KR102502043B1 - Building structure using bracket module and construction method using thereof - Google Patents

Abstract

The present invention relates to a building structure using a bracket module and a construction method using the same.
A building structure using a bracket module according to an example of the present invention includes a first bracket having both ends fixed to a building and positioned in contact with a wind beam extending in a horizontal direction; A second horizontal extension part having a width in a horizontal direction and extending in a thickness direction and a vertical extension part having a width in a horizontal direction and extending in a vertical direction from the horizontal extension part, the horizontal extension part being connected above the first bracket. Brackets; and a third bracket, one end of which is connected to the vertical extension of the second bracket, and the other end of which is fixed the supporting hardware of the large block unit to which a plurality of exterior building panels are fixed. direction, the thickness direction, and the position movement in the vertical direction is possible.

Description

Building structure using bracket module and construction method using the same {Building structure using bracket module and construction method using its}

The present invention relates to a building structure using a bracket module and a construction method using the same.

In general, in order to decorate the outer wall of a building, decorative panels are often finished in the form of a curtain wall.

Recently, granite or marble, etc., has been processed and used as a decorative panel in the shape of a square flat plate.

There are wet method and dry method for constructing these decorative panels. Among them, the wet method is a method of applying cement mortar to the outer wall of the building and the back of the panel, respectively, and directly constructing the panel on the outer wall of the building. Due to the fact that it takes a lot of time for curing and the safety accident occurs when the panel falls from the outer wall of the building, the dry method has recently been used a lot.

Most of the dry method is to install a support frame for constructing a panel on the outer wall of the building, and fix the support frame and the panel directly with bolts.

However, when the decorative panel and the support frame are fixed to the outer wall of the building by bolting, the bolt protrudes to the outside, which can damage the aesthetic appearance, and the decorative panel and the support frame must be fixed by bolting one by one, making it difficult to work. .

However, plate structures made of stone or metal are difficult to handle due to their heavy self-load, and must be constructed outside the building where the walls are completed, so in the case of a high-rise building, it entails long-term high-altitude work.

Moreover, the fixture for fixing the plate structure to the wall of the building represents a simple structure in which the plate structure is then fixed with bolts and nuts after being pre-fixed to the anchor bolts on the wall, such as the wall and the plate structure. Since bolts and nuts are fastened in the narrow space between them, the work is difficult, and once constructed, partial repair or replacement is impossible unless the entire outer wall is removed.

In particular, recently, in order to simplify construction, a method of forming a plurality of exterior panels on the exterior wall of a building using a large block unit formed by attaching a plurality of exterior panels to a frame unit in advance has been researched instead of forming one by one on the exterior wall of the building to simplify construction. in progress

However, such a large block unit is approximately large and heavy, so when installed in a building, construction errors of the supporting hardware itself forming the large block unit and construction errors of the wind beam installed in the building to fix the large block unit Due to this, it is difficult to construct.

An object of the present invention is to provide a construction structure using a bracket module that can make construction easier and a construction method using the same.

A building structure using a bracket module according to an example of the present invention includes a first bracket having both ends fixed to a building and positioned in contact with a wind beam extending in a horizontal direction; A second horizontal extension part having a width in a horizontal direction and extending in a thickness direction and a vertical extension part having a width in a horizontal direction and extending in a vertical direction from the horizontal extension part, the horizontal extension part being connected above the first bracket. Brackets; and a third bracket, one end of which is connected to the vertical extension of the second bracket, and the other end of which is fixed the supporting hardware of the large block unit to which a plurality of exterior building panels are fixed. direction, the thickness direction, and the position movement in the vertical direction is possible.

The other end of the third bracket may be provided with a receiving groove recessed in the thickness direction, and a spaced hole having a width in the thickness direction and penetrating in the vertical direction may be provided between one end of the third bracket and the receiving groove. there is.

In a first specific embodiment, the first bracket includes a first bracket through-hole extending long in the horizontal direction, and the second bracket has a second horizontal surface through-hole extending long in the thickness direction in the horizontal extension part. and a second vertical surface through-hole extending in the vertical direction on the vertical extension part, and the first and second brackets are connected to each other by a connecting member passing through the first bracket through-hole and the second horizontal surface through-hole. The second and third brackets may be coupled to each other by a connecting member passing through the through hole of the second vertical surface and fixed to the third bracket.

Here, the second bracket is movable in the horizontal direction along the first bracket through hole and movable in the thickness direction along the second horizontal plane through hole, and the third bracket is movable in the second vertical plane through hole. It can move in the vertical direction along.

The first bracket through-hole and the second horizontal plane through-hole may overlap and cross each other.

In a second embodiment, the first bracket includes a first lower bracket portion and a first upper bracket portion positioned above the first lower bracket portion, wherein the first upper bracket portion extends in the horizontal direction. The second bracket has a second gear through-hole extending long in the thickness direction on the horizontal extension part and a second vertical plane through-hole extending long in the vertical direction on the vertical extension part. A first gear groove is provided on an inner surface of the first gear through hole, and a first gear fixed to the first lower bracket part is engaged with the first gear groove to pass through the first gear through hole. , A second gear groove is provided on an inner surface of the second gear through hole, and a second gear fixed to the first upper bracket part is engaged with the second gear groove to pass through the second gear through hole.

As the first gear rotates, the first upper bracket portion and the second bracket may move in the horizontal direction, and as the second gear rotates, the second bracket may move in the thickness direction.

In a third embodiment, a first gear groove arranged in the horizontal direction and a second gear groove arranged in the thickness direction are provided on a lower surface of the horizontal extension part provided in the second bracket, and the second bracket A third gear groove arranged in the vertical direction is provided on an outer surface of the vertical extension part, and a first gear engaged with the first gear groove and a first gear groove engaged with the second gear groove are provided at the bottom of the second bracket. Two gears may be fixed to the first bracket, and a third gear meshing with the third gear groove may be fixed to the third bracket on an outer surface of the second bracket.

As the first gear rotates, the second bracket moves in the horizontal direction, as the second gear rotates, the second bracket moves in the thickness direction, and as the third gear rotates, the second bracket moves in the thickness direction. 3 The bracket is movable in the vertical direction.

The wind beam may have a recessed groove that opens upward, and a portion of the first bracket may be inserted into and fixed to the recessed groove of the wind beam.

The plurality of supporting hardware provided in the large block unit includes a first supporting hardware extending in the vertical direction and a second supporting hardware that is bolted to a side surface of the first supporting hardware and extends in the horizontal direction, 1 The lower leg hardware may be inserted into the receiving groove of the third bracket and coupled thereto.

