Integrated rock wool board structure of non-dismantling formwork

Abstract

The utility model relates to the technical field of building materials, and discloses an integrated rock wool board structure of a non-dismantling formwork, which comprises rock board bodies, the wall surface of each rock board body is provided with a connecting assembly capable of connecting two rock board bodies, the connecting assembly comprises a connecting block and a connecting groove, the wall surface of each rock board body is provided with the connecting groove, and the connecting block is connected with the connecting groove. The connecting blocks of the two adjacent rock plate bodies are provided with connecting grooves, the connecting grooves are inserted into the connecting blocks of the two adjacent rock plate bodies and are bonded through mortar, the wall faces of the connecting blocks are provided with guiding channels used for mortar flowing, the detachable connecting blocks are inserted into the connecting grooves, the connecting grooves of the other rock plate body are aligned with the connecting blocks and are squeezed and pushed, and the connecting blocks are connected through the guiding channels. The detachable connecting blocks can be temporarily laid on an installation site, so that the side walls of the rock plate bodies are kept relatively flat, the rock plate has the characteristic of being convenient to store and transport, meanwhile, the probability that the connecting blocks are directly and integrally formed on the wall surfaces of the rock plate bodies and are prone to breakage is reduced, and the rock plate has the characteristic of being convenient to install.

Description

Technical Field

[0001] The utility model relates to the technical field of building materials, in particular to an integrated rock wool board structure without requiring disassembly of templates. Background Art

[0002] The prior art discloses an integrated rock wool board (CN202210077805.0) without disassembly template, comprising an outer frame plate and an inner plate, wherein the inner portion of the outer frame plate is hollow in structure and has openings on both sides, and the inner plate is movably installed inside the outer frame plate, the left side of the inner plate is triangular pyramidal in structure, and a triangular pyramidal groove is provided on the right side outer surface, and a slide groove is provided at the front and rear middle positions of the inner surface of the outer frame plate;

[0003] In the prior art, shale plates are mainly bonded by mortar so that adjacent shale plates are bonded to form a whole. There is also a method of inserting protrusions into grooves to achieve connection. The protrusions need to be formed integrally with the shale plates, which causes protrusions to form on the side walls of the shale plates. The protruding parts will take up extra space during storage and transportation, causing certain inconveniences to storage and transportation. At the same time, the protruding parts are squeezed and easily broken and damaged, which affects the later clamping effect.

[0004] To this end, we proposed an integrated rock wool board structure that does not require dismantling of the formwork. Utility Model Content

[0005] The utility model mainly solves the technical problems existing in the above-mentioned prior art and provides an integrated rock wool board structure without requiring disassembly of the template.

[0006] In order to achieve the above-mentioned purpose, the utility model adopts the following technical scheme: an integrated rock wool board structure without disassembly formwork, including a rock board body, the wall surface of the rock board body is provided with a connecting component that can connect two rock board bodies, the connecting component includes a connecting block and a connecting groove, the wall surface of the rock board body is provided with a connecting groove, the connecting groove is inserted into the connecting block of two adjacent rock board bodies and is bonded by mortar, and the wall surface of the connecting block is provided with a guide channel for the flow of mortar.

[0007] As a preferred embodiment of the utility model, the connecting block forms a block structure with a shuttle-shaped cross-section, the connecting groove is a trapezoidal groove, the four side walls of the rock plate body are all provided with the same connecting groove, and the connecting block can be embedded in the connecting groove.

[0008] As a preferred embodiment of the present invention, the guide channel includes a first extrusion groove formed on the front wall surface of the connecting block, and the connecting block forms a concave-convex contact surface through the first extrusion groove.

[0009] As a preferred embodiment of the present invention, the first extrusion groove includes a plurality of folded line main grooves and horizontally opened extension grooves, the extension grooves are interconnected with each main groove, and the same first extrusion grooves are symmetrically arranged on the rear wall surface of the connecting block.

[0010] As a preferred embodiment of the present invention, the guide channel further comprises dispersion grooves, and a plurality of dispersion grooves are provided on the top surface and the bottom surface of the connection block.

[0011] As a preferred embodiment of the present invention, the guide channel further comprises a conveying groove, and the dispersion groove surrounds the end surface of the connecting block and connects the dispersion grooves on the wall surface of the connecting block to each other.

[0012] As a preferred embodiment of the utility model, the dispersion groove includes a blade-shaped central hole and a branch groove interconnected with the central hole, the branch groove and the central hole together form a channel with leaf vein distribution, and the conveying groove is a rectangular groove, which surrounds the top and bottom end faces of the connecting block to form a closed annular channel.

