A green building steel wire mesh composite thermal insulation wall

Abstract

The present invention discloses a green building steel wire mesh composite thermal insulation wall, which relates to the technical field of wall thermal insulation. It includes a thermal insulation board, web wires, a connecting mechanism, a steel wire mesh, extended reinforcing bars, and a fixing component. Through the setting of the connecting mechanism, the web wires can connect the steel wire mesh and the thermal insulation board to form a thermal insulation whole without using a traditional thermal insulation board, thereby reducing the influence of the web wires on the thermal insulation performance of the thermal insulation board, making the thermal insulation effect of the thermal insulation board better. And a fixing component is set to connect two adjacent extended reinforcing bars up and down, so that a triangular fixing structure can be formed between the two extended reinforcing bars and the fixing wires. Through this fixing structure, the gravity of the cement mortar plastering protection layer is borne, so that the tension received by the extended reinforcing bars is dispersed, thereby avoiding the problem of the protection layer cracking and sagging caused by the deformation of the extended reinforcing bars under force, and further making the thermal insulation performance of the thermal insulation wall better, and the quality and safety factor higher.

Description

Technical Field

[0001] The present invention relates to the technical field of wall thermal insulation, and specifically to a green building steel wire mesh composite thermal insulation wall Background Art

[0002] The green building steel wire mesh composite thermal insulation wall is a new type of building wall material integrating multiple functions such as thermal insulation, heat insulation, high strength, fire prevention, and water seepage prevention. It mainly consists of a steel wire mesh, a thermal insulation board, extended steel bars, and a cement mortar plastering protective layer. Among them, the steel wire mesh is fixedly connected to the thermal insulation board through the web wires obliquely inserted into the thermal insulation board, and the extended steel bars are mainly used to fix the thermal insulation board on the wall

[0003] Currently, the web wires of the penetrated steel wire mesh thermal insulation wall generally penetrate the thermal insulation board, which greatly increases the thermal conductivity of the wall, reduces the thermal insulation effect of the thermal insulation board, and the steel wire mesh composite thermal insulation wall relies on the extended steel bars in the wall to support the weight of the cement mortar plastering protective layer outside the thermal insulation board. This structural design is likely to cause the steel bars to deform, and then the plastering layer to sag, the cement mortar plastering layer to crack or even the plastering layer to fall off. This not only affects the aesthetics of the wall, but also may cause rainwater to seep into the thermal insulation board, damaging the thermal insulation board, and then reducing the service life of the wall and posing potential safety hazards

[0004] Therefore, it is necessary to provide a green building steel wire mesh composite thermal insulation wall to solve the problems raised in the above background art Summary of the Invention

[0005] To achieve the above object, the present invention provides the following technical solution: A green building steel wire mesh composite thermal insulation wall, comprising a thermal insulation board, web wires, a connecting mechanism, a steel wire mesh, extended steel bars, and a fixing and pulling component. Among them, a plurality of connecting mechanisms are obliquely embedded in the thermal insulation board, the web wires are obliquely inserted into the thermal insulation board and connected to the connecting mechanism, the steel wire mesh is fixedly connected to the web wires, the extended steel bars penetrate the thermal insulation board and fix the thermal insulation board on the wall. The connecting mechanism includes a connecting steel bar ring, a heat insulation layer, a cushion block, and a guide tile. Among them, the connecting steel bar ring is fixedly embedded in the thermal insulation board, the connecting steel bar ring is wrapped with a heat insulation layer, cushion blocks are respectively fixedly arranged at the two connecting ends of the connecting steel bar ring, and a guide tile is also fixedly arranged on the connecting steel bar ring

[0006] Preferably, the guide tile is C-shaped and extends outside the thermal insulation board, and an arc-shaped guide groove is opened on the guide tile, and the web wire slides along the arc-shaped guide groove and is looped on the connecting steel bar ring

[0007] Preferably, the fastening assembly includes a sleeve, a tightening ring, a driving nut, a screwing nut, and a connecting nut. Among them, the sleeve is sleeved on the extended steel bar, and a tightening ring is rotatably arranged on one side of the sleeve close to the insulation board. Thread groove one and thread groove two are formed on the sleeve. The driving nut and the screwing nut are connected to the sleeve through thread groove one, and the connecting nut is connected to the sleeve through thread groove two.

[0008] Preferably, a connecting ring one is fixedly arranged on one side of the tightening ring close to the driving nut, and a plurality of clamping bars are fixedly arranged circumferentially on the connecting ring one;

[0009] A connecting ring two is fixedly arranged on one side of the driving nut close to the tightening ring, and a plurality of clamping grooves are formed circumferentially in the connecting ring two. The connecting ring one is slidably connected to the connecting ring two, and the clamping bars are clamped into the clamping grooves.

