KR100420299B1 - Multilayer adiabatic block and method for manufacturing the same - Google Patents

Abstract

The present invention relates to a multi-lightweight insulating block, comprising a reinforcing member 10 forming a three-dimensional shape; A pair of heat insulating layers 20 and 21 coupled to protrude a portion of the reinforcing material 10; And first concrete layers 30 and 31 formed on one surface of the heat insulating layers 20 and 21 so that the reinforcing materials 10 protruding from the pair of heat insulating layers 20 and 21 are embedded. The 31 is implemented by mixing cement, sand, and the styrofoam granules 32 coated with the affinity agent 32a, and protrusions 20a and 20b are formed at one side of the heat insulation layers 20 and 21. The other side is characterized in that the grooves 20c and 20d engaged with the protrusions are formed. In addition, the manufacturing method includes a step of forming a pair of heat insulating layers 20, 21 to put a reinforcing member 10 forming a three-dimensional shape in the first mold so that a part thereof is protruded; Applying affinity agent 25 to one surface of the heat insulation layer 20, 21; The first concrete layer 30 (31) is placed on one surface of the heat insulating layer 20 (21) by inserting a heat insulating layer (20, 21) in which the affinity agent (25) is applied and a part of the reinforcing material (10) protrudes into the second mold. Forming a); characterized in that it comprises a.

Description

Multi-weight adiabatic block and method for manufacturing the same

The present invention relates to a multi-light insulating block used to construct a building wall and a method of manufacturing the same.

There are many ways to construct a building wall. For example, a masonry method is known in which a brick or a block is stacked in a double manner and an insulation is inserted in the middle, and then plastered on both sides or one side of the wall. In addition, reinforcing reinforcing bars while filling the formwork, cement mortar is filled into the inner surface to make concrete retaining wall, and then curing the formwork. Processes for finishing with or finishing with gypsum board are known.

However, such a method requires not only skilled labor but also has a high self-load of the completed building, so that the foundation work must be secured from the beginning, and construction cost is high.

In addition, in reality, it is impossible to install a heat insulating material without a gap between the bricks or blocks, or the concrete retaining wall, the heat insulation is not properly even after the construction is completed, there was a frequent condensation phenomenon. In addition, there was a gap between the insulation and the sound insulation was poor.

In addition, there was a problem that many industrial wastes were discharged and polluted the environment when the building was dismantled at the time of construction as well as after the end of life.

The present invention has been made to solve the above problems, and an object of the present invention is to provide a multi-lightweight insulating block and a method for manufacturing the same, which is easy to construct, lightweight, and excellent in insulation and sound insulation.

Still another object of the present invention is to provide a multi-light weight insulating block and a method for manufacturing the same, which have strong compressive strength and are not burned and are recyclable.

1 is a partially cutaway perspective view of a multi-lightweight insulating block according to the present invention;

Figure 2 is a side view of the multi-lightweight insulating block of Figure 1,

3 is a top view of the multi-lightweight insulating block of FIG.

4 is a view showing an extract of the styrofoam grains employed in FIG.

5 is a view showing an extract of the reinforcing material employed in FIG.

6 is a view illustrating a state in which a heat insulation layer is formed in the reinforcement of FIG. 5,

7 is a view showing a state in which a concrete layer is formed in the structure of FIG.

8 is a view showing a state in which a space is formed between the insulating layers in the multi-lightweight insulating block according to the present invention;

9 is a view showing a method for constructing a multi-lightweight insulating block of the present invention.

<Description of the symbols for the main parts of the drawings>

10 ... reinforcement 20, 21 ... insulation layer

20a, 20b ... Turning 20c, 20d ... Home

25 ... affinity agent 30, 31 ... first concrete layer

32 ... Styrofoam granules 32a ...

40 ... second concrete layer 41 ... horizontal hole

42 ... vertical holes 50. 51 ... finishing materials

60 ... Urethane (Adhesive Mortar)

In order to achieve the above object, the multi-lightweight insulating block according to the present invention,

A reinforcing member 10 forming a three-dimensional shape; A pair of heat insulating layers 20 and 21 coupled to protrude a part of the reinforcing material 10; First concrete layers 30 and 31 formed on one surface of the heat insulating layers 20 and 21 so that the reinforcing materials 10 protruding from the pair of heat insulating layers 20 and 21 are embedded; And a second concrete layer 40 formed between the pair of heat insulating layers 20 and 21 and having a plurality of holes 41 and 42 formed in a horizontal direction and / or a vertical direction. 31 is cement, sand, and the styrofoam granules 32 coated with the affinity agent 32a is mixed, and the protrusions 20a and 20b are formed on one side of the heat insulation layers 20 and 21. On the other side, it is characterized in that the grooves 20c and 20d engaged with the protrusions are formed.