In addition, in the construction method using a building structure according to an example of the present invention, a plurality of underlying hardware is placed on a surface plate used as a pedestal, and the plurality of underlying hardware is assembled and combined using a connecting member on the surface plate. step; A large block unit forming step of combining a plurality of building exterior panels on the plurality of supporting hardware; A mounting step of fixing the large block unit to a bracket module pre-fixed to a wind beam installed in a building; and a fine adjustment step of finely adjusting the large block unit by moving the large block unit in at least one of a horizontal direction, a vertical direction, and a thickness direction using the bracket module in a state in which the large block unit is fixed to the bracket module. include

Here, the bracket module may include a first bracket coupled to and fixed to the wind beam before the mounting step; A horizontal extension having a width in a horizontal direction and extending in a thickness direction and a vertical extension having a width in the horizontal direction and extending in a vertical direction from an end of the horizontal extension, the horizontal extension being connected on a first bracket, a second bracket movable in the horizontal direction and the thickness direction; and a third bracket, one end of which is connected to the vertical extension of the second bracket and capable of moving in the vertical direction, wherein the other end of the third bracket has a receiving groove recessed in the thickness direction, A spaced hole having a width in the thickness direction and penetrating in the vertical direction is provided between one end of the third bracket and the receiving groove, and in the mounting step, the supporting hardware of the large block unit is placed in the receiving groove of the third bracket. It can be inserted and fixed.

In the fine adjustment step, in a state in which the first bracket is fixed to the wind beam and the large block unit is fixed to the third bracket, the second bracket is moved in the horizontal direction or the thickness direction for fine adjustment, or The third bracket may be finely adjusted by moving in the vertical direction.

After the fine adjustment step, a fixing step of fixing the first, second, and third bracket modules provided in the bracket module so as not to move; may be further included.

A building structure using a bracket module and a construction method using the same according to an example of the present invention provides a bracket module in which each part can be finely adjusted by moving each part in a horizontal direction, a vertical direction, and a thickness direction, so that a plurality of exterior building panels are combined. When constructing a large block unit as an outer wall of a building, construction can be made easier.

1 is a diagram for explaining a concept of forming an outer wall of a building using a large block unit in which a plurality of building exterior panels are combined according to an example of the present invention.
2 is a diagram for explaining a construction method using a building structure according to an example of the present invention.
FIG. 3 is a diagram for explaining an example of a surface plate used in the step of arranging the underlying hardware in FIG. 2, FIG. 4 illustrates an example in which a plurality of underlying hardware is disposed on the surface plate shown in FIG. 2, and FIG. In order to improve the construction error of the underlying hardware, it shows an example of cutting the underlying hardware, and FIG. is for
7 is a diagram for explaining an example of assembling and combining a plurality of underlying hardware on a surface plate, and FIG. 8 is a diagram for explaining a large block unit formation step of combining a plurality of building exterior panels on a plurality of supporting hardware coupled to each other. It is also
9 to 11 are views for explaining a first embodiment of a bracket module used in a mounting step, a fine adjustment step, and a fixing step according to an example of the present invention.
12 to 14 are views for explaining a bracket module according to a second embodiment of the present invention.
15 is a diagram for explaining a bracket module according to a third embodiment of the present invention.
16 and 17 are views for explaining a bracket module according to a fourth embodiment of the present invention.
18 is a diagram for explaining a bracket module 600 according to a fifth embodiment of the present invention.
19 to 22 are views for explaining a bracket module according to a sixth embodiment of the present invention.
Fig. 23 is a diagram for explaining a modified example of the sixth embodiment of the present invention.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings. In describing the present invention, if it is determined that adding a detailed description of a technology or configuration already known in the related field may obscure the gist of the present invention, some of them will be omitted from the detailed description. In addition, the terms used in this specification are terms used to properly express the embodiments of the present invention, which may vary depending on people or customs related to the field. Therefore, definitions of these terms will have to be made based on the content throughout this specification.

The terminology used herein is intended only to refer to specific embodiments and is not intended to limit the present invention. As used herein, the singular forms also include the plural forms unless the phrases clearly indicate the opposite. As used herein, the meaning of 'comprising' specifies specific characteristics, regions, integers, steps, operations, elements and/or components, and other specific characteristics, regions, integers, steps, operations, elements, components and/or groups. does not exclude the presence or addition of

In addition, hereinafter, the meaning that the thickness, width, or length of a certain component is the same means that the thickness, width, or length of a first component is compared with the thickness, width, or length of a different second component in consideration of process errors. So, it means the case in the error range of 10%.

In addition, in the following, the horizontal direction, the vertical direction, and the thickness direction are defined as the horizontal direction and the thickness direction, and the direction crossing the ground is defined as the vertical direction with respect to the ground, and the horizontal direction is a plurality of building exterior panels The direction extending along the longitudinal direction of the wind beam means a direction, and the thickness direction means a direction extending toward the front side or rear side of the exterior panel on a horizontal plane parallel to the ground.

Hereinafter, the present invention will be described with reference to the accompanying drawings.

1 is a diagram for explaining the concept of forming an outer wall of a building using a large block unit 100 to which a plurality of building exterior panels 60 are coupled according to an example of the present invention.

As shown in FIG. 1, the construction structure using the bracket module 200 according to an example of the present invention can be used when forming the outer wall of a building or the exterior of a building using the large block unit 100. .

To this end, a wind beam 11 to which the large block unit 100 is mounted and fixed may be previously installed in the building, and the wind beam 11 may be fixed to the building. Here, as an example, the wind beam 11 may be fixed to a pillar 10 forming a building. Such a wind beam 11 may be formed of a steel material and may have an H-beam or I-beam shape.

The large block unit 100 may be formed by fixing a plurality of building exterior panels 60 to a plurality of supporting hardware 50, and has a size of 6m to 8m in the vertical direction (y) and a horizontal direction (x ) with a length of 9m to 11m, and a weight of 2 ton to 5 ton.

Such a large block unit 100 is very large and heavy, so when installed in a building, the construction error of the supporting hardware 50 itself forming the large block unit 100 and the wind installed in the building to fix the large block unit 100 Although it is difficult to construct due to the construction error of the beam 11, the present invention fixes the large block unit 100 and uses the finely adjustable bracket module 200 to build the large block unit 100. By constructing on, it is possible to solve the problem of construction error as described above and to make construction much easier.

For example, in the conventional case, when constructing the large block unit 100 in a building, a connection called a fastener connecting the wind beam 11 and the large block unit 100 to fix the large block unit 100. The fastener connected to the wind beam 11 and the fastener connected to the large block unit 100 were bolted together using a member to fix the large block unit 100.

However, due to construction errors as described above, when fixing the large block unit 100 to the wind beam 11, in a state where the large block unit 100 is supported by the crane 12, numerous bolts are used. By repeating the process of loosening and fixing again, there was a problem that the construction time was very long, and when the construction error was out of the expected range, there was a limit to substantially adjusting the position of the large block unit.

However, in the case of the present invention, after fixing the large block unit 100 to the bracket module 200 in a state where the bracket module 200 is fixed to the wind beam 11, each part of the bracket module 200 is horizontally By moving and fine-tuning in the direction (x), vertical direction (y) and thickness direction (z), even if the construction error exceeds the range of expected error of normal level, using the bracket module 200, the large block unit It is possible to sufficiently cover the construction error for the position of (100), so that construction can be easily and simplified, and construction time can be saved more.

2 is a diagram for explaining a construction method using a building structure according to an example of the present invention.

