KR102299914B1 - Beam deck plate installation structure - Google Patents

Abstract

According to the present invention, a beam deck plate installation structure comprises a deck panel, a plurality of stirrups, a plurality of spacers, and a fastener. The present invention reduces a construction period and construction cost.

Description

BEAM DECK PLATE INSTALLATION STRUCTURE

The present invention relates to a beam deck plate installation structure, and more particularly, when pouring concrete to form a beam in a building, it guarantees construction safety of workers, and improves workability to reduce the construction period and overall construction cost. It relates to the structure of the beam deck plate installation.

In general, beams protruding from the bottom of the ceiling are formed on the ceiling of a building to increase the bearing capacity, and in order to form such a beam, a form for pouring concrete is installed.

A formwork is a structure installed to make concrete in a predetermined shape and size by pouring concrete having fluidity in a reinforced concrete structure or a steel-framed reinforced concrete structure construction.

Formwork is a temporary material that is required during the period until the poured concrete is cured to some extent and is often removed after the concrete is cured. It is a cumbersome process that occupies a large part.

In particular, since a high-rigidity and low-priced formwork is used, the formwork's own weight is considerable, and the work of assembling and dismantling heavy materials at a high place is sometimes accompanied by risks.

As a conventional formwork material, various materials such as plywood or iron plate are used, and it is usually composed of a blocking board in contact with unconsolidated concrete and a brace, a wale, and a tying material for supporting it.

In particular, the steel formwork is relatively heavy, so it must be assembled and disassembled with moving equipment such as a crane. There is a problem with being sensitive.

In addition, when constructing a conventional beam formwork beam, it becomes a problem for safety when installing and removing the formwork in the process of installing the beam formwork and pouring concrete. There is a problem of inefficient use of the work space by Dongbari, and there is a problem of causing environmental problems due to the generation of a large amount of construction waste materials.

In addition, there is a problem in that the stirrup is not properly fixed because the stirrup is easily broken by the external pressure generated between transport or concrete pouring because the stirrup is bonded to the formwork by spot welding.

Therefore, a method for solving these problems is required.

Republic of Korea Patent Publication No. 10-0954447

The present invention is an invention devised to solve the problems of the prior art described above, and it is possible to apply both demolding and sloping beam deck plates for pouring concrete to form beams, and to make the binding of stirrups stable and easy. It has the purpose of shortening the construction period and reducing the construction cost by improving the workability.

In addition, by removing the copper bar or making it possible to use it to a minimum, it is possible to efficiently use the work space, and has the purpose of minimizing the generation of construction waste materials to minimize environmental pollution.

The problems of the present invention are not limited to the problems mentioned above, and other problems not mentioned will be clearly understood by those skilled in the art from the following description.

The beam deck plate installation structure of the present invention for achieving the above object is spaced apart from each other at equal intervals in the deck panel in which the pouring space in which the concrete is poured is formed, and the pouring space of the deck panel in the longitudinal direction of the pouring space. A plurality of stirrups formed in a 'U' shape, one side is coupled to the inner surface of the deck panel, and a coupling groove to which the stirrup is coupled to the other side is formed so that the stirrup is attached to the deck panel. A plurality of spacers to be fixedly supported and a binding hole for fixing and supporting the stirrups coupled to the spacers, wherein the deck panel forms a side surface of the pouring space, and in the inner direction of the pouring space so that the spacers are fitted to each other. A plurality of bent portions bent in a 'L' shape are integrally formed, and one end of the side plate having a first coupling part bent in a 'C' shape forms a lower surface of the pouring space, and the spacer is fitted in the inner direction of the pouring space so that the spacer is fitted. A plurality of bent portions bent in a 'L' shape are integrally formed, and a lower plate having a second coupling part bent in a 'C' shape at both ends, wherein the side plate and the lower plate overlap the first coupling part with a second coupling part It can be fitted and combined.

