JP2006316464A - Polygonal pyramid structure without structural material at ridge line and method of constructing the same - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a polygonal pyramid structure so formed to have no structural materials or have no need of structural materials such as a ridge piece and a ridge beam at the positions of ridge lines and a method of constructing the structure. <P>SOLUTION: In this polygonal pyramid structure, a main frame is formed of a horizontal annular frame body A formed in a polygonal closed shape in plan view equal in shape to a body formed by horizontally sectionally splitting the outline of a polygonal pyramid structure to be constructed and a plurality of vertical member frames C vertically disposed, parallel with each other, along the outline surface of the structure on the sides of the horizontal annular frame body A excluding the positions B at the corner portions thereof and supportedly joining the vertical horizontal annular frame bodies A and A. <P>COPYRIGHT: (C)2007,JPO&INPIT

Description

  The present invention is a so-called pyramid-shaped pyramid structure (however, it is not limited to a quadrangular pyramid shape, but includes a pyramid shape such as a triangular pyramid shape or a polygonal pyramid shape). Thus, the position B of each ridge line belongs to the technical field of a polygonal pyramid structure that does not have or need a structural material such as a so-called purlin or a ridge beam and its construction method.

  Conventionally, a frame structure in the case of constructing a pyramid-shaped pyramid structure, as shown in FIG. 13, the base material a is assembled into a square shape at the base position of the pyramid structure, and then so-called purlins at the positions of the ridge lines, A building structure material b such as a building beam is arranged and joined at the top to form a main skeleton having a weight shape. In addition, it is common to construct the building by bridging the beam members or beam members c that connect the building structural materials b, b in the horizontal direction.

That is, the ridge structure material b... At each ridge line position bears all of the roof load and withstands it. Therefore, as shown in FIG. 14, the axial force borne by the building structure material b increases in proportion to the number of layers of the beam material or girder material c, and the cross-sectional design is troublesome, which makes it difficult to manufacture and assemble it. There was a problem.
In addition, the joint structure of the building structural materials b and b and the beam material or the girder material c bridged horizontally between them becomes a complicated structure, and the processing and assembling work of the joint is troublesome and costly. It has become big.
In addition, since the building structure materials b and b exist, the structure of the corner (ridge line portion) is closed, and it is difficult to obtain a feeling of opening.

Next, Patent Documents 1 and 2 below disclose and disclose a technique related to a so-called pyramid-shaped pyramid structure and a construction method thereof.
However, the cone-shaped structure and the construction method thereof disclosed in Patent Documents 1 and 2 are technologies related to the cone-shaped structure, and do not actively describe the pyramid structure.
In addition, the conical structure and the construction method disclosed in Patent Documents 1 and 2 are merely contents in which contour line modules configured by modularized block bodies are stacked one above the other.

Japanese Patent No. 3236945 Japanese Patent Laid-Open No. 11-62007

An object of the present invention is a structure that does not have or need a ridge structure material at the position B of each ridge line as shown in FIG. Polygonal pyramids that can be constructed easily and quickly in a short period of time without the need to process and assemble the joints between the building structure material and the horizontal material. It is to provide a structure and its construction method.
The next object of the present invention is a structure that does not have or need a ridge structure material at the position B of each ridge line, and therefore has a polygonal pyramid structure with an open and light structure at the corner (ridge line part) and It is to provide the construction method.

As a means for solving the above-mentioned problems of the prior art, a polygonal pyramid structure that does not require a structural material for the ridgeline according to the invention described in claim 1 is:
A horizontal annular frame A having a polygonal closed shape and a plan view equivalent to a horizontal cut of the outer shape of the polygonal pyramid structure to be constructed;
Except for the position B of each corner of the polygonal horizontal annular frame A, a plurality of horizontal annular frames A and A are arranged in parallel in the vertical direction along the structure outer surface of each side. The main frame is comprised with the vertical material frame C to support, It is characterized by the above-mentioned.

The invention described in claim 2 is a polygonal pyramid structure having no structural material on the ridgeline described in claim 1,
The polygonal horizontal annular frame body A has a structure in which each side is divided into a plurality of parts in the longitudinal direction except for the corners, and the structure module 3 having a size is arranged in series in the longitudinal direction of the side and is crimped by the binding material 5. However, it is characterized by a tight structure.

