Floor slab reinforcing mesh piece capable of being constructed in fabricated mode

Abstract

The utility model relates to the technical field of fabricated construction, and discloses a floor reinforcing mesh capable of being constructed in a fabricated mode, the floor reinforcing mesh comprises a horizontally-arranged mesh body, and the mesh body comprises a plurality of first reinforcing steel bar trusses and first reinforcing steel bars connected to the tops of the first reinforcing steel bar trusses; the second steel bars are connected to the bottoms of the first steel bar trusses; the first reinforcing bar and the second reinforcing bar extend towards the two opposite sides of the first reinforcing bar truss respectively, and the extending ends of the first reinforcing bar and the second reinforcing bar are connected with a second reinforcing bar truss. A break angle formed by the second steel bar trusses is called as a break angle part, and every two adjacent mesh bodies are assembled through the break angle parts of the two adjacent mesh bodies. According to the floor slab reinforcing mesh splicing device, the problem that two adjacent floor slab reinforcing meshes are spliced manually, so that splicing dislocation is likely to occur is solved.

Description

TECHNICAL FIELD

[0001] The application relates to the technical field of assembly type construction and relates to an assembly type construction floor steel mesh. BACKGROUND

[0002] The steel mesh is welded from high-quality low-carbon iron wire, steel wire and stainless steel wire and is a new type of building wall material, which can replace brick walls to make various load-bearing walls, non-load-bearing walls and balconies, etc. The building mesh series includes electrically welded meshes, steel meshes, floor heating meshes and steel wire meshes.

[0003] According to the related art, currently, the splicing between two adjacent floor steel meshes needs to be performed manually, which is time-consuming and laborious and is prone to splicing misalignment. CONTENT OF THE UTILITY MODEL

[0004] In order to solve the problem that the splicing between two adjacent floor steel meshes needs to be performed manually and is prone to splicing misalignment, the application provides an assembly type construction floor steel mesh.

[0005] The application provides an assembly type construction floor steel mesh, which adopts the following technical scheme:

[0006] The assembly type construction floor steel mesh comprises a mesh body arranged horizontally, the mesh body comprises a plurality of first steel bar trusses, a first steel bar arranged on the top of the plurality of first steel bar trusses, and a second steel bar arranged on the bottom of the plurality of first steel bar trusses; the first steel bar and the second steel bar extend towards opposite sides of the first steel bar truss, respectively; the end portions of the first steel bar and the second steel bar are connected with a second steel bar truss; the corner formed by the second steel bar truss is referred to as a corner portion; and two adjacent mesh bodies are assembled with each other through the corner portions.

[0007] Through the above technical scheme, two adjacent mesh bodies are assembled with each other through the corner portions, so that the assembly type construction floor steel mesh is achieved.

[0008] Optionally, a calibration member is arranged around the mesh body, the calibration member comprises calibration plates arranged on the two sides of the mesh body away from each other, and the calibration plates slide towards the length direction of the first steel bar truss.

[0009] Through the above technical scheme, the two calibration plates are respectively attached to the two sides of the mesh body away from each other, so that the mesh body and the long box body are aligned left and right.

[0010] Optionally, the calibration plate is provided with a calibration corner at two corner positions of the mesh body, and two adjacent calibration plates are assembled with each other through the calibration corners.

[0011] By using the above technical scheme, two adjacent calibration plates are assembled with each other through the calibration corners, and two adjacent mesh bodies are assembled with each other through the corner positions.

[0012] Optionally, a driving member is arranged below the mesh body, the driving member comprises a plurality of long box bodies arranged below the mesh body, a gear rotatably arranged in the long box body, and a calibration rack sliding in the long box body along the length direction of the long box body; the calibration rack is arranged on both sides of the gear away from each other, and two calibration racks are arranged on both sides of the gear, respectively; the two calibration racks are engaged with the gear, and the two calibration racks of the same long box body are correspondingly arranged with two calibration plates, and the calibration rack is fixedly connected with the corresponding calibration plate.

[0013] By using the above technical scheme, the rotating gear drives the two calibration racks to slide towards each other, and the sliding calibration rack drives the two calibration plates through the long straight rod.

[0014] Optionally, a positioning member is arranged below the mesh body, the positioning member comprises a plurality of round rods connected between two long box bodies, and a positioning groove arranged on the top of the round rod; two of the plurality of second steel bars are correspondingly arranged with two round rods, respectively, and the second steel bar is clamped on the circumferential side of the corresponding round rod through the positioning groove.