In the present invention, the finish 50 is applied to at least one surface of the first concrete layer, the finish 50 is selected from the group consisting of marble, artificial stone, dry bits and the like.

In order to achieve the above object, an embodiment of the manufacturing method of the multi-lightweight insulating block according to the present invention, the reinforcing material 10 forming a three-dimensional shape in a first mold to a part of the heat insulating layer 20 so as to protrude a part thereof. Forming (21); Applying an affinity agent 25 to one surface of the heat insulation layer 20, 21; The first concrete layer 30 (31) is placed on one surface of the heat insulating layer 20 (21) by inserting a heat insulating layer (20, 21) in which the affinity agent (25) is applied and a part of the reinforcing material (10) protrudes into the second mold. Forming); And forming a second concrete layer 40 in which vertical and / or horizontal holes are formed between the heat insulation layers 20 and 21. In order to achieve the above object, the present invention Another embodiment of the manufacturing method of the multi-light weight insulating block according to the above, comprising the steps of forming a pair of thermal insulation layer (20) (21) so that a part of the reinforcing member 10 forming a three-dimensional shape to protrude into; Applying an affinity agent 25 to one surface of the heat insulation layer 20, 21; The first concrete layer 30 (31) is placed on one surface of the heat insulating layer 20 (21) by inserting a heat insulating layer (20, 21) in which the affinity agent (25) is applied and a part of the reinforcing material (10) protrudes into the second mold. Forming); And embedding one selected from the group consisting of ocher, cementite, and sound insulation between the heat insulation layers 20 and 21.

Hereinafter, with reference to the accompanying drawings, a multi-lightweight insulating block and a method of manufacturing the same according to the present invention will be described in detail.

1 is a partially cutaway perspective view of a multi-light weight insulating block according to the present invention, FIG. 2 is a side view of the multi-light weight insulating block of FIG. 1, FIG. 3 is a top view of the multi-light weight insulating block of FIG. Fig. 5 is a view showing an extract of the styrofoam grains employed in Fig. 1, and Fig. 5 is a view showing an extract of the reinforcing material used in Fig. 1.

Referring to the drawings, the multi-lightweight insulating block according to the present invention, a pair of heat insulating layers 20 and 21 are installed to be coupled to the inside of the reinforcing member 10 and the three-dimensional shape of the reinforcing member 10 is protruded. And, it is formed on one surface of the pair of heat insulating layers 20, 21 and includes a first concrete layer (30) (31) in which a part of the reinforcing material 10 protruding is embedded. Also, a second concrete layer 40 of the same material as the first concrete layers 20 and 21 is formed between the pair of insulating layers 20 and 21. In this case, a known affinity agent 25 is applied to the surfaces of the heat insulation layers 20 and 21 so as to be firmly bonded to the first and second concrete layers 20 and 21 and 30 and 31. In addition, it is preferable that finishes 50 and 51 are applied to one surface of the first concrete layers 20 and 21.

As shown in FIGS. 1 and 5, the reinforcement 10 is preferably in the form of a reinforcement or a hexahedron made of a mesh, and these materials may be formed of metal, plastics having strong strength, or ceramics. The reinforcement 10 increases the bonding force between the 20 insulation layers and the 21 insulation layers, and strengthens the compressive strength of the completed multi-light insulation block. Such a reinforcing material is a hexahedron shape in this embodiment, but this is only an embodiment, and it is a matter of course that the bar may have a structure in which a plurality of bars are combined in a diagonal, vertical, or horizontal direction.