FIG. 3 is a diagram for explaining an example of a surface plate 30 used in the step of arranging the underlying hardware (S1) in FIG. 2, and FIG. 4 is a plurality of underlying hardware 50 on the surface plate 30 shown in FIG. An example of this arrangement is shown, and FIG. 5 shows an example of cutting the underlying hardware 50 in order to improve the construction error of the underlying hardware 50, and FIG. 6 shows a construction error of the underlying hardware 50. It is a view for explaining an example of drilling a hole where a connecting member is to be coupled to the lower hardware 50 in order to improve.

7 is a view for explaining an example of assembling and combining a plurality of supporting hardware 50 on a surface plate 30, and FIG. 8 shows a plurality of building exterior panels 60 on a plurality of supporting hardware 50 coupled to each other. It is a diagram for explaining the large block unit forming step (S2) of combining.

9 to 11 are views for explaining the first embodiment of the bracket module 200 used in the mounting step (S3), the fine adjustment step (S4) and the fixing step (S5) according to an example of the present invention. .

As shown in FIG. 2, the construction method using the building structure according to an example of the present invention includes a base hardware arrangement step (S1), a large block unit formation step (S2), a mounting step (S3), and a fine adjustment step (S4). and a fixing step (S5).

In the lowering hardware arranging step (S1), a plurality of lowering hardware 50 may be placed on the surface plate 30 used as a pedestal.

Here, the surface plate 30 means a pedestal for forming the large block unit 100, and as an example, as shown in FIG. A first direction bar 31 and a plurality of second direction bars 32 extending in a second direction crossing the first direction may be included. For example, the first direction bar 31 and the second direction bar 32 may be assembled by being welded or bolted together, and the first direction bar 31 and the second direction bar 32 are connected to each other. and can form a rectangular or square structure.

Here, among the first direction bars 31 of the surface plate 30, the first direction bars 31 located outside both edges may use H-beams or I-beams, and may be used with the rest of the first direction bars 31 and the second direction bars 31. The 2 direction bars 32 may be used in square tubes.

As shown in FIG. 4 on such a surface plate 30, a plurality of supporting hardware 50 for supporting the large block unit 100 may be formed. Here, when the plurality of supporting hardware 50 is formed on the outer wall of the building, the first supporting hardware 51 extending in the direction (y) perpendicular to the ground and the side of the first supporting hardware 51 are bolted together It may include a second supporting hardware 52 extending in a horizontal direction (x) parallel to the ground.

As shown in (a) and (b) of FIG. 3 , upper guide bars 33 and lower guides parallel to the second direction bars 32 are provided at both ends of the first direction bar 31 in the surface plate 30. A bar 34 may be provided, and the guide bar may guide the plurality of bottom hardware 50 positioned on the surface plate 30 to be precisely cut in length.

Here, the upper guide bar 33 may be fixed to both ends of the first direction bar 31, and both ends of the lower guide bar 34 include unit fixing fasteners 35 and lower guide bar 34. A movable fixing clip 36 guiding the position to be moved along the longitudinal direction of the first direction bar 31 may be provided.

Here, the fastener 35 for fixing the unit may include a first surface and a second surface that is bent and extended in a direction crossing the first surface. The first surface may be welded to both ends, and the end of the second surface may be inserted between the movable fixing clip 36 and the first direction bar 31.

The movable fixing clip 36 has an accommodating groove, and a part of the first direction bar 31 and the second surface of the fastener 35 for fixing the unit can be accommodated in the accommodating groove. Such a movable fixing clip 36 is movable along the length direction of the first direction bar 31 and can be used as a reference bar to cut the length of the first lower leg hardware 51 .

In addition, on the plurality of second direction bars 32, as shown in (c) of FIG. 3, position fixing members 35 for fixing the positions of the plurality of supporting hardware 50 may be positioned.

For example, as shown in FIG. 5 , when at least one of the plurality of first hardware 51 is prepared to be long, the first hardware 51 is cut based on the lower guide bar 34. It can be.

After a partial length 51C of the first hardware 51 is cut, a hole 50H for coupling the second hardware 52 to a position set based on either end of the first hardware 51 This can be perforated. For example, in order to fundamentally eliminate errors during construction, the hole punching position 50H may be set based on the lower end located on the lower guide bar 34 side of the first supporting hardware 51.

Accordingly, it is possible to more accurately set the position of the second hardware hardware 52 coupled between the first hardware hardware 51, and accordingly, the plurality of exterior panels 60 coupled on the plurality of hardware hardware 50 ) can be accurately set.

More specifically, as shown in (a) and (b) of FIG. 7 , the second supporting hardware 52 is connected to the connecting member 53, 54) can be assembled and combined. For example, the second hardware hardware 52 may be bolt-coupled (53, 54) at a hole-perforated position of the first hardware hardware 51.

Here, if the length of the second hardware 52 is relatively short, as shown in FIG. It is also possible to assemble to the base hardware 51.

In the large block unit forming step (S2), after the first supporting hardware 51 and the second supporting hardware 52 are assembled and coupled to each other, as shown in FIG. It is possible to form a large block unit 100 by combining the building exterior panels 60 of the.

At this time, the plurality of building exterior panels 60 may also be bolted to the plurality of underlying hardware 50, and the plurality of building exterior panels 60 may have protrusions and protrusions in a horizontal direction (x) or a vertical direction (y). With the recessed portion, the protruding portion of another exterior panel 60 may be inserted into the recessed portion of one exterior panel 60 .

As an example, FIG. 8 shows that a plurality of exterior panels 60 are installed in a row along the longitudinal direction of the first hardware 51, but unlike this, the first hardware 51 is installed on the second lower body. It may be additionally installed in the longitudinal direction of the hardware 52, and a plurality of exterior panels 60 may be further coupled into a plurality of rows along the longitudinal direction of the second supporting hardware 52, and the exterior combined into a plurality of columns. It is also possible that the panel 60 is coupled and fixed along the longitudinal direction of the first supporting hardware.

In this way, after the large block unit 100 is formed, in the mounting step (S3), as shown in FIGS. 9 and 10, the large block unit 100 is installed in the building and extends in the horizontal direction (x). It can be fixed to the bracket module 200 pre-fixed to the beam 11.

Here, the bracket module 200 may include, for example, a first bracket 210, a second bracket 220, and a third bracket 230, as shown in FIG. 9, and the bracket module 200 may be previously fixed to the wind beam 11 extending in the horizontal direction (x) prior to the mounting step (S3).

The first bracket 210 of the bracket module 200 may be fixed in advance with a connecting member such as a bolt in a state in contact with a desired position of the wind beam 11, and the second and third brackets 220 and 230 are The first bracket 210 may have a movable structure for fine adjustment in at least one of the horizontal direction (x), the thickness direction (z), and the vertical direction (y).

Such a bracket module 200 may be a modular structure in which a plurality of brackets are assembled and coupled, and each bracket module 200 may be preferably formed of a steel material, but may sufficiently support a load strength of several tons. If there is, it is also possible to include a plastic material or a carbon material having relatively low thermal conductivity.