[0013] Beneficial Effects

[0014] The utility model provides an integrated rock wool board structure without disassembly of the template. It has the following beneficial effects:

[0015] 1. The integrated rock wool board structure of the disassembly-free formwork is provided with a detachable connecting block, which is inserted into the connecting groove, and the connecting groove of the other rock board body is aligned with the connecting block and pushed, so that the connecting block is located in the connecting grooves of the two rock board bodies at the same time, and the shuttle-shaped connecting block can fit into the connecting groove. Of course, the size of the connecting groove should be slightly larger than the size of the connecting block to accommodate and stack the mortar, so that the mortar can flow and overflow between the connecting block and the inner wall of the rock board body. The detachable connecting block can be temporarily laid at the installation site, so that the side wall of the rock board body remains relatively flat, which is easy to store and transport. At the same time, it reduces the probability of the connecting block directly integrally formed on the wall of the rock board body being easily broken, and is easy to install.

[0016] 2. The integrated rock wool board structure of the disassembly-free formwork forms a concave and convex friction surface on the front and rear walls of the rock board body by setting a first extrusion groove. After the mortar solidifies, the mortar in the first extrusion groove can better condense the connecting block, and the adhesion between the connecting block and the mortar is stronger, so that the connecting block has a greater condensation force on the two rock board bodies, and the strength of the multiple rock board bodies used for splicing is higher and the structure is more reasonable. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is one of the three-dimensional diagrams of the utility model;

[0018] Figure 2 This is the second stereogram of the utility model;

[0019] Figure 3 A schematic diagram of a connecting groove formed on the rock plate body of the utility model;

[0020] Figure 4 This is one of the three-dimensional diagrams of the connection block of the utility model;

[0021] Figure 5 This is the second stereoscopic diagram of the connecting block of the utility model.

[0022] Legend: 10, rock plate body; 20, connecting block; 21, connecting groove; 30, first extrusion groove; 31, dispersion groove; 32, conveying groove. DETAILED DESCRIPTION

[0023] Integrated rock wool board structure without dismantling formwork, such as Figure 1 , Figure 2 and Figure 3 As shown, it includes a rock board body 10, and the wall surface of the rock board body 10 is provided with a connecting component that can connect two rock board bodies 10, and the connecting component includes a connecting block 20 and a connecting groove 21. The wall surface of the rock board body 10 is provided with a connecting groove 21, and the connecting groove 21 is inserted into the connecting block 20 of two adjacent rock board bodies 10 and adhered through mortar. The wall surface of the connecting block 20 is provided with a guiding channel for the flow of mortar, and the connecting block 20 forms a block structure with a shuttle-shaped cross-section. The connecting groove 21 is a trapezoidal groove. The four side walls of the rock board body 10 are all provided with the same connecting groove 21, and the connecting block 20 can be embedded in the connecting groove 21. In this method, a detachable connecting block 20 is provided, and the connecting block 20 is inserted into the connecting groove 21. 1, align the connecting groove 21 of the other rock slab body 10 with the connecting block 20 and squeeze and push, so that the connecting block 20 is located in the connecting groove 21 of the two rock slab bodies 10 at the same time, and the shuttle-shaped connecting block 20 can fit into the connecting groove 21. Of course, the size of the connecting groove 21 should be slightly larger than the size of the connecting block 20 to accommodate and stack the mortar, so that the mortar can flow and overflow between the connecting block 20 and the inner wall of the rock slab body 10. The detachable connecting block 20 can be temporarily laid at the installation site, so that the side wall of the rock slab body 10 remains relatively flat, which is convenient for storage and transportation. At the same time, it reduces the probability of the connecting block 20 directly integrally formed on the wall of the rock slab body 10 being easily broken, which is convenient for installation.

[0024] like Figure 4As shown, the guide channel includes a first extrusion groove 30 provided on the front wall of the connecting block 20, and the connecting block 20 forms a concave-convex contact surface through the first extrusion groove 30. The first extrusion groove 30 includes a plurality of zigzag main grooves and horizontally provided extension grooves, and the extension grooves are interconnected with each main groove. The same first extrusion grooves 30 are symmetrically arranged on the rear wall of the connecting block 20. In this solution, by arranging the first extrusion groove 30, a concave-convex friction surface is formed on the front and rear walls of the rock slab body 10. After the mortar solidifies, the mortar located in the first extrusion groove 30 can better solidify the connecting block 20, and the adhesion between the connecting block 20 and the mortar is stronger, so that the solidification force of the connecting block 20 on the two rock slab bodies 10 is greater, and the multiple rock slab bodies 10 used for splicing are higher in strength and more reasonable in structure.

