selection, effectively solves the challenges of connection stability in traditional walls, providing buildings with more reliable and durable thermal insulation performance, thus significantly improving the overall building's energy efficiency and sustainability. Attached Figure Description

[0019] Figure 1 This is a structural diagram of a soundproof wall.

[0020] Figure 2 This is a sectional view of the soundproof wall.

[0021] Figure 3 This is a partial view of the soundproof wall.

[0022] Explanation of main component symbols

[0023] 1. Foundation; 2. First inner side; 3. Base layer; 4. Spring structure; 5. Reinforcing steel structure; 6. Second inner side; 8. Second wall panel; 10. First thickness; 11. Second thickness; 12. First outer wall; 9. Second outer wall; 14. Support column; 15. Spring; 16. Fixing block; 100. Soundproof wall. Detailed Implementation

[0024] The embodiments of this application will now be described with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments.

[0025] It should be noted that when a component is considered to be "connected" to another component, it can be directly connected to the other component or may also have an intervening component. When a component is considered to be "placed" on another component, it can be directly placed on the other component or may also have an intervening component. The terms "top," "bottom," "upper," "lower," "left," "right," "front," "back," and similar expressions used in this article are for illustrative purposes only.

[0026] An embodiment of this application provides an insulated wall, including a wall and a supporting structure. The wall includes a base layer and a first outer wall panel and a second outer wall panel that are parallel to each other. The base layer is disposed between the first outer wall panel and the second outer wall panel, and there are gaps between the base layer and the first wall panel and the second wall panel.

[0027] The supporting structure includes a steel reinforcement structure, a support column, and a spring structure. The steel reinforcement structure is disposed in the gap. The first outer wall panel has a first inner side facing the base layer, and the second outer wall panel has a second inner side facing the base layer. One end of the support column is disposed on the first inner side, and the other end is disposed on the second inner side. The spring is disposed on the support column and is fixedly connected to the base layer.

[0028] This application has at least the following beneficial effects:

[0029] The above-mentioned insulated wall system optimizes the connection strength of the wall through the following key design features: First, the wall structure includes a base layer and a first and second outer wall panel that are parallel to each other. The base layer is located between the outer wall panels and there is a gap between them. This design not only ensures the heat insulation effect of the wall, but also provides suitable installation space for the subsequent support structure.

[0030] Secondly, the supporting structure employs a combination of reinforced steel structure, support columns, and spring structure. The reinforced steel structure is precisely positioned in the gap between the base layer and the exterior wall panel, while the support columns connect the first and second exterior wall panels together via the spring structure. This design not only effectively absorbs minor deformations of the wall structure caused by temperature changes but also effectively resists external vibrations and seismic forces, thereby enhancing the overall stability and durability of the wall.

[0031] Third, the spring components in the spring structure are made of carbon steel, which has excellent elasticity and durability, and can maintain its performance over a long period of time. Each spring component is firmly connected to the base layer through fixing blocks, ensuring that each part of the wall structure can maintain a relatively stable position under external forces. Finally, the bolted connection between the support columns and the base layer provides additional structural strength, ensuring the stability and reliability of the entire wall system under various environmental conditions. This multi-layered, multi-material combination design not only improves the connection strength of the wall, but also simplifies the installation process and reduces maintenance costs and cycles. Therefore, the new thermal insulation wall technology solution effectively solves the challenges of connection stability in traditional walls through innovative structural design and material selection, providing buildings with more reliable and durable thermal insulation performance, thereby significantly improving the overall building's energy efficiency and sustainability.

[0032] The following is in conjunction with the appendix Figure 1-3 The following describes some embodiments of this application in detail. Unless otherwise specified, the embodiments and features described below can be combined with each other.

[0033] An embodiment of this application provides an insulated wall, including a wall and a supporting structure. The wall includes a base layer 3 and a first outer wall panel 12 and a second outer wall panel 9 that are parallel to each other. The base layer 3 is disposed between the first outer wall panel 12 and the second outer wall panel 9, and there are gaps between the base layer 3 and the first wall panel and the second wall panel 8.