The heat insulation layer 20, 21 is to block the heat conducting to the outside or conducting from the outside, it is preferable that the easy-to-install Schirofoam (EPS), urethane insulation and the like is not expensive. At this time, one side of the heat insulation layers 20 and 21 is formed with a protrusion having a "凸" shape or a "∩" shape, and a groove having a "凹" shape or a "∪" shape is formed at the other side. 1, 2, and 3, the protrusions 20a and 20b are formed at the right and lower ends of the heat insulation layers 20 and 21, and the grooves 20c and 20d are formed at the left and top ends thereof. Is formed. By this structure, when stacking the multi-lightweight insulating block of the present invention, the upper, lower, left and right sides are completely engaged without a gap. At this time, the heat insulating layers 20 and 21 used are styrofoam having a relatively high density and strength.

The first concrete layer 30 is implemented by mixing cement, sand, and styrofoam granules 32 appropriately. These mixing ratios vary depending on the strength to be implemented, and in this embodiment, it is about 3: 4: 3. At this time, the styrofoam granules 32 are preferably about 2mm to 5mm in diameter, and as shown in FIG. 4 so as to be better bonded with cement and sand, it is preferable that a known affinity agent 32a is coated. .

The second concrete layer 40 has a plurality of holes 41 and 42 formed in the horizontal direction and / or the vertical direction. In this embodiment, one horizontal hole 41 is formed in the horizontal direction, six vertical holes 42 are formed in the vertical direction, and these horizontal holes 41 and the vertical holes 42 are formed in the second direction. Meeting with each other in the concrete layer (40). These holes contain air, which improves the insulation effect and at the same time increases the sound insulation efficiency. The second concrete layer 40 is also implemented by mixing cement, sand, and styrofoam grains as appropriate as the first concrete layer 30.

The finishing materials 50 and 51 are for smoothly showing the surface of the multi-light insulation block, and employ one selected from the group consisting of marble, artificial stone, dry bit, and the like. By using such a finishing material, there is no need to finish after wall construction using a multi-light insulation block.

In the present embodiment, the multi-lightweight insulating block has a structure employing a total of two insulating layers, but this is only one embodiment for easier explanation, and for example, the insulating layer may be triple, quadruple, or fifth middle. Of course.

Next, a method of manufacturing a multi-lightweight insulating block having the above structure will be described.

6 is a view illustrating a state in which a heat insulation layer is formed in the reinforcement of FIG. 5, and FIG. 7 is a view illustrating a state in which a concrete layer is formed in the structure of FIG. 6.

First, a step of forming a pair of heat insulation layers 20 and 21 by inserting a hexahedral reinforcement 10 shown in FIG. 5 into a first mold (not shown) to protrude a part thereof. Then, the state shown in FIG. 6 is obtained.

Next, a step of applying the affinity agent 25 on one surface of the heat insulating layer (20, 21) is performed.

Next, the affinity agent 25 is applied and a part of the reinforcing material 10 is protruded into the heat-insulating layer 20 (21) in a second mold (not shown) to the first surface on both sides of the heat insulating layer (20, 21) A step of forming the concrete layers 30 and 31 is performed.

In this case, when the shape of the first and second molds are different, the second concrete layer 40 may be formed between the both heat insulating layers 20 and 21. In addition, of course, vertical holes and horizontal holes may be formed in the second concrete layer 40. However, as shown in FIG. 8, it is possible to form a space without forming the second concrete layer between the both heat insulating layers 20 and 21. The empty space may be filled with loess or cement mortar or soundproof material at the construction site.

Next, on the surfaces of the first concrete layers 30 and 31, finishes 50 and 51 formed of any one selected from the group consisting of marble, artificial stone, and dry bits are formed.

The multi-lightweight insulating block made by the above method is constructed as shown in FIG. That is, it is constructed by inserting the projections 20a and 20b of the multi-light weight insulating block into the grooves 20c and 20d in turn, wherein the first concrete layers 20 and 21 of the multi-light weight insulating block are After urethane (60) or adhesive mortar is applied to the end surface, it is piled up one by one.

Although the present invention has been described with reference to one embodiment shown in the drawings, this is merely exemplary, and those skilled in the art will understand that various modifications and equivalent other embodiments are possible therefrom.

As described above, the multi-lightweight insulating block according to the present invention has the following advantages.

1) The conventional wall structure having a double stack of bricks and a built-in insulation in the middle is at least 300mm in thickness, whereas the multi-light weight insulation block of the present invention can realize a relatively small wall thickness under the same strength and insulation state ( 100mm to 200mm), and eventually the actual floor area of the building can be increased. This structure can reduce the weight of about 30% to 50% compared to the general cement bricks or blocks can be reduced in weight.