[0010] Preferably, a support ring is fixedly arranged on one side of the connecting nut close to the screwing nut, and a rotating ring is rotatably arranged on the support ring.

[0011] Preferably, adjacent two fastening assemblies are fixedly connected through fastening wires. The fastening wires are fixedly connected to the tightening ring in the upper fastening assembly and wound around the tightening ring. The other end of the fastening wire is fixedly connected to the rotating ring in the lower fastening assembly.

[0012] Preferably, a plurality of flexible convex strips with an inclined surface are fixedly arranged circumferentially inside the sleeve, and the flexible convex strips can be clamped on the extended steel bar.

[0013] Compared with the prior art, the present invention provides a green building steel wire grid composite insulation wall, which has the following beneficial effects:

[0014] In the present invention, through the setting of the connecting mechanism, the web wires can connect the steel wire grid and the insulation board to form an integral insulation structure without using traditional insulation boards, thereby reducing the influence of the web wires on the insulation performance of the insulation board, making the insulation effect of the insulation board better. And a fastening assembly is set to connect the upper and lower adjacent extended steel bars together, so that a triangular fastening structure can be formed between the two extended steel bars and the fastening wires. Through this fastening structure, the gravity of the cement mortar plastering protective layer is borne, so that the tension received by the extended steel bars is dispersed, thereby avoiding the problem of the protective layer cracking and sagging caused by the deformation of the extended steel bars under stress, and further making the insulation performance of the insulation wall better, and the quality and safety factor higher. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0016] Figure 2Side view of the overall structure of the present invention;

[0017] Figure 3 Schematic structural view of the insulation board in the present invention;

[0018] Figure 4 Schematic structural view of the connecting mechanism in the present invention;

[0019] Figure 5 Schematic structural view of the tensioning and fixing component in the present invention;

[0020] Figure 6 Schematic structural view of the sleeve in the present invention;

[0021] In the figure: 1, insulation board; 2, abdominal wire; 3, connecting mechanism; 31, connecting rib ring; 32, heat insulation layer; 33, cushion block; 34, guide tile; 4, steel wire mesh; 5, extending steel bar; 6, tensioning and fixing component; 61, sleeve; 611, first thread groove; 612, second thread groove; 613, flexible convex strip; 62, tightening ring; 621, first connecting ring; 622, clamping strip; 63, driving nut; 631, second connecting ring; 632, clamping groove; 64, tightening nut; 65, connecting nut; 651, supporting ring; 652, rotating ring; 66, tensioning and fixing wire. Detailed implementation manners

[0022] Please refer to Figures 1 to 6 , in an embodiment of the present invention, a steel wire mesh composite thermal insulation wall for a green building includes an insulation board 1, abdominal wires 2, a connecting mechanism 3, a steel wire mesh 4, extending steel bars 5, and a tensioning and fixing component 6. Among them, a plurality of connecting mechanisms 3 are obliquely embedded in the insulation board 1. The abdominal wires 2 are obliquely inserted on the insulation board 1 and connected to the connecting mechanism 3. The steel wire mesh 4 is fixedly connected to the abdominal wires 2. The extending steel bars 5 penetrate the insulation board 1 and fix the insulation board 1 on the wall. The connecting mechanism 3 includes a connecting rib ring 31, a heat insulation layer 32, a cushion block 33, and a guide tile 34. Among them, the connecting rib ring 31 is fixedly embedded in the insulation board 1. The connecting rib ring 31 is wrapped with a heat insulation layer 32. Cushion blocks 33 are respectively fixedly arranged at two connecting ends of the connecting rib ring 31. A guide tile 34 is also fixedly arranged on the connecting rib ring 31;

[0023] Particularly, the connecting mechanism 3 is pre-embedded in the insulation board 1 during the preparation of the insulation board 1. The heat insulation layer 32 is made of a rigid heat insulation material similar to the material of the insulation board 1. The cushion block 33 is also a heat-insulating rigid material to prevent the abdominal wire 2 from damaging the connection between the heat insulation layer 32 and the connecting rib ring 31, so that the abdominal wire 2 will not penetrate the insulation board, effectively reducing the influence of the abdominal wire on the heat insulation performance of the insulation board 1, and thus improving the heat insulation ability of the insulation board 1;

[0024] The guide tile 34 is C-shaped and extends outside the heat preservation board 1, and an arc-shaped guide groove is formed in the guide tile 34, and the belly wire 2 slides along the arc-shaped guide groove and is looped on the connecting rib ring 31;