In addition, even if the bracket module 200 is provided by assembling and combining a plurality of brackets, each bracket may be integrally formed. That is, while having a structure in which each of the first, second, and third brackets 210, 220, and 230 can move independently, it is also possible to be integrally formed.

Here, the wind beam 11 may extend in the horizontal direction (x), and the first bracket 210 may be located in contact with the wind beam 11 . Here, the wind beam 11 may be an H beam or an I beam, and when the H beam is used as the wind beam 11, the wind beam 11 may have a recessed groove that opens upward.

The first bracket 210 may come into contact with the recessed inner surface of the wind beam 11 in the thickness direction (z) and the horizontal direction (x) and be fixed by a connecting member such as a bolt. A surface extending in the thickness direction (z) may be provided at the top. However, the present invention is not necessarily limited thereto, and the first bracket may be provided to be movable along the horizontal direction (x), which is the longitudinal direction of the wind beam 11 .

In the mounting step (S3), the large block unit 100 may be fixed to the bracket module 200 while the bracket module 200 is fixed to the wind beam 11 as described above. At this time, the bracket module 200 may be fixed to the third bracket 230 by a connecting member.

To this end, the second bracket 220 has a width in the horizontal direction (x) and a horizontal extension part 220a extending in the thickness direction (z) on the top of the wind beam 11 and an end of the horizontal extension part 220a. has a vertical extension (220b) having a width in the horizontal direction (x) and extending in the vertical direction (y), and the horizontal extension (220a) is connected to the first bracket 210, but in the horizontal direction (x) And it may be movable in the thickness direction (z). That is, the position of the second bracket 220 may be movable in the horizontal direction (x) and the thickness direction (z) on the first bracket 210 .

One end of the third bracket 230 may be connected to the vertical extension 220b of the second bracket 220 and move in the vertical direction y. That is, the third bracket 230 may be movable in the vertical direction (y) on the first bracket 210 .

In addition, the third bracket 230 has an accommodating groove 230R whose other end is depressed in the thickness direction z, and between one end of the third bracket 230 and the accommodating groove 230R in the thickness direction z. A spaced hole 230D having a width and penetrating in the vertical direction (y) may be provided.

In the mounting step, the first supporting hardware 51 of the large block unit 100 is inserted into the receiving groove 230R, can be completely fixed by a connecting member such as a bolt, and has a width in the thickness direction z. The separation hole 230D may secure a space in which the large block unit 100 can be finely adjusted in the thickness direction z.

For example, if there is no separation hole 230D in the third bracket 230, there may be insufficient space between the wind beam 11 and the first supporting hardware 51, and thus, the large block unit 100 To fine-tune the construction error in the thickness direction (z), there may be limitations, but the present invention is provided with a spaced hole (230D), so that the large block unit 100 can be used even for construction errors exceeding the expected range. By fine-tuning in the thickness direction (z), the degree of freedom for construction error can be further increased.

In the fine adjustment step (S4), in a state where the large block unit 100 is fixed to the bracket module 200, the large block unit 100 is moved in the horizontal direction (x) and vertical direction (y) using the bracket module 200. ) and the thickness direction (z) can be moved in at least one direction for fine adjustment.

More specifically, in the fine adjustment step (S4), in a state where the first bracket 210 is fixed to the wind beam 11 and the large block unit 100 is fixed to the third bracket 230, the third bracket ( 230) may be moved in the horizontal direction (x), the thickness direction (z), and the vertical direction (y) for fine adjustment.

For example, in order to position the third bracket 230 in the horizontal direction (x), the thickness direction (z), and the vertical direction (y), the second bracket 220 is moved in the horizontal direction (x) or thickness direction (z). ), or the third bracket 230 may be moved in the vertical direction (y) for fine adjustment.

Accordingly, the portion to which the third bracket 230 is fixed in the large block unit 100 can be finely adjusted in the horizontal direction (x), the thickness direction (z), and the vertical direction (y).

In such a fine adjustment step (S4), since the large block unit 100 is already fixed to the bracket module 200 fixed to the wind beam 11, heavy equipment such as a crane is not required in the fine adjustment step unlike the prior art. The large block unit 100 is completely fixed to the bracket module 200 without the operator needing to repeatedly unlock and lock the connecting member connecting the large block unit 100 and the bracket module 200 to each other. Since only each bracket module constituting the bracket module needs to be fine-tuned in the state, the work is easy, the work time is shortened, and the cost can be reduced.

To this end, the first embodiment of the bracket module 200 according to the present invention shown in FIGS. 9 to 11 will be described in more detail as follows.

The first bracket 210 may have a structure in contact with the wind beam 11 installed in the horizontal direction (x) of the building, and has a first bracket through-hole 210H extending in the horizontal direction (x) at the top. can be provided The second bracket 220 includes a second horizontal surface through hole 220H1 extending long in the thickness direction z in the horizontal extension part and a second vertical surface through hole 220H2 extending long in the vertical direction y in the vertical extension part. can be provided.

Here, the first and second brackets 210 and 220 may be coupled to each other by a connecting member such as a bolt penetrating the first bracket through hole 210H and the second horizontal plane through hole 220H1, and the second vertical plane through hole 220H1 may be coupled to each other. The second and third brackets 220 and 230 may be coupled to each other by a connecting member that passes through the hole 220H2 and is fixed to the third bracket 230 . Here, the first bracket through-hole 210H and the second horizontal surface through-hole 220H1 may overlap and cross each other in different directions.

Accordingly, the second bracket 220 moves in the horizontal direction (x) along the first bracket through-hole 210H, moves in the thickness direction (z) along the second horizontal surface through-hole 220H1, and The bracket 230 may move in a vertical direction (y) along the second vertical surface through hole 220H2. Here, when the bracket module 200 is fine-tuned, a separate tool or tool may be used.

Accordingly, the present invention can fine-adjust the position of the large block unit 100 using the bracket module 200 in the fine-adjustment step (S4).

However, the first embodiment of the bracket module 200 shown in FIGS. 9 to 11 is an example, and the bracket module 200 according to the present invention may have various forms, and the bracket module 200 as such Various embodiments are described below in FIG. 12 .

After the fine adjustment step (S4), in the fixing step (S5), the first, second, and third brackets 210, 220, and 230 provided in the bracket module 200 may be fixed so as not to move. As a more specific example, in the fixing step (S5), the connecting member connecting the first and second brackets 210 and 220 and the connecting member connecting the second and third brackets 220 and 230 are completely rotated to secure the first bracket. The positions of the second and third brackets 220 and 230 on the 210 can be completely fixed.

The connecting member connecting the first bracket 210 to the wind beam 11 and the connecting member connecting the supporting hardware 50 of the large block unit 100 to the third bracket 230 are mounted in step S3. It may be in a completely fixed state, and may not be operated separately in the fixing step (S5).

As such, in the construction method using the bracket module 200 according to the present invention, the supporting hardware 50 of the large block unit 100 is inserted into the receiving groove 230R provided in the bracket module 200, and is fixed. In, the position of the large block unit 100 can be finely adjusted, so that construction can be performed more easily and safely.

