Anti-seismic thermal insulation wall

Abstract

The anti-seismic thermal insulation wall comprises an outer splicing structure and an inner supporting structure, the outer splicing structure comprises two outer wall plates and two connecting plates, first butt joint grooves are formed in the opposite sides of the two outer wall plates, and the two outer wall plates are matched with the inner supporting structure to form second butt joint grooves. First outer convex parts are arranged on the opposite sides of the two connecting plates, the first outer convex parts are matched with the second butt joint grooves in an inserted mode, and the connecting plates are detachably connected with the two outer wall plates correspondingly; the inner supporting structure comprises two inner wall plates and a plurality of supporting pipes, a plurality of limiting grooves are formed in the opposite sides of the two inner wall plates, and threading pipes are coaxially arranged in the supporting pipes. According to the anti-seismic thermal insulation wall, production procedures are simplified, rapid assembly can be achieved, when the thermal insulation wall has local defects, only corresponding damaged parts need to be replaced, the whole thermal insulation wall does not need to be replaced, and manufacturing cost is reduced.

Description

Technical Field

[0001] This utility model relates to the field of thermal insulation wall technology, and in particular to an earthquake-resistant thermal insulation wall. Background Technology

[0002] With the development of modern industrial technology, houses can be manufactured in batches, much like machine production. Prefabricated house components are simply transported to the construction site and assembled. Due to the rapid construction speed and low production cost of prefabricated buildings, they have been quickly adopted worldwide, offering advantages such as energy efficiency and fast construction. In existing technologies, insulation walls typically use insulating materials with low thermal conductivity fixed to the wall structure to achieve thermal insulation. However, the production process of existing insulation walls is complex, time-consuming, and labor-intensive. Furthermore, defects in parts of the wall can necessitate the replacement of the entire wall, increasing manufacturing costs. Utility Model Content

[0003] The purpose of this utility model is to design an earthquake-resistant thermal insulation wall to overcome the shortcomings of the above-mentioned technologies. It simplifies the production process, enables rapid assembly, and when local defects occur in the insulation wall, only the corresponding damaged parts need to be replaced, rather than replacing the entire insulation wall, thus reducing manufacturing costs.

[0004] To solve the above-mentioned technical problems, the technical solution of this utility model is: an earthquake-resistant and heat-insulating wall, including an outer splicing structure and an inner support structure. The outer splicing structure includes two oppositely arranged outer wall panels and two oppositely arranged connecting plates. The opposite sides of the two outer wall panels are provided with first mating grooves. The two oppositely arranged first mating grooves are respectively inserted into the two sides of the inner support structure so that the two outer wall panels are spaced apart. The two outer wall panels and the inner support structure cooperate to form a second mating groove. The opposite sides of the two connecting plates are provided with first protrusions. The first protrusions are inserted into the second mating grooves. The connecting plates are detachably connected to the two outer wall panels respectively.

[0005] The internal support structure includes two opposing inner wall panels and a plurality of support tubes arranged in an array along the height direction of the inner wall panels. Each of the two inner wall panels has a plurality of limiting grooves arranged in an array along the height direction of the inner wall panels on its opposite sides. Each limiting groove corresponds to a support tube. The two opposing limiting grooves are respectively inserted into the two sides of the corresponding support tube to make the two inner wall panels abut against each other. A conduit is coaxially arranged inside the support tube, and at least a portion of the inner wall of the support tube abuts against the outer wall of the conduit.

[0006] Preferably, the inner support structure is provided with alignment strips at the position relative to the first outward protrusion, and the two alignment strips are respectively formed on the outer walls of the two inner wall panels. The first outward protrusion is provided with alignment grooves for the alignment strips to be inserted.

[0007] Preferably, an L-shaped groove is formed between the alignment strip and the inner wall panel to which it is connected, and the L-shaped groove abuts against another inner wall panel.

[0008] Preferably, the outer wall of the connecting plate mates with the outer wall of the outer wall panel.

[0009] Preferably, the outer wall of the first protrusion has two symmetrically arranged mating surfaces, which abut against the corresponding inner wall panel.

[0010] Preferably, the support tube is a regular hexagonal tube.

[0011] Preferably, the outer wall of the conduit is tangent to the inner wall of the support tube.

[0012] Preferably, the top and bottom surfaces of the exterior wall panel are provided with a plurality of pre-embedded installation pipes arranged at intervals along the length of the connecting plate, and fasteners are detachably connected to the connecting plate at positions relative to the pre-embedded installation pipes, the fasteners being threadedly connected to the pre-embedded installation pipes.