And the beam deck plate installation structure of the present invention for achieving the above object is spaced apart from each other at equal intervals in the deck panel in which the pouring space in which the concrete is poured is formed, and the pouring space of the deck panel, the length of the pouring space A plurality of stirrups continuously provided along the direction and formed in a 'U' shape, one side is coupled to the inner surface of the deck panel, and a coupling groove to which the stirrup is coupled to the other side is formed so that the stirrup is the deck panel It includes a plurality of spacers so as to be fixedly supported on and a binding sphere for fixing and supporting the stirrups coupled to the spacers, wherein the deck panel has a plurality of bent portions having both ends bent in an 'L' shape in the inner direction of the pouring space. A plurality of panel modules having side plates in which panel modules are continuously arranged so that the adjacent bent portions overlap each other to form a side surface of the pouring space, and bent portions having both ends bent in an 'L' shape in the inner direction of the pouring space. A lower plate and both ends forming a lower surface of the pouring space and both ends are bent in an 'L' shape inward of the pouring space by combining the adjacent bent parts to overlap each other, and one side is bent vertically, The bent portions formed at both ends may be coupled to overlap the bent portions formed at one end of the side plate and the lower plate, respectively, and may include a corner plate connecting the side plate and the lower plate.

At this time, the spacer is formed on one side of the main body and a main body, a coupling part provided inside the main body, one side protruding to the outside of the main body, and a coupling groove formed on the protruding side where the stirrup is coupled, and one side of the main body, It may include a fitting groove made of a 'L' shape so that the bent portion is fitted.

In addition, the spacer may further include a support member for supporting the bent portion in close contact with the rear surface of the bent portion in order to prevent separation of the bent portion coupled to the fitting groove.

In this case, one side of the main body may further include a through hole through which the support member penetrates the main body and is detachably inserted into the rear of the fitting groove.

In addition, the binding sphere may be made of a wire bound to surround one side of the stirrup to prevent separation of the stirrup coupled to the coupling groove.

In this case, one side of the coupling part may further include a wire groove to which the binding sphere made of the wire is fixed.

In addition, the binding sphere may be formed of a binding clip fitted to surround one side of the stirrup to prevent separation of the stirrup coupled to the coupling groove.

At this time, the binding clip has a double structure in which one side is bent so that the upper and lower surfaces are symmetrical to each other, and is formed in a 'U' shape so that the stirrup is positioned at the center of the binding clip and the space between the upper and lower surfaces. It is fitted to the coupling portion through the can be fixedly support the stirrup.

In addition, one side of any one of the upper surface or the lower surface further includes a binding pin that is bound to the coupling part to fix the binding clip, and one side of the coupling part corresponds to the binding pin so that the binding clip is fixed. It may further include a binding groove.

And the deck panel may further include a reinforcing plate for preventing deformation due to pressure or external force of the concrete poured into the pouring space.

The beam deck plate installation structure of the present invention for solving the above problems has the following effects.

First, it can be applied to both demolding and inclined beam deck plates, so it has the advantage of being able to respond flexibly to the situation of the field.

Second, there is an advantage in that the side plate and the lower plate can be formed by the combination of the panel module, so that the beam deck plate of various specifications can be configured.

Third, since the side plate and the lower plate and the spacer are made of a structure that is easy to attach and detach and it is easy to select a coupling position, there is an advantage that can shorten the air and minimize the burden of manpower by improving the workability.

Fourth, by reinforcing the rigidity of the beam deck plate, there is an advantage that can prevent the deck plate from being deformed by external force and pressure from pouring concrete.

Fifth, it is possible to reinforce the fixing force of the stirrup by combining the binding sphere to prevent the stirrup coupled to the spacer from being separated from the predetermined position, and to improve the workability by preventing construction errors. There is this.

Effects of the present invention are not limited to the effects mentioned above, and other effects not mentioned will be clearly understood by those skilled in the art from the description of the claims.

