Steel wire mesh frame building heat preservation integrated disassembly-free roof panel

Abstract

The utility model relates to the technical field of building insulation boards, in particular to a steel wire mesh frame building insulation integrated disassembly-free roof board. According to the technical scheme, the steel wire net frame building heat preservation integrated disassembly-free roof panel comprises a heat preservation panel assembly and further comprises a steel wire net frame, a steel wire net hollow connecting sleeve assembly and a polymer mixed mortar layer. A steel wire mesh hollow connecting sleeve assembly is arranged on one side of the heat preservation panel assembly. Steel wire net frames are arranged on the two sides of the heat preservation panel assembly. The heat preservation panel assembly and the steel wire net frames are fixed through the steel wire net frames on the two sides of the heat preservation panel assembly by means of the oblique inserting wires, then connection between the steel wire net frames and the heat preservation panel assembly is reinforced through the steel wire net hollow connecting sleeve assembly, and the distance between the steel wire net frames and the heat preservation panel assembly is controlled. And finally, the space where the steel wire mesh hollow connecting sleeve assembly is located is poured and filled at a time through the polymer mixed mortar layer, the construction efficiency of the heat preservation structure is greatly improved, and the protection performance of the heat preservation panel assembly is effectively improved.

Description

Technical Field

[0001] The utility model belongs to the technical field of building insulation boards, and particularly relates to a steel wire mesh building insulation integrated non-disassembly roof panel. Background Art

[0002] Roof insulation is an important component of building energy conservation. Its main function is to reduce heat loss in buildings and improve their energy efficiency. With the continuous rise in energy prices and the increasing awareness of environmental protection, the technology of roof insulation has developed rapidly. The selection of insulation materials, the thickness of the insulation layer, and the structural design are all key factors in roof insulation technology. The insulation panels currently on the market generally have the problem of fragile insulation structure. Once they are subjected to external impact or improper construction operations, they are easily damaged, thus affecting their insulation effect. Existing insulation panels usually rely on supporting structures made of wood to bear the weight. This not only increases the weight of the building, but may also lead to construction difficulties and damage to the insulation panels due to the instability and limited load-bearing capacity of the wood structure. Utility Model Content

[0003] In order to overcome the problem that existing building insulation panels are easily damaged and the construction is time-consuming and labor-intensive because their own insulation structure is fragile and requires carpentry as a supporting structure to bear the weight.

[0004] The technical solution of the utility model is: a steel wire mesh building insulation integrated non-disassembly roof panel, including an insulation panel assembly, and also including a steel wire mesh, a steel wire mesh hollow connecting sleeve assembly, and a polymer mixed mortar layer; a steel wire mesh hollow connecting sleeve assembly is arranged on one side of the insulation panel assembly; steel wire meshes are arranged on both sides of the insulation panel assembly, and the spacing between the steel wire meshes on both sides of the insulation panel assembly is five centimeters and two centimeters respectively, and the steel wire mesh hollow connecting sleeve assembly is arranged in the space between the insulation panel assembly and the steel wire mesh at a spacing of two centimeters; a polymer mixed mortar layer is arranged in the gap space between the insulation panel assembly and the steel wire mesh at a spacing of two centimeters, and the polymer mixed mortar layer is cast and formed as an integral part in the two-centimeter gap space between the insulation panel assembly and the steel wire mesh.

[0005] Preferably, the insulation panel assembly is fixed to the steel wire mesh on both sides of the insulation panel assembly by using oblique insert wires, and then the connection between the steel wire mesh and the insulation panel assembly is reinforced and the spacing is controlled by using the steel wire mesh hollow connecting sleeve assembly, and finally the space where the steel wire mesh hollow connecting sleeve assembly is located is poured and filled with a polymer mixed mortar layer in one step, which greatly improves the construction efficiency of the insulation structure and effectively improves the protective performance of the insulation panel assembly, solving the problem of existing building insulation panels that are easily damaged and time-consuming and labor-intensive to construct because their own insulation structures are fragile and require carpentry as supporting structures to bear the weight.

[0006] Preferably, the thermal insulation panel assembly includes a multi-layer panel, an insulation layer, a hard foam layer reinforced with oblique wires, and a waterproof layer; an insulation layer is arranged inside the multi-layer panel; hard foam layers reinforced with oblique wires are arranged on both sides of the thermal insulation layer; a waterproof layer is arranged on the outside of the hard foam layer reinforced with oblique wires, and the waterproof layer effectively improves the external waterproof performance of the overall structure of the thermal insulation panel assembly, greatly improving the thermal insulation and waterproof and windproof performance of the overall structure.