[0034] The supporting structure includes a steel reinforcement structure 5, a support column 14, and a spring structure 4. The steel reinforcement structure 5 is disposed in the gap. The first outer wall 12 has a first inner side 2 facing the base layer 3, and the second outer wall 9 has a second inner side 6 facing the base layer 3. One end of the support column 14 is disposed on the first inner side 2, and the other end is disposed on the second inner side 6. The spring is disposed on the support column 14 and is fixedly connected to the base layer 3.

[0035] Specifically, the base layer 3, acting as a containment for the insulation material, effectively reduces heat loss and improves the overall insulation performance of the wall. The base layer 3 fills the gaps between the exterior wall panels, enhancing the overall structural stability of the wall and reducing the risk of deformation under changes in the external environment. The design of the base layer 3 allows for easy installation and replacement of the insulation material, thereby improving construction efficiency and maintenance convenience. The insulation performance and structural stability of the wall are key design considerations in construction. By setting up the base layer 3 and leaving gaps around it, heat transfer can be effectively isolated, and the wall can maintain a stable insulation effect under different seasons and climatic conditions, thus improving the building's energy efficiency and comfort. The steel reinforcement structure 5 provides the main support and connecting frame for the wall, through... The support column 14 and spring components effectively distribute the load and pressure on the wall, ensuring the overall stability of the wall. The spring components can flexibly cope with the minor deformation of the wall caused by temperature changes and external forces, avoiding tension and loosening at the connection points and extending the service life of the wall. The design of the spring structure 4 helps absorb external vibrations and seismic forces, reduces the vibration transmission of the wall structure, and improves the safety of the building in earthquakes and other natural disasters. The application of the spring structure 4 allows the wall to maintain stability while possessing a certain degree of flexibility, thus better adapting to changes and uncertainties in the external environment. This structural design not only improves the durability and safety of the wall but also reduces maintenance costs and cycles, meeting the requirements of modern buildings for safety and sustainability.

[0036] In one specific example, the spring structure 4 includes a plurality of spring members, which are arranged in parallel to each other and are all disposed on the steel reinforcement structure 5.

[0037] Specifically, the multiple spring components in spring structure 4 enable the wall to adapt more flexibly to changes in the external environment, such as temperature changes and structural deformation, thereby reducing stress concentration and the risk of damage to the wall structure. Multiple spring components distributed throughout the wall support structure can evenly distribute the load and pressure on the wall, while also acting as shock absorbers and vibration dampers under external vibrations, improving the stability and safety of the wall. The diversity and multi-faceted design of the spring components not only enhances the reliability of the wall structure but also extends its service life, reducing the frequency and cost of maintenance and replacement. Introducing multiple spring components into the wall structure effectively improves the limitations of traditional walls in terms of connection strength and structural stability. The design of each spring component takes into account the mechanical needs and environmental conditions of different parts of the wall, thus improving the overall performance and usability of the wall.

[0038] In one specific example, the spring component includes a spring 15 and a fixing block fixedly connected to the base layer 3. One end of the spring 15 is disposed on the steel reinforcement structure 5, and the other end is fixedly connected to the fixing block.

[0039] Specifically, the design of the spring component allows spring 15 to effectively connect the reinforcing steel structure 5 and the fixing block of the base layer 3, thereby ensuring a firm connection between various parts of the wall and reducing the risk of loosening and falling off. Spring 15 in the spring component has excellent elastic properties, capable of elastic deformation under external forces, effectively absorbing and dispersing stress and deformation caused by external forces in the wall structure, thus improving the wall's seismic and vibration resistance. The simple structural design of the spring component makes installation and maintenance more convenient, saving construction time and maintenance costs, and improving overall project efficiency. As an important component of the wall support structure, the spring component's design considers the requirements of connection stability and structural elasticity. By fixing spring 15 to the reinforcing steel structure 5 and connecting it to the fixing block of the base layer 3, not only is an effective connection between the spring component and other parts of the wall ensured, but it also provides the necessary flexibility and stability to the wall structure when facing changes in the external environment.

[0040] In one specific example, the back of the first inner side 2 is provided with a heat insulation layer.