1a and 1b is an overall structural diagram showing the deck plate installation structure of the beam according to the first embodiment of the present invention;
Figures 2a and 2b is an overall structural diagram showing the deck plate installation structure of the beam according to the second embodiment of the present invention;
Figure 3 is a structural diagram showing a spacer in the beam deck plate installation structure according to an embodiment of the present invention;
Figure 4 is an exemplary view showing the coupling process of the deck panel and the spacer, and the stirrup in the beam deck plate installation structure according to an embodiment of the present invention;
5 to 7 are exemplary views showing a coupling method of the spacer coupling portion and the stirrup in the beam deck plate installation structure according to an embodiment of the present invention; and
8 is a structural diagram showing a binding clip in the beam deck plate installation structure according to an embodiment of the present invention.

Hereinafter, preferred embodiments of the present invention in which the object of the present invention can be specifically realized will be described with reference to the accompanying drawings. In the description of the present embodiment, the same names and the same reference numerals are used for the same components, and an additional description thereof will be omitted.

1A and 1B are overall structural diagrams showing the beam deck plate installation structure according to the first embodiment of the present invention, and FIGS. 2A and 2B are overall structural diagrams showing the beam deck plate installation structure according to the second embodiment of the present invention. am.

As shown in Figures 1a to 2b, the beam deck plate installation structure of the present invention is a deck panel 100 in which a pouring space in which concrete is poured can be formed, and the deck panel 100 inside the pouring space. A plurality of stirrups 200 spaced at equal intervals from each other in the longitudinal direction of the pouring space, that is, along the longitudinal direction of the deck panel 100, and a plurality of stirrups 200 made of a 'U' shape, and one side It is coupled to the inner surface of the deck panel 100, and a coupling groove 321 to which the stirrup 200 can be coupled is formed on the other side so that the stirrup 200 is fixedly supported on the deck panel 100. In order to prevent the plurality of spacers 300 and the stirrup 200 coupled to the spacers 300 from being separated from a predetermined position, the structure may include a plurality of spacers 300 and a binding sphere 400 that can be fixedly supported.

As described above, the beam deck plate installation structure of the present invention including the deck panel 100, the stirrup 200, the spacer 300 and the binding sphere 400 is a slope-type structure according to the detailed structure of the deck panel 100. Alternatively, it may be divided into a demolding structure.

First, the detailed structure of the deck panel 100 made of a slope-type structure will be described.

According to an embodiment of the present invention, the deck panel 100 made of a slope-type structure is, as shown in FIGS. 1A and 1B, side plates 110 forming both sides of the pouring space so that the pouring space can be formed. and a lower plate 120 constituting the lower surface of the pouring space, and may have a structure in which the side plate 110 and the lower plate 120 are coupled.

In more detail, the side plate 110 constituting the side of the pouring space is coupled to the inner surface of the deck panel 100 so that the spacer 300 capable of fixing and supporting the stirrup 200 is fitted. A plurality of bent portions 140 protruding in the inner direction of the pouring space may be formed so that the pouring space is formed.

In this case, the bent portion 140 may be integrally formed with the side plate 110 , and may be bent in a 'L' shape so that the spacer 300 can be securely coupled.

In addition, the lower plate 120 constituting the lower surface of the pouring space also has a 'L' shape in which the spacer 300 capable of fixing and supporting the stirrup 200, similarly to the side plate 110, can be fitted. The bent portion 140 may be formed integrally with the lower plate 120 .

And at one end of the side plate 110 and both ends of the lower plate 120, that is, at the end corresponding to the connection part of the side plate 110 and the lower plate 120, which are coupled to form the pouring space, in a 'C' shape. The bent first coupling part 111 and the second coupling part 121 may be respectively formed at one end of the side plate 110 and both ends of the lower plate 120 in the inner direction of the pouring space.

For example, a 'C'-shaped first coupling part 111 that can be formed at one end of the side plate 110 and a 'C'-shaped second coupling part that can be formed on both ends of the lower plate 120 . (121) can be coupled by being fitted to overlap each other.