[0015] By using the above technical scheme, the crane hoists the mesh body to the top of the round rod, and the mesh body is arranged between the two calibration plates, and two second steel bars of the mesh body are correspondingly arranged with two round rods, respectively, and the second steel bar is clamped on the circumferential side of the corresponding round rod through the positioning groove, thereby realizing the effect that the mesh body is aligned with the long box body.

[0016] Optionally, a synchronous member is arranged below the mesh body, the synchronous member comprises a sleeve member arranged between two long box bodies, and two telescopic racks respectively arranged in the two ends of the sleeve member; the telescopic rack passes through the long box body along the length direction of the round rod, and two telescopic racks are correspondingly arranged with two gears, respectively; the telescopic rack is engaged with the corresponding gear.

[0017] By using the above technical scheme, the air bag drives the two telescopic racks to slide away from each other, and the moving telescopic rack drives the gear to rotate, thereby realizing the effect that the plurality of gears are synchronously rotated.

[0018] Optionally, the sleeve member is internally provided with a power member, the power member comprising an air bag connected between the two telescopic racks and a gas pump fixedly installed on the circumferential side of one of the round rods; the gas pump is connected with the air bag.

[0019] By adopting the above technical scheme, the gas pump fills air into the air bag through the air pipe, the air-filled air bag expands along the length direction of the sleeve member, and the air bag pushes the two telescopic racks to slide away from each other.

[0020] Optionally, the lower portion of the mesh body is provided with a lifting member, the lifting member comprising a circular table arranged below the mesh body, a plurality of assembly grooves arranged on the top of the circular table, and a plurality of air cylinders arranged on the groove bottoms of the assembly grooves; the plurality of air cylinders are respectively corresponding to the plurality of round rods, and the piston rods of the air cylinders are connected with the corresponding round rods.

[0021] By adopting the above technical scheme, the air cylinder pushes the mesh body to ascend and descend along the vertical direction, so as to realize the assembly of the two adjacent calibration plates through the calibration angles of each other.

[0022] In summary, the present application has at least one of the following beneficial technical effects:

[0023] 1. The two calibration plates are respectively attached to the two sides of the mesh body away from each other, so as to realize the alignment effect of the mesh body and the long box body left and right;

[0024] 2. The crane hoists the mesh body to the top of the round rod, at this time, the mesh body is arranged between the two calibration plates, two second steel bars of the mesh body are respectively corresponding to the two round rods, and the second steel bars are clamped on the circumferential side of the corresponding round rod through the positioning grooves, so as to realize the alignment effect of the mesh body and the long box body front and back. BRIEF DESCRIPTION OF DRAWINGS

[0025] Fig. 1 is a structural schematic view of the mesh body in the embodiment of the present application.

[0026] Fig. 2 is a structural schematic view of the mesh body in the embodiment of the present application.

[0027] Fig. 3 is an exploded schematic view of the internal structure of the long box body and the circular table in the embodiment of the present application.

[0028] Reference numerals: 11. Frustum; 12. Mesh body; 13. First steel truss; 14. First steel bar; 15. Second steel bar; 16. Second steel truss; 17. Corner section; 18. Long box body; 19. Calibration plate; 20. Calibration corner; 21. Gear; 22. Calibration rack; 23. Linear slide rail; 24. Long straight rod; 25. Round rod; 26. Sleeve; 27. Telescopic rack; 28. Caster wheel; 29. ​​Airbag; 30. Air pump; 31. Assembly slot; 32. Cylinder; 33. Positioning slot. Detailed Implementation

[0029] The following is in conjunction with the appendix Figs. 1-3 This application will now be described in further detail.

[0030] Reference Figs. 1-3 As shown, a prefabricated floor slab steel mesh includes a horizontally arranged truncated cone 11 and a mesh body 12 positioned above the truncated cone 11. The mesh body 12 includes horizontally arranged first steel trusses 13, which are arranged in multiple units along their width. The tops of the multiple first steel trusses 13 are connected to first steel bars 14, and the bottoms of the multiple first steel trusses 13 are connected to second steel bars 15. Both the first steel bars 14 and the second steel bars 15 are arranged in multiple units along the length of the first steel trusses 13. The first steel bars 14 and the second steel bars 15 extend towards opposite sides of the first steel trusses 13, and the extended ends of the first steel bars 14 and the second steel bars 15 are fixedly connected to second steel trusses 16.