[0025] The fixing component 6 includes a sleeve 61, a tightening ring 62, a driving nut 63, a tightening nut 64 and a connecting nut 65. Among them, the sleeve 61 is sleeved on the extended steel bar 5, a tightening ring 62 is rotatably arranged on one side of the sleeve 61 close to the heat preservation board 1, a first thread groove 611 and a second thread groove 612 are formed in the sleeve 61, the driving nut 63 and the tightening nut 64 are connected to the sleeve 61 through the first thread groove 611, and the connecting nut 65 is connected to the sleeve 61 through the second thread groove 612;

[0026] A support ring 651 is fixedly arranged on one side of the connecting nut 65 close to the tightening nut 64, and a rotating ring 652 is rotatably arranged on the support ring 651;

[0027] Adjacent two fixing components 6 are fixedly connected through a fixing wire 66, and the fixing wire 66 is fixedly connected with the tightening ring 62 in the upper fixing component 6 and wound around the tightening ring 62, and the other end of the fixing wire 66 is fixedly connected with the rotating ring 652 in the lower fixing component 6.

[0028] During implementation, the web 2 is obliquely inserted into the insulation board 1 along the guide tile 34. At this time, the web 2 can slide along the guide tile 34 and bend under the action of the guide tile 34, and pass through the other end of the guide tile 34. During this process, the web 2 will be buckled on the connecting rib ring 31, and then the two webs 2 located on both sides of the connecting rib ring 31 are buckled on the connecting rib ring 31 at the same time, and are fixedly connected to the steel wire mesh 4 on both sides of the insulation board 1, thereby firmly connecting the steel wire mesh 4 and the insulation board 1 to form a whole. At this time, the web 2 will not penetrate the insulation board 1, and the connecting rib ring 31 is wrapped with an insulating layer 32, so that the two webs 2 are not in a connected state, so that their thermal conductivity is reduced, thereby improving the insulation capacity of the insulation board 1, and then the assembled whole is fixed to the wall through the protruding steel bar 5, and the upper and lower adjacent protruding steel bars 5 are connected by the tightening component 6, the sleeve 61 is sleeved on the protruding steel bar 5, and the connecting nut 65 is tightened in place On the lower sleeve 61, at this time, the tensioning wire 66 connects the two adjacent sleeves 61 above and below, and then the driving nut 63 is used to drive the tightening ring 62 to rotate, so that the tensioning wire 66 is wound around the tightening ring 62, and then the tensioning wire 66 is tightened. At this time, a triangular tensioning structure can be formed between the two protruding steel bars 5 and the tensioning wire 66, that is, when the lower protruding steel bar 5 is bent and deformed downward by force, the tensioning wire 66 will be pulled and transmitted to the upper protruding steel bar 5 through the tensioning wire 66. The side of the wall panel is close to the wall panel, so that the stress points on the protruding steel bar 5 are dispersed and the stress strength is enhanced. Subsequently, a cement mortar plaster protective layer is applied to the insulation board 1. At this time, the gravity of the cement mortar plaster protective layer is borne by the steel wire grid 4 and this tensioning structure. Under the action of this tensioning structure, the protruding steel bar 5 will not bend and deform, and the protective layer will be prevented from cracking and falling, thereby making the insulation performance and quality of the insulation wall better and safer.

[0029] In this embodiment, Figure 5 A connecting ring 621 is fixedly provided on one side of the tightening ring 62 close to the driving nut 63, and a plurality of clamping strips 622 are fixedly provided on the connecting ring 621 in a circumferential manner;

[0030] A second connecting ring 631 is fixedly provided on one side of the driving nut 63 close to the tightening ring 62 . A plurality of slots 632 are circumferentially provided in the second connecting ring 631 . The first connecting ring 621 is slidably connected to the second connecting ring 631 , and the clamping strip 622 is clamped into the slot 632 .

[0031] During implementation, the tightening ring 62 is rotationally connected to the sleeve 61 with limited rotation. When the drive nut 63 rotates, the tightening ring 62 can be rotated synchronously through the action of the clamping strip 622 and the clamping groove 632, so that the fastening wire 66 is wound around the tightening ring 62. The drive nut 63 rotates clockwise when rotating and is screwed onto the first thread groove 611. When the fastening wire 66 is tightened, the tightening nut 64 is simultaneously tightened and abuts against the drive nut 63. At this time, under the tensile force of the fastening wire 66, the drive nut 63 has a force to rotate counterclockwise. At this time, this counterclockwise rotation force will conflict with the tightening nut 64, so that the drive nut 63 can be restricted by the tightening nut 64 after tightening the fastening wire 66. Therefore, no matter how many turns the fastening wire 66 is wound around the tightening ring 62, the drive nut 63 can tighten the fastening wire 66.