[0013] Compared with the prior art, the beneficial effects of this utility model are:

[0014] The thermal insulation wall of this utility model consists of an outer splicing structure and an inner support structure. The outer splicing structure includes two outer wall panels and two connecting plates. The inner support structure includes two inner wall panels and several support pipes. Each support pipe is inserted into a limiting groove so that the two inner wall panels abut against each other after splicing, limiting the position of each support pipe. The inner wall panels and support pipes in the inner support structure together constitute the internal support system of the thermal insulation wall. The two outer wall panels are aligned and assembled on both sides of the inner support structure by using a first mating groove to engage with the inner support structure. The two outer wall panels are then connected by using a first outward protrusion to engage with a second mating groove. The connecting plates are aligned and assembled at the top and bottom of the inner support structure, so that the outer splicing structure can be assembled to cover the inner support structure, thereby completing the assembly of the insulation wall. The conduit inside the support pipe provides space for cable installation. The support pipe and conduit can be bent, compressed or stretched to absorb some of the vibration and impact, ensuring the seismic performance of the insulation wall. This insulation wall simplifies the production process and can be assembled quickly. Moreover, when the insulation wall has local defects, only the damaged parts need to be replaced, instead of replacing the entire insulation wall, thus reducing manufacturing costs. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the structure of the insulation wall in the embodiment;

[0016] Figure 2 This is a cross-sectional view of the insulation wall in the embodiment.

[0017] In the diagram: 1. External splicing structure; 11. Exterior wall panel; 12. Connecting plate; 101. First mating groove; 102. First external protrusion; 103. Alignment groove; 104. Mating surface; 105. Embedded installation pipe; 106. Fastener; 2. Internal support structure; 21. Inner wall panel; 22. Support pipe; 201. Conduit; 202. Limiting groove; 203. Alignment strip; 204. L-shaped groove; 3. Second mating groove. Detailed Implementation

[0018] The present invention will be further described below with reference to the embodiments and accompanying drawings.

[0019] refer to Figure 1 , Figure 2 An earthquake-resistant and thermal insulation wall includes an external splicing structure 1 and an internal support structure 2. The external splicing structure 1 includes two oppositely arranged external wall panels 11 and two oppositely arranged connecting plates 12. The external wall panels 11 are cement boards with a cement mortar layer on their outer surface. The connecting plates 12 are made of polystyrene or polyurethane material. The two external wall panels 11 are aligned left and right, and the two connecting plates 12 are aligned top and bottom.

[0020] The internal support structure 2 includes two opposing inner wall panels 21 and eight support pipes 22 arranged in an array along the height direction of the inner wall panels 21. The inner wall panels 21 are made of polystyrene or polyurethane. Eight limiting grooves 202 arranged in an array along the height direction of the inner wall panels 21 are provided on the opposite sides of the two inner wall panels 21. Each limiting groove 202 corresponds to each support pipe 22. The two opposing limiting grooves 202 are respectively inserted into the two sides of the corresponding support pipe 22 so that the two inner wall panels 21 abut against each other. After the two inner wall panels 21 are spliced ​​together, they abut against each other to limit the support pipes 22, so that the inner wall panels 21 and the support pipes 22 in the internal support structure 2 together constitute the internal support system of the insulation wall.

[0021] The inner support structure 2 is provided with alignment strips 203 at a position relative to the first outward protrusion 102. Two alignment strips 203 are respectively formed on the outer walls of the two inner wall panels 21. The first outward protrusion 102 has alignment grooves 103 for the alignment strips 203 to be inserted into. An L-shaped groove 204 is formed between the alignment strip 203 and the inner wall panel 21 it is connected to, and the L-shaped groove 204 abuts against the other inner wall panel 21.

[0022] A conduit 201 is coaxially disposed inside the support tube 22, and at least a portion of the inner wall of the support tube 22 abuts against the outer wall of the conduit 201. Preferably, the support tube 22 is a regular hexagonal tube, and the outer wall of the conduit 201 is tangential to the inner wall of the support tube 22, so as to limit the conduit 201 within the support tube 22.

[0023] Each of the two exterior wall panels 11 has a first mating groove 101 on its opposite side. The two oppositely arranged first mating grooves 101 are respectively inserted into the two sides of the inner support structure 2 so that the two exterior wall panels 11 are spaced apart. The two exterior wall panels 11 and the inner support structure 2 cooperate to form a second mating groove 3. Each of the two connecting plates 12 has a first protrusion 102 on its opposite side. The first protrusion 102 is inserted into the second mating groove 3. The outer wall of the first protrusion 102 has two symmetrically arranged mating surfaces 104. The mating surfaces 104 abut against their corresponding inner wall panels 21.

[0024] The connecting plate 12 is detachably connected to the two outer wall panels 11 respectively. The outer wall of the connecting plate 12 matches the outer wall of the outer wall panel 11 to make the overall flatness of the outer splicing structure 1 better, which facilitates the splicing and placement of multiple insulation walls.

