CN2515314Y - Structure of partition wall - Google Patents

Abstract

The utility model relates to a structure of partition wall, which mainly comprises a wall surface framework and a plurality of linking components, wherein the wall surface framework can adapt to the size of the wall and has proper size, the wall surface framework is formed by correspondingly combining two metal net sheets, the surfaces of the metal net sheets form continuous meshes with proper size, a plurality of burrs which are not punched and penetrated can be reserved simultaneously when the metal net sheets are formed, the burrs correspond to the concave-convex bending positions of the metal net sheets, and the burrs form reinforced turning edges after being bent so as to increase the strength of the wall surface framework, secondly, the linking components can be fixed on the cylindrical surface, the ground surface or the ceiling of a building, and the linking components at least have caulking grooves for the embedding of the wall surface framework on one side of the linking components, therefore, the linking components are fixed on the preset wall surface positions of the building, the ground surface or the ceiling, and the wall surface framework is embedded in the caulking grooves of the linking components, and spraying the two side surfaces of the wall framework to form a wall surface after the cement paste is dried and solidified.

Description

The structure of the partition wall

technical field

The utility model relates to a partition wall structure, in particular to a partition wall structure which can facilitate construction and reduce the weight of the wall surface, and can easily attach cement slurry to form a wall surface, and the wall surface skeleton has a certain strength.

Background technique

The construction methods of the walls of traditional buildings are roughly as follows: (1) Formwork is first assembled at the predetermined wall position, and then the mud is poured after the necessary pipeline wiring is completed. After the mud dries up, the formwork is removed to form the wall. (2) Lay up bricks and cement one by one at the predetermined wall position, and then drill holes and bury pipes at the necessary pipeline positions to form the wall. (3) It is formed by pre-filling the wall panel with concrete first, then hanging the wall surface on the predetermined wall surface, and fixing the pre-cast wall panel with connecting accessories. The construction methods of the above-mentioned traditional building walls all have multiple complex procedures, and the overall project is time-consuming, slow construction, and relatively high in cost; in addition, the interior of the above-mentioned walls is a solid wall, and the burden of the weight of the wall is completely borne by the beam-column structure. This will be detrimental to the earthquake resistance of the whole building. Moreover, the structural form of the wall will cause an increase in brittleness, which will hinder the shock-absorbing properties of the building, and then make the wall prone to cracks or even collapse. The construction methods of the above-mentioned walls are all unfavorable for the construction of high floors, especially in the mode of brick building or precast wall panels, which further increases the problem of material lifting and the derivation of difficult technology.

Contents of the invention

The purpose of this utility model is to improve the shortcomings of the above-mentioned building partition walls, and provide a structure that can facilitate construction and reduce the weight of the wall, and can make the cement paste easy to attach to form the wall, and the wall skeleton has a certain strength. partition wall structure.

The utility model provides a partition wall structure, which is mainly composed of a wall skeleton and several connecting components; wherein the wall skeleton can adapt to the size of the wall and is an appropriate size, and it is formed by correspondingly combining two metal meshes. The metal mesh is roughly in the shape of concave and convex interlaced waves. When two metal meshes correspond, they can be combined by welding, high frequency, wire binding, etc. The surface of the metal mesh forms a continuous mesh with an appropriate size. When the metal mesh is formed, several rough edges that have not been stamped and penetrated can be reserved at the same time. The rough edges correspond to the concave-convex bending positions of the metal mesh, so that the rough edges can form a reinforcing turning edge after bending, so as to Increase the strength of the wall skeleton.

The technical means and structural features used by the utility model to achieve the purpose, in conjunction with the embodiments of the accompanying drawings, are described in detail as follows.

Description of drawings

Fig. 1 is the three-dimensional exploded structural diagram of the utility model;

Fig. 2 is the mesh diagram of the utility model wall skeleton;

Fig. 3 is the bending diagram of the utility model metal mesh;

Fig. 4 is the installation diagram of the present utility model;

Fig. 5 is a pipeline diagram of the wall skeleton when the utility model is in use.

Detailed ways

Please refer to Fig. 1, the utility model is mainly composed of a wall frame 10 and a number of connecting components 20; wherein, the wall frame 10 can adapt to the size of the wall and is an appropriate size, and is formed by correspondingly combining two metal mesh sheets 11. The metal mesh sheet 11 is stamped and stretched by the metal plate to form a continuous mesh 12 with an appropriate size (as shown in Figure 2). The transparent size is better, and the metal mesh 11 is roughly in the shape of concave and convex interlaced waves. When the two metal meshes 11 correspond, they can be combined into a complete wall skeleton 10 by means of welding, high frequency, and wire binding. Please refer to Fig. 3, when the above-mentioned metal mesh sheet 11 is stamped and stretched to form a uniformly distributed mesh 12, several burrs that have not been stamped and penetrated can be reserved at the same time, and the burrs just correspond to the concave-convex bending of the metal mesh sheet 11. position, so that the burr is bent to form a reinforcing turning edge 13 to increase the strength of the wall skeleton 10 .