To this end, the bent inner surface of the first coupling part 111 is made to have the same size as or smaller than the bent outer surface of the second coupling part 121, so that the first coupling part 111 is attached to the bent outer surface. The second coupling part 121 fitted to overlap may be prevented from being easily removed.

At this time, the fitting position of the first coupling part 111 and the second coupling part 121 is the second coupling part 121 on the bent inner surface of the first coupling part 111 as described above. ) is not limited to being fitted, and the bent outer surface of the first coupling part 111 may be fitted to the bent inner surface of the second coupling part 121 . .

In addition, in order to strengthen the bonding force between the first coupling part 111 and the second coupling part 121, spot welding is performed on one side overlapping each other, or coupling members such as bolts or rivets are used at regular intervals to strengthen the coupling force. may do it

And the outer surface of the first coupling part 111 or the second coupling part 121 of the side plate 110 and the lower plate 120 coupled as described above is the stirrup 200 provided inside the pouring space. By supporting the lower ends of both sides, the stirrup 200 can serve to be stably provided.

Next, the detailed structure of the deck panel 100 made of a demolding structure will be described.

According to an embodiment of the present invention, the deck panel 100 made of a demolding structure is, as shown in FIGS. 2a and 2b, side plates 110 and forming both sides of the pouring space so that the pouring space can be formed. A lower plate 120 forming the lower surface of the pouring space, and a corner plate 130 connecting the side plate 110 and the lower plate 120 may be formed.

In this case, the side plate 110 and the lower plate 120 may be formed by a combination of a plurality of panel modules 150 rather than being formed as a single unit.

The panel module 150 is formed with a bent portion 140 bent in a 'L' shape at both ends, and the bent portion 140 may be disposed to face the inner direction of the pouring space. of the panel module 150 is continuously arranged so that the adjacent bent portions 140 overlap each other, thereby forming the side plate 110 forming both sides of the pouring space and the lower plate 120 forming the lower surface of the pouring space. can be made to form.

As described above, the corner plate 130 is to connect the side plate 110 and the lower plate 120 made of a combination of the plurality of panel modules 150 to form a complete pouring space.

The edge plate 130 is formed with a 'L'-shaped bent part 140, both ends of which are bent in the inner direction of the pouring space, in the same way as the panel module 150, and one side is bent vertically to make the The side plate 110 and the lower plate 120 may be formed in a shape corresponding to an edge to which they are coupled.

And the bent portions 140 formed at both ends of the edge plate 130 are coupled to overlap the bent portions 140 formed at one end of the side plate 110 and the lower plate 120, respectively, so that the side plate 110 ) and the lower plate 120 can be connected.

In this way, the side plate 110 and the lower plate 120 made of a combination of a plurality of the panel modules 150, and the edge plate 130 connecting the side plate 110 and the lower plate 120 are respectively overlapped. By fitting the spacer 300 coupled to the inner surface of the deck panel 100 to the bent portion 140, it is possible to maintain a fixed state without being separated from each other.

In the case of the conventional demolding beam deck plate, when the concrete poured inside is cured and then removed, the volume to be removed is large and the weight is increased accordingly, so it takes a lot of time to remove it, and the worker due to the drop of the weight There were many problems such as injuries and complaints due to loud noise.

However, the deck panel 100 of the above structure corresponding to the demolding structure in the beam deck plate installation structure of the present invention can separate the assembled panel module 150 one by one, so the burden on the weight It is possible to guarantee the safety of the workers and to prevent the occurrence of civil complaints by minimizing the generation of noise.

In addition, by sequentially separating and removing the modularized panel module 150, the effect of improving workability by increasing safety and efficiency of work can be expected.

As described above, the spacer 300 is coupled to the inner surface of the deck panel 100, which may have a slope-type structure or a demo-type structure, so that the stirrup 200 can be fixedly supported on the deck panel 100. As shown in FIG. 3 , the bent part ( 140) may have a structure including a fitting groove 330 into which the fitting is fitted, and may include a support member 340 for preventing the bent portion 140 coupled to the fitting groove 330 from being separated. can

According to an embodiment of the present invention, the main body 310 may be manufactured by casting or injection molding, and may be made of a metal material, but is not limited thereto and is made of plastic in order to minimize the burden of weight and manufacturing cost. It is preferably made of a synthetic resin such as

The body 310 may be formed by inserting the coupling part 320 into the inside of the body 310 during the manufacturing process.