[0007] Preferably, the wire mesh hollow connecting sleeve assembly includes a hollow connecting sleeve, a pad, reinforcing ribs, a steel wire insertion connecting hole, a mortar pouring through hole, and a fixing steel wire; a pad is provided on one end of the hollow connecting sleeve close to the insulation panel assembly, and the pad is integrally formed with the hollow connecting sleeve.

[0008] Preferably, the hollow connecting sleeve is provided with steel wire insertion connection holes on all four sides, and the steel wire insertion connection holes are integrally formed with the hollow connecting sleeve, and the staggered steel wires of the steel wire mesh are fixed inside the connection holes.

[0009] Preferably, reinforcing ribs are provided on both sides of the connecting hole through which the steel wire is inserted, and the reinforcing ribs are integrally formed with the outer wall and the pad of the hollow connecting sleeve; a mortar pouring through hole is provided on one side of the connecting hole through which the steel wire is inserted, and the mortar pouring through hole is integrally formed with the hollow connecting sleeve, and the mortar pouring through hole facilitates the flow and filling of the polymer mixed mortar layer into the inside of the hollow connecting sleeve.

[0010] Preferably, a fixed steel wire is provided inside the pad, and the fixed steel wire is inserted into the oblique wire to reinforce the internal connection of the hard foam layer. The fixed steel wire is used to connect and fix the steel wire mesh hollow connection sleeve assembly and the insulation panel assembly. The insulation panel assembly and the steel wire mesh are fixed to the steel wire mesh by using the oblique wire through the steel wire mesh on both sides of the insulation panel assembly. Then, the connection between the steel wire mesh and the insulation panel assembly is reinforced by the steel wire mesh hollow connection sleeve assembly and the spacing is controlled. Finally, the space where the steel wire mesh hollow connection sleeve assembly is located is cast and filled with a polymer mixed mortar layer, which greatly improves the construction efficiency of the insulation structure and effectively improves the protective performance of the insulation panel assembly.

[0011] Preferably, the two steel wire mesh frames are connected by welding with oblique steel wires, and are inserted obliquely through the insulation panel assembly and the polymer mixed mortar layer; oblique steel wires are provided at the front and rear ends of the two steel wire mesh frames for fixed connection, and the two steel wire mesh frames effectively prevent the insulation panel assembly from being broken and damaged, and their structure is utilized to improve the structural stability and assembly convenience of the overall structure assembly and splicing.

[0012] Beneficial effects of the utility model:

[0013] 1. Existing building insulation panels are easily damaged and require carpentry as a supporting structure to bear the weight, which makes the building insulation panels easy to damage and the construction is time-consuming and labor-intensive. The insulation panel components are fixed to the steel wire mesh frames on both sides of the insulation panel assembly using oblique inserts. The connection between the steel wire mesh frame and the insulation panel assembly is then reinforced and the spacing is controlled using a steel wire mesh hollow connecting sleeve assembly. Finally, a polymer mixed mortar layer is poured and filled in the space where the steel wire mesh hollow connecting sleeve assembly is located. This greatly improves the construction efficiency of the insulation structure and effectively improves the protective performance of the insulation panel assembly. It solves the problem of existing building insulation panels being easily damaged and the construction being time-consuming and labor-intensive due to their fragile insulation structure and the need for carpentry as a supporting structure to bear the weight.

[0014] 2. Through the setting of the insulation panel assembly, the insulation layer inside the insulation panel assembly is the main insulation structure, and the oblique wire reinforced hard foam layer is fixed by fixing steel wire and wire mesh hollow connecting sleeve assembly and wire mesh frame, and the waterproof layer effectively improves the external waterproof performance of the overall structure of the insulation panel assembly, greatly improving the insulation and waterproof and windproof performance of the overall structure. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 Shown is a schematic diagram of the overall three-dimensional structure of a steel wire grid building thermal insulation integrated non-disassembly roof panel of the present utility model;

[0016] Figure 2 Shown is a three-dimensional structural diagram of a steel wire grid building thermal insulation integrated non-disassembly roof panel of the present invention;

[0017] Figure 3 Shown is a three-dimensional structural schematic diagram of a steel wire mesh building insulation integrated non-disassembly roof panel of the present invention.