[0031] Reference Figs. 1-3 As shown, the second steel truss 16 connected to the first steel bar 14 and the second steel bar 15 are inverted. The second steel truss 16 connected to the first steel bar 14 is located at the bottom of the first steel bar 14, and several first steel bars 14 are connected to the second steel truss 16; the second steel truss 16 connected to the second steel bar 15 is located at the top of the second steel bar 15, and several second steel bars 15 are connected to the second steel truss 16. The second steel truss 16 is arranged along the length of the first steel truss 13, and the angle formed by two second steel trusses 16 is called the angle portion 17. Two adjacent mesh bodies 12 are assembled together through their respective angle portions 17.

[0032] Reference Figs. 1-3As shown, the mesh body 12 and the circular table 11 are provided with a long box body 18, the long box body 18 is arranged along the length direction of the first steel bar truss 13, the long box body 18 is provided with two along the width direction of the first steel bar truss 13, the long box body 18 is provided with a calibration plate 19 at both ends, the calibration plate 19 is arranged in the length direction of the first steel bar truss 13, and the two calibration plates 19 are vertically arranged and parallel to each other. The calibration plate 19 is provided with a calibration corner 20 corresponding to the two corner parts 17 of the mesh body 12, and the adjacent two calibration plates 19 are assembled with each other through the calibration corners 20 of each other. The gear 21 is rotatably installed at the center position of the inner top surface of the long box body 18, and the calibration rack 22 is arranged in the length direction of the long box body 18.

[0033] Referring to Figs. 1-3 As shown, the calibration rack 22 is provided with one on each side away from the gear 21, the two calibration racks 22 are arranged in mesh with the gear 21, the calibration rack 22 is arranged in the inner top surface of the long box body 18 through the linear slide rail 23, and the two calibration racks 22 of the same long box body 18 are respectively corresponding to the two calibration plates 19. The calibration rack 22 and the corresponding calibration plate 19 are fixedly connected through the long straight rod 24, and the two long straight rods 24 respectively pass through the two ends of the long box body 18. The two long box bodies 18 are fixedly connected with a circular rod 25, the circular rod 25 is arranged along the length direction of the first steel bar 14, the circular rod 25 is provided with two along the length direction of the long box body 18, and the two long box bodies 18 are provided with a sleeve piece 26.

[0034] Referring to Figs. 1-3 As shown, the top of the two circular rods 25 is provided with a positioning groove 33, two of the plurality of second steel bars 15 are respectively corresponding to the two circular rods 25, and the second steel bar 15 is clamped on the side of the corresponding circular rod 25 through the positioning groove 33. The sleeve piece 26 is arranged along the length direction of the circular rod 25, the two ends of the sleeve piece 26 are provided with a telescopic rack 27 along the length direction of the sleeve piece 26, and the two telescopic racks 27 are respectively corresponding to the two gears 21. The telescopic rack 27 is arranged in mesh with the corresponding gear 21, and the telescopic rack 27 passes through the long box body 18 along the length direction of the circular rod 25. The two telescopic racks 27 are fixedly connected at the end close to each other, and the air bag 29 is arranged on the inner side of the sleeve piece 26 along the length direction of the sleeve piece 26.

[0035] Referring to Figs. 1-3As shown, one of the two round rods 25 is fixedly installed with an air pump 30 on the side, and the air pump 30 is connected with the air bag 29 through an air pipe. The bottom of the circular table 11 is uniformly distributed with four universal wheels 28, and the top of the circular table 11 is vertically provided with two assembly grooves 31, and the groove bottoms of the two assembly grooves 31 are fixedly installed with air cylinders 32, and the two air cylinders 32 correspond to the two round rods 25 respectively, and the cylinder body of the air cylinder 32 is arranged in the assembly groove 31, and the piston rod of the air cylinder 32 penetrates through the top of the circular table 11 and is fixedly connected with the corresponding round rod 25.

[0036] The implementation principle of the floor steel mesh of the disclosed assembly type construction is as follows: first, the crane hoists the mesh body 12 to the top of the round rod 25, at this time the mesh body 12 is arranged between the two calibration plates 19, then two of the second steel bars 15 of the mesh body 12 correspond to the two round rods 25 respectively, and the second steel bars 15 are clamped on the side of the corresponding round rod 25 through the positioning groove, thereby achieving the effect that the mesh body 12 is aligned front and back with the long box body 18. The air pump 30 fills air into the air bag 29 through the air pipe, the air-filled air bag 29 expands along the length direction of the sleeve piece 26, and the air bag 29 drives the two telescopic racks 27 to slide away from each other, and the moving telescopic racks 27 drive the gear 21 to rotate.