So far, in explaining the construction method using the building structure according to an example of the present invention, the case where the bracket module 200 according to the first embodiment of the present invention is used has been described as an example.

However, the bracket module 200 according to the present invention is not necessarily limited to the first embodiment, and may be variously modified. Various examples of the bracket module 200 are described as follows.

12 to 14 are views for explaining the bracket module 300 according to the second embodiment of the present invention.

As shown in FIG. 12 , the bracket module 300 according to the second embodiment of the present invention may include first, second, and third brackets 310, 320, and 330.

Here, the first bracket 310 may be fixed to the wind beam 11, and the second bracket 320 has a width in the horizontal direction (x) and a horizontal extension part extending in the thickness direction (z) and a horizontal extension. A vertical extension portion having a width in the horizontal direction (x) and extending in the vertical direction (y) is provided at the end of the portion, and the horizontal extension portion is connected to the first bracket 210 in the horizontal direction (x) and thickness direction (z). can be a movement.

The third bracket 330 is connected to the vertical extension of the second bracket 320 and can move in the vertical direction (y). Such a third bracket 330 is a spaced hole having a width in the thickness direction (z) behind the receiving groove 330R and the receiving groove 330R into which the supporting hardware 50 of the large block unit 100 is inserted ( 330D) may be provided.

Here, the first bracket 310 may include a first lower bracket portion 310a and a first upper bracket portion 310b, and the first lower bracket portion 310a is H used as the wind beam 11. It can be fixed to the inside of the beam, and the first upper bracket portion 310b is located above the first lower bracket portion 310a and has a first gear through-hole 310GH extending in the horizontal direction (x). can

A first gear groove is provided on the inner surface of the first gear through hole 310GH, and the first gear G1 fixed to the first lower bracket portion 310a is engaged with the first gear groove to form the first gear through hole ( 310GH).

In addition, the first upper bracket portion 310b may have a first bracket through-hole passing through in common with the first lower bracket portion 310a, and a connecting member such as a bolt may be inserted into the first bracket through-hole. there is.

The second bracket 320 may have a second gear through-hole 320GH extending long in the thickness direction z on the horizontal extension part and a second vertical plane through-hole extending long in the vertical direction y on the vertical extension part. can

A second gear groove is provided on the inner surface of the second gear through hole 320GH, and the second gear G2 fixed to the first upper bracket portion 310b is engaged with the second gear groove to form a second gear through hole ( 320GH).

Accordingly, as the first gear G1 rotates, the first upper bracket portion 310b and the second bracket 320 move in the horizontal direction (x), and as the second gear G2 rotates, the second upper bracket portion 310b and the second bracket 320 move. Bracket 320 may be moved in the thickness direction (z).

The basic principle of the bracket module 300 according to the second embodiment of the present invention is as shown in FIGS. 13 and 14. The structures described in FIGS. 13 and 14 may be commonly applied to the first bracket 310 and the second bracket 320 .

Specifically, in FIG. 13, as shown in (a), the fixed guide member P1a is positioned on the lower substrate P1, and as shown in (b), the moving substrate P2 that is the object of positional movement on the lower substrate P1 ) can be located. The moving substrate P1 has a gear through hole GH extending long in the moving length direction, and a gear groove may be formed on an inner surface of the gear through hole GH.

In addition, as in (c) and (d), the gear may pass through the gear through hole (GH) and be fixed on the lower substrate (P1), and, as in (e), the cover (P3) covering the top of the moving substrate ) may be provided.

As such, as the gear G is rotated as shown in (a) to (c) of FIG. In a state in which the lower substrate P1 and the cover P3 are fixed, only the movable substrate P2 may be moved along the longitudinal direction of the gear through hole GH.

As such, in the bracket module 300 according to the second embodiment of the present invention, the first and second brackets 310 and 320 have the first and second gears G1 and G2 and the first and second gear through holes 310GH, 320GH), when the first upper bracket part 310b moves in the horizontal direction (x) as the first gear G1 rotates, the second bracket 220 also moves the second bracket 320 horizontally. It can be finely adjusted by moving in the direction (x), and as the second gear (G2) rotates, the second bracket 320 can be finely adjusted by moving in the thickness direction (z).

Accordingly, in the fine adjustment step (S4), in a state where the first bracket 310 of the bracket module 300 is fixed to the wind beam 11 and the large block unit 100 is fixed to the bracket module 300 , It is possible to fine-tune the position of the large block unit 100 more stably and easily.

15 is a diagram for explaining a bracket module 400 according to a third embodiment of the present invention.

As shown in FIG. 15 , the bracket module 400 according to the second embodiment of the present invention may include first, second, and third brackets 410, 420, and 430.

Here, the first bracket 410 may be fixed to the wind beam 11, and the second bracket 420 has a width in the horizontal direction (x) and a horizontal extension part extending in the thickness direction (z) and a horizontal extension. A vertical extension portion having a width in the horizontal direction (x) and extending in the vertical direction (y) is provided at the end of the portion, and the horizontal extension portion is connected to the first bracket 410 in the horizontal direction (x) and thickness direction (z). can be a movement.

The third bracket 430 is connected to the vertical extension of the second bracket 420 and can move in the vertical direction (y). Such a third bracket 430 is a spaced hole having a width in the thickness direction (z) behind the receiving groove 430R and the receiving groove 430R into which the supporting hardware 50 of the large block unit 100 is inserted ( 430D) may be provided.

Here, first gear grooves 420x arranged in the horizontal direction (x) and second gear grooves 420z arranged in the thickness direction (z) are provided on the lower surface of the horizontal extension provided in the second bracket 420. And, the outer surface of the vertical extension provided in the second bracket 420 may be provided with a third gear groove (420y) arranged in the vertical direction (y).

In addition, a first rolling gear R1 engaged in the first gear groove 420x and a second rolling gear R2 engaged in the second gear groove 420z are disposed below the second bracket 420. A third rolling gear R3 fixed to 410 and meshed with a third gear groove 420y on an outer surface of the second bracket 420 may be fixed to the third bracket 430 .

Accordingly, as shown in (b) of FIG. 15, as the first rolling gear (R1) rotates, the second bracket 420 moves in the horizontal direction (x), and as shown in (c) , As the second rolling gear R2 rotates, the second bracket 420 moves in the thickness direction z, and as the third rolling gear R3 rotates, the third bracket 420 moves in the thickness direction z, as shown in (d). 430 may move in the vertical direction (y).

Accordingly, in the fine adjustment step (S4), in a state in which the first bracket 410 of the bracket module 400 is fixed to the wind beam 11 and the large block unit 100 is fixed to the bracket module 400 , It is possible to fine-tune the position of the large block unit 100 more stably and easily.

16 and 17 are diagrams for explaining a bracket module 500 according to a fourth embodiment of the present invention.

As shown in FIG. 16 , the bracket module 500 according to the fourth embodiment of the present invention may include first, second, and third brackets 510, 520, and 530 and an auxiliary bracket Js.