[0018] The marks in the accompanying drawings are: 1. Insulation panel assembly; 2. Steel wire mesh; 3. Steel wire mesh hollow connecting sleeve assembly; 4. Polymer mixed mortar layer; 101. Multi-layer panel; 102. Insulation layer; 103. Oblique wire reinforcement of hard foam layer; 104. Waterproof layer; 301. Hollow connecting sleeve; 302. Pad; 303. Reinforcement rib; 304. Steel wire insertion connecting hole; 305. Mortar pouring through hole; 306. Fixing steel wire. DETAILED DESCRIPTION

[0019] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0020] See also Figure 1-3The utility model provides an embodiment: a steel wire mesh building insulation integrated non-disassembly roof panel, comprising an insulation panel assembly 1, a steel wire mesh 2, a steel wire mesh hollow connecting sleeve assembly 3, and a polymer mixed mortar layer 4; a steel wire mesh hollow connecting sleeve assembly 3 is provided on one side of the insulation panel assembly 1; steel wire mesh 2 is provided on both sides of the insulation panel assembly 1, and the spacing between the steel wire mesh 2 on both sides of the insulation panel assembly 1 is five centimeters and two centimeters respectively, and the steel wire mesh hollow connecting sleeve assembly 3 is arranged in the space between the insulation panel assembly 1 and the steel wire mesh 2 with a spacing of two centimeters; a polymer mixed mortar layer 4 is provided in the gap space between the insulation panel assembly 1 and the steel wire mesh 2 with a spacing of two centimeters, and the polymer mixed mortar layer 4 is cast and formed as a whole in the two-centimeter gap space between the insulation panel assembly 1 and the steel wire mesh 2.

[0021] See also Figure 1-3 In this embodiment, the thermal insulation panel assembly 1 includes a multi-layer panel 101, an insulation layer 102, a hard foam layer 103 reinforced with oblique wires, and a waterproof layer 104; the thermal insulation layer 102 is provided inside the multi-layer panel 101; both sides of the thermal insulation layer 102 are provided with hard foam layers 103 reinforced with oblique wires; the outer side of the hard foam layer 103 reinforced with oblique wires is provided with a waterproof layer 104, and the wire mesh hollow connection sleeve assembly 3 includes a hollow connection sleeve 301, a pad 302, a reinforcing rib 303, a steel wire insertion connection hole 304, a mortar pouring through hole 305, and a fixing steel wire 306; a pad 302 is provided on the hollow connection sleeve 301 near the end of the thermal insulation panel assembly 1, and the pad 302 and the hollow connection sleeve 301 are integrally formed, and the hollow connection sleeve 301 Steel wire insertion connection holes 304 are provided on all sides, and the steel wire insertion connection holes 304 are integrally formed with the hollow connection sleeve 301, and the staggered steel wires of the steel wire mesh frame 2 are fixed inside the insertion connection holes 304, and reinforcing ribs 303 are provided on both sides of the steel wire insertion connection holes 304, and the reinforcing ribs 303 are integrally formed with the outer wall of the hollow connection sleeve 301 and the pad 302; a mortar pouring through hole 305 is provided on one side of the steel wire insertion connection hole 304, and the mortar pouring through hole 305 is integrally formed with the hollow connection sleeve 301, the two steel wire mesh frames 2 are connected by welding with oblique steel wires, and are obliquely inserted through the insulation panel assembly 1 and the polymer mixed mortar layer 4; the front and rear ends of the two steel wire mesh frames 2 are fixedly connected with oblique steel wires.

[0022] During the work, the insulation panel assembly 1 and the steel wire mesh 2 are fixed by using oblique wires through the steel wire mesh 2 on both sides of the insulation panel assembly 1, and then the connection between the steel wire mesh 2 and the insulation panel assembly 1 is reinforced and the spacing is controlled by the steel wire mesh hollow connecting sleeve assembly 3. Finally, the space where the steel wire mesh hollow connecting sleeve assembly 3 is located is poured and filled with a polymer mixed mortar layer 4. This greatly improves the construction efficiency of the insulation structure and effectively improves the protective performance of the insulation panel assembly 1. It solves the problem that the existing building insulation panel is easy to damage and the construction is time-consuming and labor-intensive because its own insulation structure is fragile and requires carpentry as a supporting structure to bear the weight.

[0023] Next, the insulation layer 102 in the insulation panel assembly 1 is the main insulation structure, and the obliquely inserted wire reinforced hard foam layer 103 is fixed to the steel wire mesh hollow connecting sleeve assembly 3 and the steel wire mesh frame 2 using fixed steel wire 306, and the waterproof layer 104 effectively improves the external waterproof performance of the overall structure of the insulation panel assembly 1, greatly improving the insulation and waterproof and windproof performance of the overall structure.