[0032] In this embodiment, as Figure 6 , a plurality of flexible convex strips 613 with an inclined surface are fixedly arranged in a circumferential manner on the inner side of the sleeve 61, and the flexible convex strips 613 can be stuck on the extended steel bar 5.

[0033] In summary, through the setting of the connecting mechanism 3, the present invention enables the web wires 2 to connect the steel wire mesh 4 and the insulation board 1 to form an integral insulation structure without using the traditional insulation board 1, thereby reducing the influence of the web wires 2 on the insulation performance of the insulation board 1, making the insulation effect of the insulation board 1 better. And the fastening assembly 6 is provided to connect the two adjacent extended steel bars 5 up and down, so that a triangular fastening structure can be formed among the two extended steel bars 5 and the fastening wire 66. Through this fastening structure, the gravity of the cement mortar plastering protective layer is borne, so that the tensile force on the extended steel bar 5 is dispersed, thereby avoiding the problem of the protective layer cracking and sagging caused by the deformation of the extended steel bar 5 under force, and further making the insulation performance of the insulation wall better, and the quality and safety factor higher.

[0034] The above is only a preferred specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present invention, according to the technical solution and inventive concept of the present invention, makes equivalent substitutions or changes, and should be covered by the protection scope of the present invention.

Claims

1. A green building steel wire grid composite insulation wall, characterized in that: The invention comprises an insulation board (1), a web (2), a connection mechanism (3), a steel wire mesh (4), an extended steel bar (5) and a reinforcement assembly (6), wherein a plurality of connection mechanisms (3) are obliquely embedded in the insulation board (1), the web (2) is obliquely inserted into the insulation board (1) and connected to the connection mechanism (3), the steel wire mesh (4) is fixedly connected to the web (2), the extended steel bar (5) penetrates the insulation board (1) and fixes the insulation board (1) to the wall, and the connection mechanism (3) comprises a connection rib ring (31), an insulation layer (32), a cushion block (33) and a guide tile (34), wherein the connection rib ring (31) is fixedly embedded in the insulation board (1), the connection rib ring (31) is wrapped with an insulation layer (32), two connection ends of the connection rib ring (31) are respectively fixedly provided with cushion blocks (33), and the connection rib ring (31) is also fixedly provided with a guide tile (34); The tightening assembly (6) comprises a sleeve (61), a tightening ring (62), a driving nut (63), a tightening nut (64) and a connecting nut (65), wherein the sleeve (61) is sleeved on the protruding steel bar (5), a tightening ring (62) is rotatably provided on a side of the sleeve (61) close to the insulation board (1), a first thread groove (611) and a second thread groove (612) are provided on the sleeve (61), the driving nut (63) and the tightening nut (64) are connected to the sleeve (61) via the first thread groove (611), and the connecting nut (65) is connected to the sleeve (61) via the second thread groove (612); A support ring (651) is fixedly provided on one side of the connecting nut (65) close to the tightening nut (64), and a swivel ring (652) is rotatably provided on the support ring (651); Two adjacent tie assemblies (6) are fixedly connected via a tie wire (66), and the tie wire (66) is fixedly connected to a tightening ring (62) in the tie assemblies (6) located on the upper side and is wound around the tightening ring (62), and the other end of the tie wire (66) is fixedly connected to a swivel (652) in the tie assemblies (6) located on the lower side.

2. A green building steel wire grid composite insulation wall according to claim 1, characterized in that: The guide shoe (34) is C-shaped and extends to the outside of the insulation board (1), and an arc-shaped guide groove is provided on the guide shoe (34), and the belly wire (2) slides along the arc-shaped guide groove and is buckled on the connecting rib ring (31).

3. The green building steel wire grid composite insulation wall according to claim 1, characterized in that: A connecting ring 1 (621) is fixedly provided on one side of the tightening ring (62) close to the driving nut (63), and a plurality of clamping strips (622) are fixedly provided in a circumferential manner on the connecting ring 1 (621); A second connecting ring (631) is fixedly provided on one side of the driving nut (63) close to the tightening ring (62), and a plurality of slots (632) are circumferentially provided in the second connecting ring (631). The first connecting ring (621) is slidably connected to the second connecting ring (631), and the clip strip (622) is clipped into the slot (632).

4. The green building steel wire grid composite insulation wall according to claim 1, characterized in that: A plurality of flexible convex strips (613) having an inclined surface are fixedly arranged in a circumferential manner on the inner side of the sleeve (61), and the flexible convex strips (613) can be clamped on the protruding steel bar (5).

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