[0025] The top and bottom surfaces of the exterior wall panel 11 are provided with a number of pre-embedded installation pipes 105 arranged at intervals along the length of the connecting plate 12. Fasteners 106 are detachably connected to the connecting plate 12 at positions relative to the pre-embedded installation pipes 105. The fasteners 106 are bolt structures and are threadedly connected to the pre-embedded installation pipes 105.

[0026] During assembly, the insulation wall utilizes the first mating groove 101 to interlock with the inner support structure 2, aligning and assembling two outer wall panels 11 onto the two sides of the inner support structure 2. The first outward protrusion 102 interlocks with the second mating groove 3, aligning and assembling two connecting plates 12 onto the top and bottom of the inner support structure 2. This allows the outer splicing structure 1 to enclose the inner support structure 2 through assembly, thus completing the assembly of the insulation wall. The conduit 201 inside the support pipe 22 provides space for cable installation. Furthermore, the support pipe 22 and conduit 201, working together, can be bent, compressed, or stretched to absorb some vibration and impact, ensuring the seismic performance of the insulation wall. This insulation wall simplifies the production process, enabling rapid assembly. Moreover, when local defects occur, only the damaged parts need to be replaced, rather than replacing the entire insulation wall, reducing manufacturing costs.

[0027] Of course, the above are just typical examples of this utility model. In addition, this utility model may have many other specific implementation methods. All technical solutions formed by equivalent substitution or equivalent transformation fall within the scope of protection claimed by this utility model.

Claims

1. A seismic-resistant and thermally insulated wall, characterized in that, The system includes an outer splicing structure (1) and an inner support structure (2). The outer splicing structure (1) includes two oppositely arranged outer wall panels (11) and two oppositely arranged connecting plates (12). The opposite sides of the two outer wall panels (11) are provided with first docking grooves (101). The two oppositely arranged first docking grooves (101) are respectively inserted into the two sides of the inner support structure (2) so that the two outer wall panels (11) are spaced apart. The two outer wall panels (11) and the inner support structure (2) cooperate to form a second docking groove (3). The opposite sides of the two connecting plates (12) are provided with first protrusions (102). The first protrusions (102) are inserted into the second docking grooves (3). The connecting plates (12) are detachably connected to the two outer wall panels (11). The internal support structure (2) includes two opposing inner wall panels (21) and a plurality of support tubes (22) arranged in an array along the height direction of the inner wall panels (21). Each of the two inner wall panels (21) has a plurality of limiting grooves (202) arranged in an array along the height direction of the inner wall panels (21) on its opposite sides. Each limiting groove (202) corresponds to each of the support tubes (22). The two opposing limiting grooves (202) are respectively inserted into the two sides of the corresponding support tubes (22) so that the two inner wall panels (21) abut against each other. A wire conduit (201) is coaxially arranged inside the support tube (22). At least a part of the inner wall of the support tube (22) abuts against the outer wall of the wire conduit (201).

2. The earthquake-resistant and thermally insulated wall according to claim 1, characterized in that, The inner support structure (2) is provided with alignment strips (203) at the position relative to the first external protrusion (102). The two alignment strips (203) are respectively formed on the outer walls of the two inner wall panels (21). The first external protrusion (102) is provided with alignment grooves (103) for the alignment strips (203) to be inserted.

3. The earthquake-resistant and thermally insulated wall according to claim 2, characterized in that, An L-shaped groove (204) is formed between the alignment strip (203) and the inner wall panel (21) it is connected to, and the L-shaped groove (204) abuts against another inner wall panel (21).

4. The earthquake-resistant and thermally insulated wall according to claim 1, characterized in that, The outer wall of the connecting plate (12) is fitted with the outer wall of the outer wall panel (11).

5. The earthquake-resistant and thermally insulated wall according to claim 1, characterized in that, The outer wall of the first protrusion (102) has two symmetrically arranged mating surfaces (104), which abut against the corresponding inner wall panel (21).

6. The earthquake-resistant and thermally insulated wall according to claim 1, characterized in that, The support tube (22) is a regular hexagonal tube.

7. The earthquake-resistant and thermally insulated wall according to claim 1, characterized in that, The outer wall of the conduit (201) is tangential to the inner wall of the support tube (22).

8. The earthquake-resistant and thermally insulated wall according to claim 1, characterized in that, The top and bottom surfaces of the exterior wall panel (11) are provided with a plurality of pre-embedded installation pipes (105) arranged at intervals along the length direction of the connecting plate (12). Fasteners (106) are detachably connected to the connecting plate (12) at positions relative to the pre-embedded installation pipes (105), and the fasteners (106) are threadedly connected to the pre-embedded installation pipes (105).

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