Here, the first and second brackets 510 and 520 may be integrally provided. Specifically, in a state in which the first bracket 510 is not fixed to the wind beam 11 so as to be movable in the horizontal direction (x), the first bracket 510 surrounds the outer surface of the wind beam 11 and comes into contact therewith. can be located

The second bracket 520 is bent from the first bracket 510 and has a horizontal extension having a width in the horizontal direction (x) and extending in the thickness direction (z) and a width in the horizontal direction (x) at the end of the horizontal extension. A first vertical extension extending in the vertical direction (y) and a second vertical extension extending in the vertical direction (y) across the wind beam 11 may be provided.

The third bracket 530 is connected to the first vertical extension of the second bracket 520, and has an accommodation groove 530R and an accommodation groove 530R into which the supporting hardware 50 of the large block unit 100 is inserted. A spaced hole (530D) having a width in the thickness direction (z) may be provided at the rear of.

The auxiliary bracket (Js) is fixed in contact with the wind beam 11, and is spaced apart from the first bracket 510 in the horizontal direction (x), as shown in (a) of FIG. 17, and the auxiliary bracket (Js) and A first action (Jx) may be provided between the two brackets 520 to allow the second bracket 520 to move in the horizontal direction (x).

In addition, as shown in (b) to (d) of FIG. 17, between the second bracket 520 and the third bracket 530, the second step (Jz) for moving the third bracket 530 in the thickness direction (z) ) and a third action (Jy) for moving the third bracket 530 in the vertical direction (y) may be provided.

Accordingly, in the fine adjustment step (S5), by the first, second, and third sizes (Jx, Jy, and Jz), the bracket module 500 is configured in the horizontal direction (x), vertical direction (y), and thickness direction (z). ), and in a state where the first bracket 510 of the bracket module 500 is fixed to the wind beam 11 and the large block unit 100 is fixed to the bracket module 500, it is more stable and The position of the large block unit 100 can be easily finely adjusted.

18 is a diagram for explaining a bracket module 600 according to a fifth embodiment of the present invention.

As shown in FIG. 18 , the bracket module 600 according to the sixth embodiment of the present invention may include first, second, and third brackets 610, 620, and 630.

Here, the first bracket 610 may be fixed to the wind beam 11, and the second bracket 620 may include a second main bracket 620a and a second auxiliary bracket 620b.

The second main bracket 620a has a horizontal extension portion having a width in the horizontal direction (x) and extending in the thickness direction (z) and a width in the horizontal direction (x) and extending in the vertical direction (y) from an end of the horizontal extension portion. The second auxiliary bracket 620b may be coupled to the vertical extension of the second main bracket 620a by a connecting member such as a bolt and extend in the vertical direction y.

The third bracket 630 is connected to the vertical extension of the second auxiliary bracket 620b and can move in the vertical direction (y). Such a third bracket 630 is a spaced hole having a width in the thickness direction (z) behind the receiving groove 630R and the receiving groove 630R into which the supporting hardware 60 of the large block unit 100 is inserted ( 630D) may be provided.

As such, the bracket module 600 according to the fifth embodiment of the present invention has a structure in which the second bracket 620 can move on the first bracket 610 in the horizontal direction (x) and in the thickness direction (z). and may have a structure in which the third bracket 630 is movable in the vertical direction (y).

Accordingly, in the fine adjustment step (S6), in a state in which the first bracket 610 of the bracket module 600 is fixed to the wind beam 11 and the large block unit 100 is fixed to the bracket module 600 , It is possible to fine-tune the position of the large block unit 100 more stably and easily.

19 to 22 are diagrams for explaining a bracket module according to a sixth embodiment of the present invention, and FIG. 23 is a diagram for explaining a modified example of the sixth embodiment of the present invention.

As shown in FIGS. 19 and 20 , the bracket module 700 according to the sixth embodiment of the present invention may include first, second, and third brackets 710, 720, and 730.

The first bracket 710 may be fixed to the wind beam 11 .

The second bracket 720 includes a horizontal extension 720a and a vertical extension 720b, and the horizontal extension 720a is connected to the first bracket 710 and has a width in the horizontal direction (x). It extends in the thickness direction z, and the vertical extension 720b may extend in the vertical direction y with a width in the horizontal direction x from the horizontal extension 720a.

The horizontal extension 720a of the second bracket 720 may move in the thickness direction (z) on the first bracket 710, and the vertical extension 720b may move in the horizontal direction (x) on the horizontal extension 720a. ) can be moved.

The third bracket 730 is connected to the vertical extension 720b of the second bracket 720 and can move in the vertical direction y on the second bracket 720 . Such a third bracket 330 is a spaced hole having a width in the thickness direction (z) behind the receiving groove 730R and the receiving groove 730R into which the supporting hardware 50 of the large block unit 100 is inserted ( 730D) may be provided.

Specifically, as shown in FIG. 21 , the first bracket 710 may include a body portion 711, a through hole 710H, a first fixing shaft 710x, and a first guide rail 710R. .

The body portion 711 may be mounted or fixed to the wind beam 11, and for this purpose, it has a width in the horizontal direction (x) and extends in the thickness direction (z), and has a vertical direction at both ends of the thickness direction (z). It is bent and extended in (y), and can be fixed or mounted on the wind beam 11.

A through hole 710H may be provided in the center of the body portion 711 . The through hole 710H may extend long in the thickness direction z, and the first fixing shaft 710x may extend long in the thickness direction z inside the through hole 710H.

Both ends of the first fixed shaft 710x in the longitudinal direction may be fixed to the body portion 711 , and the first fixed shaft 710x may be connected to the second bracket 720 . The first fixing shaft 710x may have a screw type shape with a thread formed on an outer surface thereof, and as the first fixing shaft 710x is rotated, the second bracket 720 moves along the thickness direction (z). can move to

The first guide rail 710R may be provided spaced apart from the first fixing shaft 710x in both horizontal directions (x), and a recessed groove recessed inward may be provided on an outer surface of the first guide rail 710R. can

As shown in FIGS. 22 to 24 , the second bracket 720 may include a horizontal extension 720a and a vertical extension 720b, and the horizontal extension 720a is the first bracket 710. , and a vertical extension 720b may be positioned above the horizontal extension 720a.

The horizontal extension part 720a includes a horizontal body frame 720a1, a thickness moving plate 720a2, a second fixing shaft 720ax, a second guide rail 720aR, a horizontal fixing pin 720a4, and a horizontal moving plate 720a3. , and the vertical extension part 720b includes a vertical body frame 720b1, a fixing plate 720b6, a first vertical moving plate 720b3, a second vertical moving plate 720b2, a third fixing shaft 720bx, and a first vertical moving plate 720b3. 3 guide rails 720bR, vertical fixing pins 720b5 and guide cylinders 720b4 may be provided.