[0024] Through the above steps, the insulation panel assembly 1 and the steel wire mesh 2 are fixed by using oblique wires through the steel wire mesh 2 on both sides of the insulation panel assembly 1, and then the connection between the steel wire mesh 2 and the insulation panel assembly 1 is reinforced and the spacing is controlled by the steel wire mesh hollow connecting sleeve assembly 3. Finally, the space where the steel wire mesh hollow connecting sleeve assembly 3 is located is poured and filled with a polymer mixed mortar layer 4. This greatly improves the construction efficiency of the insulation structure and effectively improves the protective performance of the insulation panel assembly 1, avoiding the problem that the existing building insulation panel is easily damaged and the construction is time-consuming and labor-intensive because its own insulation structure is fragile and requires carpentry as a supporting structure to bear the weight.

[0025] The embodiments of the present invention are described in detail above with reference to the accompanying drawings. However, the present invention is not limited to the above embodiments. Various changes can be made within the scope of knowledge possessed by those skilled in the art without departing from the purpose of the present invention.

Claims

1. A steel wire grid building thermal insulation integrated non-disassembly roof panel, comprising a thermal insulation panel assembly (1), characterized in that: The invention also comprises a steel wire mesh frame (2), a steel wire mesh hollow connection sleeve assembly (3), and a polymer mixed mortar layer (4); the steel wire mesh hollow connection sleeve assembly (3) is arranged on one side of the thermal insulation panel assembly (1); the steel wire mesh frames (2) are arranged on both sides of the thermal insulation panel assembly (1), and the spacing between the steel wire mesh frames (2) on both sides of the thermal insulation panel assembly (1) is five centimeters and two centimeters respectively, and the steel wire mesh hollow connection sleeve assembly (3) is arranged in the space between the thermal insulation panel assembly (1) and the steel wire mesh frame (2) at a spacing of two centimeters; the polymer mixed mortar layer (4) is arranged in the gap space between the thermal insulation panel assembly (1) and the steel wire mesh frame (2) at a spacing of two centimeters, and the polymer mixed mortar layer (4) is cast and formed as a whole in the gap space of two centimeters between the thermal insulation panel assembly (1) and the steel wire mesh frame (2).

2. The steel wire grid building thermal insulation integrated non-disassembly roof panel according to claim 1, characterized in that: The thermal insulation panel assembly (1) comprises a multi-layer panel (101), a thermal insulation layer (102), a hard foam layer (103) reinforced with obliquely inserted threads, and a waterproof layer (104); the thermal insulation layer (102) is provided inside the multi-layer panel (101); and both sides of the thermal insulation layer (102) are provided with hard foam layers (103) reinforced with obliquely inserted threads. A waterproof layer (104) is provided on the outer side of the obliquely inserted wire reinforced hard foam layer (103).

3. The steel wire grid building thermal insulation integrated non-disassembly roof panel according to claim 1, characterized in that: The wire mesh hollow connecting sleeve assembly (3) comprises a hollow connecting sleeve (301), a pad (302), a reinforcing rib (303), a steel wire insertion connecting hole (304), a mortar pouring through hole (305), and a fixing steel wire (306); a pad (302) is provided on one end of the hollow connecting sleeve (301) close to the thermal insulation panel assembly (1), and the pad (302) and the hollow connecting sleeve (301) are integrally formed.

4. The steel wire grid building thermal insulation integrated non-disassembly roof panel according to claim 3, characterized in that: Steel wire insertion connection holes (304) are provided around the hollow connection sleeve (301), and the steel wire insertion connection holes (304) and the hollow connection sleeve (301) are integrally formed, and the staggered steel wire insertion connection holes (304) of the steel wire mesh frame (2) are fixedly arranged inside.

5. The steel wire grid building thermal insulation integrated non-disassembly roof panel according to claim 4, characterized in that: Reinforcing ribs (303) are provided on both sides of the steel wire insertion connection hole (304), and the reinforcing ribs (303) are integrally formed with the outer wall of the hollow connection sleeve (301) and the pad (302); a mortar pouring through hole (305) is provided on one side of the steel wire insertion connection hole (304), and the mortar pouring through hole (305) is integrally formed with the hollow connection sleeve (301).

6. The steel wire grid building thermal insulation integrated non-disassembly roof panel according to claim 3, characterized in that: A fixing steel wire (306) is provided inside the pad (302), and the fixing steel wire (306) is inserted into the oblique wire to reinforce the internal connection of the hard foam layer (103).

7. The steel wire grid building thermal insulation integrated non-disassembly roof panel according to claim 1, characterized in that: The two steel wire mesh frames (2) are connected by welding with obliquely inserted steel wires, and are obliquely inserted through the thermal insulation panel assembly (1) and the polymer mixed mortar layer (4); oblique steel wires are provided at both the front and rear ends of the two steel wire mesh frames (2) for fixed connection.

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