[0041] Specifically, the insulation layer effectively reduces heat conduction on the back of the first inner side 2 of the wall, preventing indoor heat from being transferred to the external wall, thereby improving the overall insulation performance of the wall. The insulation layer can effectively control the surface temperature of the wall, reduce indoor temperature fluctuations, and improve the comfort of the indoor space. By reducing the thermal conductivity of the wall, the insulation layer helps to reduce the building's energy consumption and improve the building's energy efficiency, meeting the requirements of modern building energy conservation. The insulation layer design on the inner side of the wall is an important improvement on the traditional wall structure. The inner side of the traditional wall is usually directly exposed to the interior, which easily leads to heat transfer and energy loss. By setting an insulation layer on the back of the first inner side 2, heat transfer can be effectively isolated and reduced, improving the overall insulation performance of the wall and achieving the effect of energy conservation and emission reduction.

[0042] In one specific example, the reinforcing steel structure 5 is made of carbon steel.

[0043] Specifically, carbon steel possesses excellent mechanical properties, including high strength and good corrosion resistance, which can effectively enhance the overall structural strength and stability of the wall. Compared with traditional building structural materials such as iron or alloys, carbon steel has a lighter weight and a higher strength-to-weight ratio, which helps reduce the amount of building materials used and construction costs. Carbon steel is a recyclable material, and its use helps reduce resource consumption and environmental impact, meeting the requirements of modern architecture for sustainable development and green building. The selection of carbon steel as the material for the steel reinforcement structure in the wall support structure is based on its excellent mechanical properties and environmentally friendly characteristics. Carbon steel has high strength, which can meet the needs of the wall when bearing loads and external forces, while its corrosion resistance and lightweight characteristics help to improve the service life and overall performance of the wall.

[0044] In one specific example, the steel reinforcement structure 5 and the external wall structure are symmetrically arranged along the central axis of the width of the base layer 3.

[0045] Specifically, symmetrically arranging the steel reinforcement structure 5 and the exterior wall structure along the central axis of the base layer 3 helps to balance the mechanical stress of the wall structure, reduce structural deformation and stress concentration, and improve the overall stability and safety of the wall. The symmetrical arrangement can effectively increase the seismic resistance of the wall under earthquake or other external vibration conditions, reduce the risk of structural damage caused by asymmetrical stress, and simplify the construction process, reduce the complexity of the design and the possibility of errors in construction, and improve the efficiency and accuracy of project execution. The symmetrical arrangement of the steel reinforcement structure 5 and the exterior wall structure along the central axis of the base layer 3 is based on the optimization consideration of the stress and stability of the wall structure. When the wall is under stress, if the structure can maintain symmetry, it can effectively distribute the load and reduce local stress concentration, thereby extending the service life of the wall and improving its safety performance.

[0046] In a specific example, when viewed in the width direction, the distance between the first inner side 2 and the steel reinforcement structure 5 adjacent to the first inner side 2 is a first thickness 10, and the distance between the steel reinforcement structure 5 adjacent to the first inner side 2 and the base is a second thickness 11.

[0047] Specifically, the setting of the first thickness 10 and the second thickness 11 can effectively control the heat conduction path inside the wall, optimize the wall's thermal insulation performance, reduce the transfer of indoor and outdoor temperatures, and improve the comfort of the indoor environment. By precisely controlling the distance between the steel reinforcement structure 5 and the base, the overall structural stability of the wall can be effectively improved, structural deformation and stress concentration can be reduced, and the service life of the wall can be extended. The optimized thermal insulation design helps to reduce energy consumption and lower the energy cost of the building, which is in line with the development trend of energy conservation and environmental protection in modern buildings. The purpose of setting the first thickness 10 and the second thickness 11 is based on a comprehensive consideration of the wall's thermal insulation performance and structural stability. The first thickness 10 controls the distance between the steel reinforcement structure 5 and the inner surface, affecting the wall's thermal insulation effect; the second thickness 11 affects the distance between the steel reinforcement structure 5 and the base, further affecting the stability and durability of the wall structure.

[0048] In one specific example, the ratio of the first thickness 10 to the second thickness 11 is 1:3.

[0049] Specifically, the 1:3 ratio of the first thickness 10 to the second thickness 11 effectively controls the heat conduction path inside the wall, further optimizes the wall's insulation performance, reduces heat transfer, and improves indoor comfort. The 1:3 ratio balances the distance between the steel reinforcement structure 5 and the base, improving the overall structural stability and deformation resistance of the wall, extending its service life. The optimized insulation design helps reduce building energy consumption and lower energy costs, meeting the requirements and trends of modern building energy conservation and environmental protection. The 1:3 ratio of the first thickness 10 to the second thickness 11 is based on the optimization of the wall's insulation performance and structural stability. A suitable ratio ensures effective distance control between the steel reinforcement structure 5 and the internal base, thereby maximizing the wall's insulation effect and overall structural stability.