Several connecting components 20 (please refer to FIG. 1 ), which can be fixed on the building column, ground or ceiling, and the connecting components 20 have at least one side of the connecting components 20 for embedded groove 21 for the wall frame 10 .

By the above structure (please refer to Fig. 4), several connecting components 20 can be fixed on the predetermined wall positions of the building cylinder, the ground or the ceiling, and the upper, lower, left and right sides of the wall skeleton 10 can be embedded in In the embedding groove 21 of each connecting component 20, like this, can spray the grout of appropriate thickness on the surface of both sides of wall frame 10 (or can be other grout material that forms wall), treat that grout dries up and promptly forms a grout. wall.

Therefore, the wall composed of the wall skeleton 10 of the present invention and several connecting components 20 has the following advantages:

(1) When the metal mesh 11 of the wall skeleton 10 is stamped and stretched to form a uniformly distributed mesh 12, several burrs that have not been punched through can be reserved at the same time, so that the burrs can be bent to form reinforcement The turning edge 13 can increase the strength of the metal mesh sheet 11, so that when the two metal mesh sheets 11 form the wall skeleton 10 and stand upright, they have a certain strength, which is beneficial to the spraying work, so that the overall wall surface strength is improved. Increase.

(2) Since the wall frame 10 is composed of two wavy metal mesh sheets 11, a pipeline space is formed in the wall frame 10, which can be used for water, electricity and other pipelines, or filled with fireproof , sound insulation, heat insulation and other cotton materials, foam materials, so the water and electricity pipelines do not need to be buried in the cement slurry, and then the thickness of the wall can be reduced, which helps to save the cost of cement, and the wall can also have fire protection and sound insulation. or thermal insulation.

(3) The surface of the wall frame 10 is covered with a continuous mesh 12 of an appropriate size. When the wall frame 10 is sprayed, the grout can be easily attached to each surface and corner of the wall frame 10, and The mesh 12 is just enough for the cement slurry to penetrate but not penetrate completely, so that the pipeline space of the wall skeleton 10 will not be closed by the cement slurry (see Figure 5), and the corresponding joints of the two metal mesh sheets 11 can make the cement slurry The grout penetrates, so that the wall surface formed by the grout is integrated, which further increases the firmness of the wall; and the grout can be easily attached to every surface and corner of the wall skeleton 10, which also contributes to the improvement of the construction speed.

(4) Since there is a pipeline space in the wall framework 10, when the wall framework 10 is sprayed, the pipeline space is not filled with cement slurry, which greatly reduces the material cost of the cement slurry and the weight of the wall, and can also reduce the structure. body load.

As can be seen from the above description and the embodiments of the accompanying drawings, the utility model fixes several connecting components 20 on predetermined wall positions of the building cylinder, the ground or the ceiling, and places the upper, lower, left, and right sides of the wall skeleton 10 The right side is embedded in the caulking groove 21 of each connecting component 20, and spraying is applied to the surface of both sides of the wall skeleton 10 to form a wall, so as to facilitate construction, reduce the weight of the wall, and make the cement The purpose of the utility model is that the slurry is easy to adhere to form a wall; especially, since the two metal mesh sheets 11 of the wall frame 10 are provided with several reinforcement turning edges 13, the strength of the wall frame 10 can be increased. Therefore, compared with the known partition wall structure, the utility model has remarkable progress and practicability, and the technical means and its structure are indeed developed by the designer, and the utility model has already complied with the utility model patent requirements, so the application is made in accordance with the law. The structure described in the utility model is an embodiment of the utility model, and all equivalent changes made according to the structure of the utility model should still be covered within the scope of patent claims of the utility model.

Claims (2)

1. A partition wall structure, which is mainly composed of a wall skeleton and a number of connecting components; it is characterized in that: the wall skeleton can adapt to the size of the wall and be an appropriate size, and it is formed by correspondingly combining two metal meshes. The metal mesh is generally in the shape of concave and convex interlaced waves. When two metal meshes correspond to each other, they can be combined by welding, high frequency, wire binding, etc. The surface of the metal mesh forms a continuous mesh with an appropriate size. For this purpose, when the metal mesh is formed, several rough edges that have not been stamped and penetrated can be reserved at the same time. The rough edges correspond to the concave-convex bending positions of the metal mesh, so that the rough edges can form a reinforcing turning edge after bending. To increase the strength of the wall skeleton. 2. The structure of the partition wall according to claim 1, characterized in that: the several connecting components can be fixed on the building cylinder, the ground or the ceiling, and the connecting components have at least one side of the connecting component that can be embedded in the wall skeleton. Therefore, a number of connecting components are fixed on the predetermined wall position of the building cylinder, ground or ceiling, and the wall skeleton is embedded in the caulking groove of each connecting component, and then the two sides of the wall skeleton are fixed. Shotcrete operation is applied, and a wall surface is formed after the cement slurry dries.

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