More specifically, the horizontal extension portion 720a includes a horizontal body frame 720a1, a thickness moving plate 720a2, a second fixing shaft 720ax, a second guide rail 720aR, a horizontal fixing pin 720a4, and a horizontal movement. With the plate 720a3, the horizontal extension 720a moves in the thickness direction (z) on the first bracket 710, and the vertical extension 720b moves in the horizontal direction (x) on the horizontal extension 720a. can be moved to

The horizontal body frame 720a1 of the horizontal extension 720a forms the main body of the horizontal extension 720a, extends in the horizontal direction (x) and in the thickness direction (z), and has a rectangular shape with an open central portion. It can be made into a frame.

The thickness moving plate 720a2 is positioned and fixed at the lower end of the horizontal body frame 720a1 in a rectangular plate shape, and is located on both sides of the first guide rail 710R in the lower horizontal direction (x) of the thickness moving plate 720a2. A guide coupling protrusion inserted into the recessed groove may be provided.

A thickness shifting member 720a5 protruding downward is provided at the lower central portion of the thickness shifting plate 720a2 so that the first fixing shaft 710x can be inserted therein.

The thickness shifting member 720a5 is provided with a thread on the inner surface into which the first fixing shaft 710x is inserted, and as the first fixing shaft 710x rotates, the longitudinal direction of the first fixing shaft 710x It can be moved in the thickness direction (z).

The second fixed shaft 720ax is provided to extend long in the horizontal direction (x) inside the horizontal body frame 720a1, and both ends in the horizontal direction (x) may be fixed to the horizontal body frame 720a1. The second fixed shaft 720ax may have a screw type shape with a thread formed on an outer surface thereof, and as the second fixed shaft 720ax is rotated, the vertical extension 720b moves in the horizontal direction (x). can

The second guide rail 720aR is located above the horizontal body frame 720a1, is spaced apart from the second fixed shaft 720ax in the thickness direction z, and may extend long in the horizontal direction x. A recessed groove may be provided on the side surface.

The horizontal moving plate 720a3 is provided to cover the second guide rail 720aR, and a horizontal moving member into which the second fixing shaft 720ax is inserted may be provided below the horizontal moving plate 720a3. In the horizontal direction (x) movable member, a screw line is provided on the inner surface into which the second fixed shaft 720ax is inserted, and as the second fixed shaft 720ax rotates, the horizontally movable member moves along the second fixed shaft 720ax. It can be moved in the horizontal direction (x), which is the longitudinal direction.

Guide coupling protrusions inserted into the depressions of the second guide rail 720aR may be provided at both lower portions of the horizontal moving plate 720a3 in the thickness direction z.

The horizontal fixing pin 720a4 is provided through the horizontal body frame 720a1 and can prevent the horizontal moving plate 720a3 from undesirably moving in the horizontal direction (x). For example, after the operator moves the vertical extension 720b in the horizontal direction (x) by rotating the second fixing shaft 720ax to make fine adjustments, using the horizontal fixing pin 720a4, the vertical extension 720b ) can be fixed in the horizontal position.

As shown in FIGS. 22 and 24 (the third fixing shaft 720bx is omitted in FIG. 24), the vertical extension part 720b includes a vertical body frame 720b1, a fixing plate 720b6, and a first vertical moving plate. (720b3), a second vertical moving plate (720b2), a third fixing shaft (720bx), a third guide rail (720bR), a vertical fixing pin (720b5) and a guide cylinder (720b4), so that the third gasket is vertical It can move in the vertical direction (y) on the extension part (720b).

The vertical body frame 720b1 of the vertical extension 720b forms the main body of the vertical extension 720b, extends in the horizontal direction (x) and the vertical direction (y), and has a rectangular shape with an open central portion. It can be made into a frame.

The fixing plate 720b6 has a horizontal surface, the horizontal surface is fixed to the horizontal moving plate 720a3 of the horizontal extension part 720a, is bent in the vertical direction y, and extends in the vertical direction y, and the vertical direction ( A portion extending in y) may be fixed to the rear surface of the vertical body frame 720b1.

The third fixing shaft 720bx is provided to extend long in the vertical direction (y) inside the vertical body frame 720b1, and both ends in the vertical direction (y) may be fixed to the vertical body frame 720b1. The third fixed shaft 720bx may have a screw type shape having a thread formed on an outer surface thereof, and as the third fixed shaft 720bx is rotated, the first and second moving plates in the vertical direction (y) move in the vertical direction ( y) can be moved.

The guide cylinder 720b4 is spaced apart from the third fixed shaft 720bx in both sides of the horizontal direction (x), and is provided extending long in the vertical direction (y) inside the vertical body frame (720b1), and is provided in the vertical direction (y). Both ends may be fixed to the vertical body frame 720b1.

The third guide rail 720bR is located on the front of the vertical body frame 720b1, is spaced apart from the third fixing shaft 720bx in both directions in the horizontal direction (x), and extends long in the vertical direction (y), A recessed groove may be provided on the outer surface.

The first vertical moving plate 720b3 is installed inside the vertical body frame, and as shown in FIG. 22, the third fixing shaft 720bx and the guide cylinder 720b4 penetrate in the vertical direction y in the vertical direction y. and can be provided. In such a first vertical moving plate 720b3, a thread is provided on the inner surface of the through hole 710H through which the third fixing shaft 720bx passes, and as the third fixing shaft 720bx rotates, the first vertical moving plate 720bx rotates. The moving plate 720b3 may move in the vertical direction y, which is the longitudinal direction of the third fixed shaft 720bx.

The second vertical movement plate 720b2 may be fixedly disposed on the front surface of the first vertical movement plate 720b3 and cover the third guide rail 720bR. Guide coupling protrusions inserted into the depressions of the third guide rail 720bR may be provided on both inner sides of the second vertical moving plate 720b2 in the horizontal direction (x).

The vertical fixing pin 720b5 is provided through the vertical body frame 720b1 and can prevent the first and second vertical moving plates from undesirably moving in the vertical direction (y). For example, after a worker finely adjusts the first and second vertical moving plates 720b3 and 720b2 by rotating the third fixing shaft 720bx in the vertical direction (y), using the vertical fixing pin 720b5 , the vertical positions of the first and second vertical moving plates 720b3 and 720b2 may be fixed.

As shown in FIG. 24 , the third bracket 730 may be fixed to the front surface of the second vertical moving plate 720b2. Such a third bracket includes an accommodation groove 730R into which the supporting hardware 50 of the large block unit 100 is inserted and fixed and a spaced hole 730D having a width in the thickness direction z behind the accommodation groove 730R. ) may be provided.

Accordingly, the horizontal extension part 720a and the vertical extension part 720b of the second bracket 720 according to an example of the present invention are moved in the thickness direction (z), horizontal direction (x), and vertical direction (y), Positions of the third bracket in the thickness direction (z), horizontal direction (x), and vertical direction (y) can be adjusted.

Accordingly, the present invention can easily adjust the thickness direction (z), horizontal direction (x), and vertical direction (y) positions of the supporting hardware fixed to the third bracket.

Unlike the previous description of FIGS. 19 to 24, the modification of the sixth embodiment of the present invention is that the first, second, and third fixing shafts 810x, 820ax, and 820bx do not have a screw-type shape, and FIG. 25 As shown in , the first, second, and third fixing shafts 810x, 820ax, and 820bx may have a cylindrical shape with no thread on the outer surface. Other components may be the same as those of the sixth embodiment described with reference to FIGS. 19 to 24 .