[0025] like Figure 4 and Figure 5 As shown, the guide channel also includes a dispersion groove 31, and a plurality of dispersion grooves 31 are provided on the top and bottom surfaces of the connection block 20. The guide channel also includes a conveying groove 32, and the dispersion groove 31 surrounds the end surface of the connection block 20 and connects the dispersion grooves 31 on the wall surface of the connection block 20 to each other. The dispersion groove 31 includes a leaf-shaped central hole and a branch groove interconnected with the central hole. The branch groove and the central hole together form a channel with leaf vein distribution. The conveying groove 32 is a rectangular groove, and the conveying groove 32 surrounds the top and bottom end surfaces of the connection block 20 to form a closed annular channel. A dispersion groove 31 and a conveying groove 32 are provided so that the top surface and the side wall of the rock slab body 10 form a vein-like channel, and the mortar can flow better on the top surface and the side wall of the rock slab body 10. When sticking two rock slab bodies 10, the mortar in the connecting groove 21 has stronger fluidity and is laid more evenly. The mortar has a better adhesion effect on the top surface and the side wall of the connecting block 20. Of course, the conveying groove 32 can be a semicircular groove or other shapes in cross-section. The specific shape includes any one of the above-mentioned shapes but is not limited to the above-mentioned shapes. It is mainly necessary to allow the mortar to flow, and no further restrictions are given here.

[0026] The working principle of the utility model is as follows: mortar is laid in the connecting groove 21, the connecting block 20 is inserted into the connecting groove 21, the connecting groove 21 of the other rock board body 10 is aligned with the connecting block 20 and pushed, so that the connecting block 20 is located in the connecting groove 21 of the two rock board bodies 10 at the same time, the shuttle-shaped connecting block 20 can fit into the connecting groove 21, a first extrusion groove 30 is provided, so that the front and rear wall surfaces of the rock board body 10 form a concave and convex friction surface, after the mortar solidifies, the mortar located in the first extrusion groove 30 can better solidify the connecting block 20, and the adhesion between the connecting block 20 and the mortar is stronger, a dispersion groove 31 and a conveying groove 32 are provided, so that the top surface and side wall of the rock board body 10 form a vein-shaped channel, the mortar can flow better on the top surface and side wall of the rock board body 10, and when sticking two rock board bodies 10, the mortar has a larger contact surface with the connecting block 20, thereby ensuring the bonding surface area and strength.

[0027] The above shows and describes the basic principle and main features of the utility model and the advantages of the utility model. Those skilled in the art should understand that the utility model is not limited by the above embodiments. The above embodiments and descriptions are only for explaining the principle of the utility model. Without departing from the spirit and scope of the utility model, the utility model may have various changes and improvements, which fall within the scope of the utility model to be protected. The scope of protection claimed by the utility model is defined by the attached claims and their equivalents.

Claims

1. An integrated rock wool board structure without disassembly formwork, comprising a rock board body (10), characterized in that: The wall surface of the rock slab body (10) is provided with a connection component that can connect two rock slab bodies (10), and the connection component includes a connection block (20) and a connection groove (21). The wall surface of the rock slab body (10) is provided with a connection groove (21), and the connection groove (21) is inserted into the connection block (20) of two adjacent rock slab bodies (10) and adhered by mortar. The wall surface of the connection block (20) is provided with a guide channel for the flow of mortar.

2. The integrated rock wool board structure of the non-disassembly formwork according to claim 1 is characterized in that: The connecting block (20) forms a block structure with a shuttle-shaped cross section, the connecting groove (21) is a trapezoidal groove, the four side walls of the rock plate body (10) are all provided with the same connecting groove (21), and the connecting block (20) can be embedded in the connecting groove (21).

3. The integrated rock wool board structure of the non-disassembly formwork according to claim 1 is characterized in that: The guide channel comprises a first extrusion groove (30) opened on the front wall surface of the connection block (20), and the connection block (20) forms a concave-convex contact surface through the first extrusion groove (30).

4. The integrated rock wool board structure of the non-disassembly formwork according to claim 3 is characterized in that: The first extrusion groove (30) comprises a plurality of folded line main grooves and horizontally opened extension grooves, the extension grooves are interconnected with each main groove, and the same first extrusion grooves (30) are symmetrically arranged on the rear wall surface of the connection block (20).

5. The integrated rock wool board structure of the non-disassembly formwork according to claim 1 is characterized in that: The guide channel further comprises dispersion grooves (31), and a plurality of dispersion grooves (31) are provided on the top surface and the bottom surface of the connection block (20).

6. The integrated rock wool board structure of the non-disassembly formwork according to claim 5 is characterized in that: The guide channel also includes a conveying groove (32), and the dispersion groove (31) surrounds the end surface of the connecting block (20) and connects the dispersion grooves (31) on the wall surface of the connecting block (20) to each other.

7. The integrated rock wool board structure of the non-disassembly formwork according to claim 6 is characterized in that: The dispersion groove (31) comprises a leaf-shaped central hole and a branch groove interconnected with the central hole, the branch groove and the central hole together forming a channel with leaf vein distribution, and the conveying groove (32) is a rectangular groove, and the conveying groove (32) surrounds the top and bottom end surfaces of the connecting block (20) to form a closed annular channel.

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