The coupling part 320 may be a 'L'-shaped steel made of a metal having a 'L' shape in cross section or a 'T'-shaped steel made of a metal having a 'T' shape, and the body 310 is It is provided in the interior of the, one side may be provided so as to protrude to the outside of the main body (310).

At this time, a coupling groove 321 to which the stirrup 200 is coupled may be formed at one side of the protrusion of the coupling part 320 protruding to the outside of the main body 310 .

In addition, the surface coupled to the inner surface of the deck panel 100 in the main body 310 may be formed in the inner direction of the main body 310, and 'a' formed in the deck panel 100 A fitting groove 330 formed in a 'L' shape may be formed so that the curved portion 140 having the shape of a corresponding one can be fitted.

At this time, the fitting groove 330 may be formed with a space in which the 'L'-shaped bent part 140 can be smoothly fitted. After being completely fitted, the support member 340 is placed in the space so that the support member 340 is closely adhered to the rear surface of the bent part 140 and supported, so that the bent part is fitted into the fitting groove 330 . By preventing the part 140 from falling out, it is possible to strengthen the binding force between the spacer 300 and the deck panel 100 so that it can be firmly fixed.

The support member 340 may be inserted through one side of the main body 310 to facilitate attachment and detachment so that coupling and separation of the deck panel 100 and the spacer 300 can be made simply. can

To this end, a through groove 311 through which the support member 340 is penetrated and inserted into the rear of the fitting groove 330 may be formed in one side of the main body 310 .

In addition, when the coupling part 320 is made of 'T'-shaped steel, the support member 340 can be smoothly inserted into the body 310 at a portion positioned to be inserted into the body 310 . A cut-out groove may be formed in a portion corresponding to the portion in which the through-groove 311 is formed.

As described above, a series of processes in which the deck panel 100 and the stirrup 200 are coupled to the spacer 300 may be more easily understood with reference to FIG. 4 .

According to an embodiment of the present invention, the coupling groove 321 formed in the coupling portion 320 of the spacer 300 is such that one side of the stirrup 200 is coupled, so that the stirrup 200 is fixed without being separated. As shown in FIG. 5 , a welding operation may be performed on one side of the stirrup 200 positioned to be in close contact with the coupling groove 321 and the coupling groove 321, but the stirrup (200) or to prevent thermal deformation from occurring in the coupling portion 320 of the spacer 300, and to respond immediately even when damage occurs due to external force, using the binding sphere 400 to facilitate supplementation. The stirrup 200 may be fixed without being separated from the spacer 300 .

For example, the binding sphere 400 is not directly fixed by welding the stirrup 200 to the spacer 300, but as shown in FIGS. 6 to 8, a wire 400a type or binding clip ( 400b) type, so that the work of fixing the stirrup 200 to the spacer 300 can be performed simply and easily, thereby shortening the air and constructability can improve

According to an embodiment of the present invention, as shown in FIG. 6 , the wire 400a-type binding sphere 400 has the stirrup 200 positioned at the coupling part 320 of the spacer 300 . The stirrup 200 and the spacer 300 are fixedly bound to each other through the wire 400a by wrapping one side of the stirrup 200 in order to prevent it from being separated from the predetermined position.

At this time, at one side of the coupling part 320, the wire 400a is provided so that the binding hole 400 made of the wire 400a does not loosen or fall out in a state in which the stirrup 200 and the spacer 300 are bound. A wire groove 322 to be fixed may be formed.

For example, a pair that is formed in the coupling part 320 and is symmetrical to each other on both sides based on the coupling groove 321 to which the stirrup 200 is coupled and can be cut in the central axis direction of the coupling part 320 . of the wire groove 322 may be formed.