[0050] In one specific example, the support column 14 is bolted to the base layer 3.

[0051] Specifically, using bolts to connect the support column 14 and the base layer 3 ensures the stability and reliability of the connection, effectively preventing loosening or detachment, and improving the overall stability and safety of the wall structure. The bolt connection design allows for easy disassembly and adjustment of the connection between the support column 14 and the base layer 3, adapting to different building structures or adjustment needs during construction. The bolt connection method simplifies the installation and maintenance process, reduces construction time and labor costs, and improves construction efficiency. Choosing bolts as the connection method between the support column 14 and the base layer 3 is based on the consideration of improving the stability of the wall structure connection and the ease of operation. The bolt connection can effectively fix the support column 14 and the base layer 3, ensuring structural safety under external forces, and can flexibly respond to adjustment needs during construction, thereby optimizing the design and construction process of the wall structure.

[0052] In one specific example, the spring element in the spring structure 4 is made of carbon steel.

[0053] Specifically, using carbon steel as the material for spring components provides excellent strength and durability, enabling it to withstand the pressure and deformation of the wall structure over a long period, ensuring the stability and longevity of the wall. Carbon steel has excellent elastic recovery capabilities, allowing it to quickly return to its original shape after being subjected to force, effectively reducing wall structure deformation and improving the wall's service life and stability. Carbon steel also has good corrosion resistance, maintaining stability in humid or harsh environments for extended periods, reducing maintenance and replacement costs. The selection of carbon steel as the material for spring components is based on its superior mechanical properties and durability. Carbon steel spring components can maintain stable elastic characteristics during long-term use, effectively supporting and maintaining the stability and safety of the wall structure.

[0054] The above description is merely an embodiment of this application. It should be noted that those skilled in the art can make improvements without departing from the inventive concept of this application, but these improvements all fall within the protection scope of this application.

Claims

1. A thermal insulation wall, comprising a wall and a supporting structure, characterized in that, The wall includes a base layer and a first outer wall panel and a second outer wall panel that are parallel to each other. The base layer is disposed between the first outer wall panel and the second outer wall panel, and there are gaps between the base layer and the first wall panel and the second wall panel. The supporting structure includes a steel reinforcement structure, a support column, and a spring structure. The steel reinforcement structure is disposed in the gap. The first outer wall panel has a first inner side facing the base layer, and the second outer wall panel has a second inner side facing the base layer. One end of the support column is disposed on the first inner side, and the other end is disposed on the second inner side. The spring is disposed on the support column and is fixedly connected to the base layer.

2. The thermal insulation wall according to claim 1, characterized in that, The spring structure includes multiple spring components, which are arranged parallel to each other and are all mounted on the steel reinforcement structure.

3. The thermal insulation wall according to claim 2, characterized in that, The spring component includes a spring and a fixing block that is fixedly connected to the base layer. One end of the spring is disposed on the steel reinforcement structure, and the other end is fixedly connected to the fixing block.

4. The thermal insulation wall according to claim 1, wherein The back of the first inner side is provided with a heat insulation layer.

5. The thermal insulation wall according to claim 1, wherein The steel reinforcement structure is made of carbon steel.

6. The thermal insulation wall according to claim 1, wherein The steel reinforcement structure and the external wall structure are symmetrically arranged along the central axis of the base width.

7. The thermal insulation wall according to claim 6, characterized in that When viewed in the width direction, the distance between the first inner side and the steel reinforcement structure adjacent to the first inner side of the insulated wall is the first thickness, and the distance between the steel reinforcement structure adjacent to the first inner side and the substrate is the second thickness.

8. The thermal insulation wall according to claim 7, characterized in that The ratio of the first thickness to the second thickness is 1:

3.

9. The thermal wall of claim 1, wherein The support column is bolted to the base layer.

10. The thermal wall of claim 1, wherein The spring component in the spring structure is made of carbon steel.

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