As such, when the first, second, and third fixed shafts 810x, 820ax, and 820bx have a cylindrical shape, the first, second, and third fixed shafts 810x, 820ax, and 820bx are removed by using a separate external device. ) direction, the position of the third bracket 830 can be moved in the thickness direction (z), the horizontal direction (x), and the vertical direction (y).

As such, in the bracket module according to the sixth embodiment of the present invention, in a state in which the first bracket 710 is fixed to the wind beam 11 and the third bracket is fixed to the large block unit 100, the bracket module By fine-tuning each part, the position of the block unit can be fine-tuned, making construction easier and safer.

The technical features disclosed in each embodiment of the present invention are not limited to the corresponding embodiment, and unless incompatible with each other, the technical features disclosed in each embodiment may be merged and applied to other embodiments.

Therefore, in each embodiment, each technical feature is mainly described, but each technical feature may be merged and applied to each other unless incompatible with each other.

The present invention is not limited to the above-described embodiments and accompanying drawings, and various modifications and variations will be possible from the viewpoint of those skilled in the art to which the present invention belongs. Therefore, the scope of the present invention should be defined by not only the claims of this specification but also those equivalent to these claims.

Claims (15)

A first bracket located in contact with the wind beam fixed to the building;
A second horizontal extension part having a width in a horizontal direction and extending in a thickness direction and a vertical extension part having a width in a horizontal direction and extending in a vertical direction from the horizontal extension part, the horizontal extension part being connected above the first bracket. Brackets; and
A third bracket having one end connected to the vertical extension of the second bracket and the other end to which a plurality of building exterior panels are fixed and supporting hardware of the large block unit is fixed;
The third bracket is movable in the horizontal direction, the thickness direction and the vertical direction,
The other end of the third bracket is provided with a receiving groove recessed in the thickness direction,
A building structure using a bracket module having a spaced hole having a width in the thickness direction and penetrating in the vertical direction between one end of the third bracket and the receiving groove. delete According to claim 1,
The first bracket has a first bracket through-hole extending long in the horizontal direction,
The second bracket includes a second horizontal surface through-hole extending long in the thickness direction on the horizontal extension part and a second vertical surface through-hole extending long in the vertical direction on the vertical extension part,
The first and second brackets are coupled to each other by a connecting member passing through the first bracket through-hole and the second horizontal surface through-hole;
A building structure using a bracket module in which the second and third brackets are coupled to each other by a connecting member passing through the second vertical plane through-hole and fixed to the third bracket. According to claim 3,
The second bracket is movable in the horizontal direction along the first bracket through-hole and movable in the thickness direction along the second horizontal plane through-hole;
The third bracket is a building structure using a bracket module movable in the vertical direction along the second vertical plane through-hole. According to claim 3,
A building structure using a bracket module in which the first bracket through-hole and the second horizontal plane through-hole overlap and cross each other. According to claim 1,
The first bracket includes a first lower bracket portion and a first upper bracket portion positioned above the first lower bracket portion, wherein the first upper bracket portion includes a first gear through-hole extending in the horizontal direction. to provide,
The second bracket includes a second gear through-hole extending long in the thickness direction on the horizontal extension part and a second vertical plane through-hole extending long in the vertical direction on the vertical extension part,
A first gear groove is provided on an inner surface of the first gear through hole, and a first gear fixed to the first lower bracket portion is engaged with the first gear groove to pass through the first gear through hole;
A second gear groove is provided on the inner surface of the second gear through hole, and a second gear fixed to the first upper bracket part is engaged with the second gear groove to pass through the second gear through hole. building structure. According to claim 6,
As the first gear rotates, the first upper bracket portion and the second bracket move in the horizontal direction,
A building structure using a bracket module in which the second bracket moves in the thickness direction as the second gear rotates. According to claim 1,
A first gear groove arranged in the horizontal direction and a second gear groove arranged in the thickness direction are provided on a lower surface of the horizontal extension provided in the second bracket,
A third gear groove arranged in the vertical direction is provided on an outer surface of the vertical extension provided in the second bracket,
A first gear meshing with the first gear groove and a second gear meshing with the second gear groove are fixed to the first bracket at the bottom of the second bracket,
A building structure using a bracket module in which a third gear engaged with the third gear groove is fixed to the third bracket on an outer surface of the second bracket. According to claim 8,
As the first gear rotates, the second bracket moves in the horizontal direction,
As the second gear rotates, the second bracket moves in the thickness direction,
A building structure using a bracket module in which the third bracket moves in the vertical direction as the third gear rotates. According to claim 1,
The wind beam has a recessed groove that opens upward, and a structure for building using a bracket module in which a part of the first bracket is inserted and fixed into the recessed groove of the wind beam. According to claim 1,
A plurality of supporting hardware provided in the large block unit
A first supporting hardware extending in the vertical direction and a second supporting hardware extending in the horizontal direction by being bolted to a side surface of the first supporting hardware,
A building structure using a bracket module in which the first supporting hardware is inserted into and coupled to the receiving groove of the third bracket. A foundation hardware arranging step of arranging a plurality of underlying hardware on a surface plate used as a stand, and assembling and combining the plurality of underlying hardware using a connecting member on the surface plate;
A large block unit forming step of combining a plurality of building exterior panels on the plurality of supporting hardware;
A mounting step of fixing the large block unit to a bracket module pre-fixed to a wind beam installed in a building; and
a fine adjustment step of finely adjusting the large block unit by moving the large block unit in at least one of a horizontal direction, a vertical direction, and a thickness direction using the bracket module in a state in which the large block unit is fixed to the bracket module; Including,
After the fine adjustment step, a fixing step of fixing the first, second, and third bracket modules provided in the bracket module so that they do not move; further comprising,
The bracket module
Prior to the mounting step, a first bracket coupled to and fixed to the wind beam;
A horizontal extension having a width in a horizontal direction and extending in a thickness direction and a vertical extension having a width in the horizontal direction and extending in a vertical direction from an end of the horizontal extension, the horizontal extension being connected to a first bracket. 2 brackets; and
A third bracket having one end connected to the vertical extension of the second bracket;
The other end of the third bracket has a receiving groove recessed in the thickness direction,
A separation hole having a width in the thickness direction and penetrating in the vertical direction is provided between one end of the third bracket and the receiving groove,
In the mounting step, the construction method using the building structure in which the supporting hardware of the large block unit is inserted into the receiving groove of the third bracket and fixed. delete According to claim 12,
The fine adjustment step is in a state in which the first bracket is fixed to the wind beam and the large block unit is fixed to the third bracket,
By moving the second bracket in the horizontal direction or the thickness direction, or by moving the third bracket in the vertical direction, the large block unit fixed to the third bracket is moved in at least one of the horizontal direction, the vertical direction, and the thickness direction. A construction method using a building structure that moves in one direction and makes fine adjustments.
delete

Images