At this time, the wire groove 322 may be formed to be orthogonal to the central axis direction of the coupling part 320, but the coupling groove 321 direction so that the wire 400a can be stably fixed without falling out. It is preferable to be formed in a diagonal direction toward the

According to an embodiment of the present invention, the stirrup 200 coupled to the coupling groove 321 is the same as the wire 400a type binding sphere 400 of the binding clip 400b type binding sphere 400 . ) to prevent deviation from the designated position, as shown in FIGS. 7 and 8, may be formed in a 'U' shape.

In more detail, the binding clip 400b type binding sphere 400 may be formed in a 'U' shape, for example, a horseshoe shape, and the coupling groove 321 in the central portion of the binding clip 400b. ) may be fitted and coupled to the coupling portion 320 of the spacer 300 so that the stirrup 200 coupled to it may be positioned.

At this time, the binding clip (400b) is preferably made of a double structure in which one side is bent so that the upper surface (400b-1) and the lower surface (400b-2) can be symmetrical to each other, and the upper surface ( 400b-1) and the lower surface 400b-2 may be coupled so that the coupling part 320 is fitted.

At this time, on one side of any one of the upper surface 400b-1 or the lower surface 400b-2 of the binding clip 400b, the binding clip 400b that can be bound to the coupling part 320 is easily removed. A binding pin (400b-3) that can prevent this may be further formed, and in response to this, a binding groove (400b-3) is coupled to one side of the coupling part 320 to be fitted. 323) may be further formed.

The beam deck plate installation structure having the structure as described above is a deck panel 100 to form a pouring space in which concrete is poured and a spacer 300 coupled to the inner surface of the deck panel 100, and the pouring space Stirrups 200 provided on the inside and fixed and supported by the spacer 300 are linked to each other and can exert the necessary strength to create a beam only with a simple operation, while ensuring the safety of the operator and improving the work efficiency It can cause the effect of maximizing the constructability.

In addition, one side of the deck panel 100 is reinforced to prevent deformation such that the deck panel 100 is bent or deformed by the pressure generated by the concrete being poured into the pouring space or the pressure acting from the outside. By making the plate 500 more provided, it is possible to further strengthen the stability of the beam deck plate.

As described above, preferred embodiments according to the present invention have been described, and the fact that the present invention can be embodied in other specific forms without departing from the spirit or scope of the present invention in addition to the above-described embodiments is a matter of ordinary skill in the art. It is obvious to them. Therefore, the above-described embodiments are to be regarded as illustrative rather than restrictive, and accordingly, the present invention is not limited to the above description and may be modified within the scope of the appended claims and their equivalents.

100: deck panel 110: side plate
111: first coupling part 120: lower plate
121: second coupling part 130: edge plate
140: bent part 150: panel module
200: stirrup 300: spacer
310: body 311: through groove
320: coupling part 321: coupling groove
322: wire groove 323: binding groove
330: fitting groove 340: support member
400: binding sphere 400a: wire
400b: binding clip 400b-1: upper surface
400b-2: lower surface 400b-3: binding pin
500: reinforcement plate

Claims (11)