2) The projections 20a and 20b and the grooves 20c and 20d meshing with the projections are formed on the side of the multi-light insulation block so as to be completely combined with the other insulation blocks. No gaps are created in between. Therefore, a more perfect heat insulation effect and a sound insulation effect can be obtained.

3) The multi-light weight insulation block has a structure that wraps the insulation in the concrete layer, so that even if a fire occurs, the insulation inside the concrete layer does not catch fire. Therefore, it is possible to prevent the discharge of the toxic gas and the flammability to the wall.

4) In the multi-light insulation block, the styrofoam granules 32 coated with affinity agents therein are very firmly bonded to the concrete of caution, and since the skeleton is made of reinforcement materials, the tensile strength as well as the compressive strength are very high. Therefore, even when the wall is constructed high, it is possible to maintain a solid and stable state. Such a structure is more buffered because the insulation block is constructed using urethane or the like, thus improving the shock resistance.

5) The multi-light insulation block may have a hole formed therein and may be lightened by an insulation material and styrofoam grains. Therefore, it is very easy to move and further facilitates construction.

6) A horizontal hole 41 and a vertical hole 42 are formed inside the multi-light insulating block so that wiring or pipes can be inserted into the holes. Therefore, wiring piping work is possible at the same time as the masonry, there is no need to do the wiring pipe laying work that was broken and constructed a part of the wall in post work.

7) Multi-light insulation blocks are nailed well but do not fall off once nailed. Therefore, it is very easy to do post-work such as slab formwork and roof of building.

8) The construction of the multi-light weight insulating block adhesively bonds the other insulating block by applying urethane to the end surface of the first concrete layer (30) (31). Therefore, by removing the urethane between the insulating blocks using a knife, it is possible to separate again, and thus, when dismantling the building later, the insulating block can be recovered and reused and environmental pollution can be prevented.

9) The multi-light insulation block has excellent humidity control and no condensation or water flow in winter.

Claims (6)

A reinforcing member 10 forming a three-dimensional shape; A pair of heat insulating layers 20 and 21 coupled to protrude a part of the reinforcing material 10; First concrete layers 30 and 31 formed on one surface of the heat insulating layers 20 and 21 so that the reinforcing materials 10 protruding from the pair of heat insulating layers 20 and 21 are embedded; A second concrete layer 40 formed between the pair of heat insulating layers 20 and 21 and having a plurality of holes 41 and 42 formed in a horizontal direction and / or a vertical direction. The concrete layer 31 is implemented by mixing cement, sand, and styrofoam granules 32 coated with an affinity agent 32a, and projections 20a and 20b on one side of the heat insulation layers 20 and 21. Is formed, and the other side is a multi-structure lightweight, characterized in that the groove (20c) (20d) to be engaged with the projection is formed. delete The method of claim 1, Finishing material 50 is applied to at least one surface of the first concrete layer, the finishing material 50 is a multi-light insulating block, characterized in that selected from the group consisting of marble, artificial stone, dry bit. Forming a pair of heat insulation layers 20 and 21 so that a part of the three-dimensional reinforcement material 10 is formed in the first mold; Applying an affinity agent 25 to one surface of the heat insulation layer 20, 21; The first concrete layer 30 (31) is placed on one surface of the heat insulating layer 20 (21) by inserting a heat insulating layer (20, 21) in which the affinity agent (25) is applied and a part of the reinforcing material (10) protrudes into the second mold. Forming); And forming a second concrete layer (40) in which vertical and / or horizontal holes are formed between the heat insulating layers (20, 21). delete Forming a pair of heat insulation layers 20 and 21 so that a part of the three-dimensional reinforcement material 10 is formed in the first mold; Applying an affinity agent 25 to one surface of the heat insulation layer 20, 21; The first concrete layer 30 (31) is placed on one surface of the heat insulating layer 20 (21) by inserting a heat insulating layer (20, 21) in which the affinity agent (25) is applied and a part of the reinforcing material (10) protrudes into the second mold. Forming); And embedding at least one selected from the group consisting of ocher, cementite, and soundproofing material between the heat insulating layers (20) (21).