[0037] The rotating gear 21 drives the two calibration racks 22 to slide towards each other, the sliding calibration racks 22 pull the two calibration plates 19 through the long straight rod 24, and the two calibration plates 19 are respectively attached to the two sides of the mesh body 12 away from each other, thereby achieving the effect that the mesh body 12 is aligned left and right with the long box body 18. The universal wheels 28 at the bottom of the circular table 11 drive the mesh body 12 to move, the air cylinder 32 drives the mesh body 12 to ascend and descend along the vertical direction, and the two adjacent calibration plates 19 are assembled with each other through the calibration corners 20 of each other, thereby achieving the effect that the two adjacent mesh bodies 12 are assembled with each other through the corner parts 17 of each other.

[0038] The above are preferred embodiments of the present application, not limiting the protection scope of the present application, and equivalent changes made according to the structure, shape and principle of the present application should be covered in the protection scope of the present application.

Claims

1. A prefabricated floor slab steel mesh, characterized in that, The mesh body (12) is horizontally arranged. The mesh body (12) includes a plurality of first steel trusses (13), first steel bars (14) connected to the top of the plurality of first steel trusses (13), and second steel bars (15) connected to the bottom of the plurality of first steel trusses (13). The first steel bars (14) and the second steel bars (15) extend toward opposite sides of the first steel trusses (13), and the ends of the first steel bars (14) and the second steel bars (15) are connected to the second steel trusses (16). The bend formed by the second steel trusses (16) is called the bend portion (17). Two adjacent mesh bodies (12) are assembled to each other through their bend portions (17).

2. The prefabricated floor slab steel mesh according to claim 1, characterized in that: The mesh body (12) is provided with a calibration component on its periphery. The calibration component includes calibration plates (19) located on two opposing sides of the mesh body (12). The calibration plates (19) slide in the direction of the length of the first steel truss (13).

3. The prefabricated floor slab steel mesh according to claim 2, characterized in that: The calibration plate (19) has calibration angles (20) corresponding to the two corners (17) of the mesh body (12), and two adjacent calibration plates (19) are assembled together through each other's calibration angles (20).

4. The prefabricated floor slab steel mesh according to claim 2, characterized in that: A driving component is provided below the mesh body (12). The driving component includes several elongated boxes (18) located below the mesh body (12), a gear (21) rotatably installed inside the elongated boxes (18), and a calibration rack (22) sliding along the length of the elongated boxes (18) inside the elongated boxes (18). The calibration rack (22) is located on both sides of the gear (21) that are opposite to each other. Both calibration racks (22) mesh with the gear (21). The two calibration racks (22) of the same elongated box (18) correspond to two calibration plates (19) respectively. The calibration racks (22) are fixedly connected to the corresponding calibration plates (19).

5. The prefabricated floor slab steel mesh according to claim 4, characterized in that: The mesh body (12) is provided with a positioning component below it. The positioning component includes several round rods (25) connected between the two long box bodies (18) and a positioning groove (33) on the top of the periphery of the round rods (25). Two of the several second steel bars (15) correspond to the two round rods (25) respectively. The second steel bars (15) are engaged with the periphery of the corresponding round rods (25) through the positioning groove (33).

6. The prefabricated floor slab steel mesh according to claim 4, characterized in that: A synchronizing element is provided below the mesh body (12). The synchronizing element includes a sleeve (26) disposed between the two elongated box bodies (18) and two telescopic racks (27) respectively passing through both ends of the sleeve (26). The telescopic racks (27) pass through the elongated box bodies (18) along the length of the round rod (25). The two telescopic racks (27) correspond to two gears (21) respectively, and the telescopic racks (27) mesh with the corresponding gears (21).

7. The prefabricated floor slab steel mesh according to claim 6, characterized in that: The sleeve (26) is equipped with a power component, which includes an airbag (29) connected between the two telescopic racks (27) and an air pump (30) fixedly installed on the periphery of one of the round rods (25); the air pump (30) is connected to the airbag (29).

8. A prefabricated floor slab steel mesh according to claim 5, characterized in that: The lower part of the mesh body (12) is provided with a lifting component, which includes a truncated cone (11) located below the mesh body (12), a plurality of assembly slots (31) located on the top of the truncated cone (11), and a plurality of cylinders (32) installed at the bottom of the assembly slots (31); the plurality of cylinders (32) correspond to a plurality of round rods (25), and the piston rod of the cylinder (32) is connected to the corresponding round rod (25).

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