a deck panel in which a space for pouring concrete is formed therein;
A plurality of stirrups spaced at equal intervals from each other in the pouring space of the deck panel and continuously provided along the longitudinal direction of the pouring space, and formed in a 'U'shape;
A plurality of spacers having one side coupled to the inner surface of the deck panel, and a coupling groove to which the stirrup is coupled to the other side is formed so that the stirrup is fixed and supported on the deck panel; and
a binding sphere for fixing and supporting the stirrup coupled to the spacer;
includes,
The deck panel is
A side plate having a first coupling part that forms a side surface of the pouring space and is bent in a 'L' shape in the inner direction of the pouring space so that the spacer is fitted, and has a first coupling part bent in a 'C' shape at one end ; and
A lower plate forming a lower surface of the pouring space and integrally formed with a plurality of bent portions bent in an 'L' shape in the inner direction of the pouring space so that the spacer is fitted and coupled, and both ends of the lower plate having a second coupling part bent in a 'C'shape;
including,
The side plate and the lower plate are fitted so that the second coupling part overlaps the first coupling part,
The spacer is
main body;
a coupling part provided inside the body, one side protruding to the outside of the body, and a coupling groove formed on the protruding side to which the stirrup is coupled; and
a fitting groove formed on one side of the body and formed in a 'L' shape so that the bent part is fitted;
including,
The spacer is
a support member for supporting the bent portion in close contact with the rear surface of the bent portion to prevent the bent portion coupled to the fitting groove from being separated;
Beam deck plate installation structure further comprising.
a deck panel in which a space for pouring concrete is formed therein;
A plurality of stirrups spaced at equal intervals from each other in the pouring space of the deck panel and continuously provided along the longitudinal direction of the pouring space, and formed in a 'U'shape;
A plurality of spacers having one side coupled to the inner surface of the deck panel, and a coupling groove to which the stirrup is coupled to the other side is formed so that the stirrup is fixed and supported on the deck panel; and
a binding sphere for fixing and supporting the stirrup coupled to the spacer;
includes,
The deck panel is
a side plate having a plurality of panel modules in which both ends are formed with bent portions bent in an 'a' shape in the inner direction of the pouring space, and the adjacent bent portions are coupled to overlap each other to form a side surface of the pouring space;
a lower plate in which a plurality of panel modules having bent portions bent in an 'L' shape at both ends in an inner direction are continuously arranged and the adjacent bent portions are combined to overlap each other to form a lower surface of the pouring space; and
A bent portion is formed in which both ends are bent in the inner direction of the pouring space, one side is bent vertically, and the bent portions formed at both ends overlap the bent portions formed at one end of the side plate and the lower plate, respectively, so that the side plate and a corner plate connecting the lower plate;
including,
The spacer is
main body;
a coupling part provided inside the body, one side protruding to the outside of the body, and a coupling groove formed on the protruding side to which the stirrup is coupled; and
a fitting groove formed on one side of the body and formed in a 'L' shape so that the bent part is fitted;
including,
The spacer is
a support member for supporting the bent portion in close contact with the rear surface of the bent portion to prevent the bent portion coupled to the fitting groove from being separated;
Beam deck plate installation structure further comprising a.
delete delete 3. The method of claim 1 or 2,
On one side of the body,
a through hole through which the support member penetrates the main body and is detachably inserted into the rear of the fitting groove;
Beam deck plate installation structure further comprising.
3. The method of claim 1 or 2,
The binding sphere is
A beam deck plate installation structure comprising a wire bound to surround one side of the stirrup to prevent separation of the stirrup coupled to the coupling groove.
7. The method of claim 6,
On one side of the coupling part,
a wire groove to which the binding sphere made of the wire is fixed;
Beam deck plate installation structure further comprising.
3. The method of claim 1 or 2,
The binding sphere is
A beam deck plate installation structure comprising a binding clip fitted to surround one side of the stirrup to prevent separation of the stirrup coupled to the coupling groove.
9. The method of claim 8,
The binding clip is
It is made of a double structure in which one side is bent so that the upper and lower surfaces are symmetrical to each other, and is formed in a 'U' shape so that the stirrup is positioned at the center of the binding clip and at the same time, through the space between the upper and lower surfaces, the coupling part is A beam deck plate installation structure that is fitted to fix and support the stirrup.
10. The method of claim 9,
a binding pin to which the binding clip is fixed by being bound to the coupling part on one side of any one of the upper and lower surfaces;
further comprising,
a binding groove corresponding to the binding pin at one side of the coupling part so that the binding clip is fixed;
Beam deck plate installation structure further comprising.
3. The method of claim 1 or 2,
The deck panel is
a reinforcing plate for preventing the concrete being poured into the pouring space from being deformed by pressure or external force;
Beam deck plate installation structure further comprising.

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