The invention described in claim 3 is a polygonal pyramid structure having no structural material on the ridgeline described in claim 1 or 2,
The polygonal horizontal annular frame body A includes a structure module 3 having a structure and size in which each side is divided into a plurality of parts in the longitudinal direction except for the corners, and the horizontal annular frame bodies A and A adjacent to each other vertically. The composite structure module 3 composed of the vertical material frame module 31 having a structure divided by a height of one layer is arranged in a series in the longitudinal direction of the side and crimped by the binding material 5 and is fastened. The upper and lower horizontal annular frame bodies A are stacked and fastened using the frame module 31.

A construction method of a polygonal pyramid structure that does not have a structural material on a ridgeline according to the invention described in claim 4,
The polygonal pyramid structure to be constructed has a horizontal annular frame A having a polygonal closed shape and a position B of each corner in the polygonal horizontal annular frame A, which is equivalent to a horizontally cut outer shape of the polygonal pyramid structure to be constructed. Except for the polygonal pyramid structure in which the main frame is composed of the vertical frame C that is connected to and supports the upper and lower horizontal annular frame bodies A and A that are arranged in parallel in the vertical direction along the outer shape of the structure on each side. Is a method of building
The horizontal annular frame A is composed of a corner structure module 4 divided with respect to the corner portion thereof, and a structure module 3 having a shape and a structure equal to those obtained by dividing each side in the longitudinal direction.
The structural module 3 is configured as a composite structural module in which a vertical frame module 31 is provided on the horizontal floor slab 30 at a height of one layer, and a binding material passing through the floor slab 30 in the longitudinal direction of the side is passed. A hole 35 is provided, and a binding material through hole 36 is provided through the vertical frame module 31 and the floor slab 30 in the vertical direction. The floor slab 30 of the composite structure module 3 is connected to the vertical composite structure module 3 in the vertical direction. Placing on the material frame module 31 and arranging a plurality of horizontal series in the side direction of the horizontal annular frame body A;
The corner structure module 4 divided about the corner portion of the horizontal annular frame body A has a binding material through hole 47 penetrating the floor slab 40 bent along the corner portion angle in two directions on both sides thereof. Arranging the floor slab 40 in a series of arrangements with the floor slab 30 of the composite structure module 3 in the two-side direction at the position of the corner of the horizontal annular frame body A,
Tightening material 5 in which the corner structure module 4 and the composite structure modules 3 and 3 forming two sides on both sides of the corner structure module 4 are passed through the binding material through holes 35 and 47 of the floor slabs 30 and 40 of each module in common. The step of constructing a horizontal annular frame A having a closed shape and a polygonal shape in plan view for each contour line by crimping and tightly bonding with each other,
The next upper horizontal annular frame A is arranged such that the composite structure module 3 protrudes inward by a dimension corresponding to the inclination angle of the structure outer surface of each side of the vertical material frame module 31 in the polygonal pyramid structure. Arranged on the lower horizontal annular frame body A, combined with the corner structure module 4, and crimped and fastened by the fastening material 5 that is passed through the fastening material through holes 35 and 47 of the floor slabs 30 and 40 of each module in common. The horizontal annular frame A of one layer is completed, and the upper and lower horizontal annular frames A, A are further crimped by the binding material 6 that is passed through the binding material through hole 36 of each vertical member frame module 31 in common. And the step of laminating and laminating is repeated.

A polygonal pyramid structure having no structural material on the ridgeline according to the invention described in claim 5 is:
The polygonal pyramid structure to be constructed has a horizontal annular frame A having a polygonal closed shape and a position B at each corner of the polygonal horizontal annular frame A, which is equivalent to a horizontal cut of the outer shape of the polygonal pyramid structure. Except for the polygonal pyramid in which the main frame is constituted by the vertical frame C that connects the upper and lower horizontal annular frames A and supports the A body by arranging a plurality of substantially parallel in the vertical direction along the outer shape of the structure on each side. A structure,
The horizontal annular frame body A is composed of a corner structure module 4 divided with respect to the corner portion thereof, and a structure module 3 having a shape and a structure equal to those obtained by dividing each side in the longitudinal direction.
The structural module 3 is configured as a composite structural module in which a vertical frame module 31 is provided on the horizontal floor slab 30 at a height of one layer, and a binding material passing through the floor slab 30 in the longitudinal direction of the side is passed through. A hole 35 is provided, and a binding material through-hole 36 is provided through the vertical frame module 31 and the floor slab 30 in the vertical direction. The composite structure module passes through the floor slab 30 in the vertical composite structure module 3. It is placed on the material frame module 31 and arranged side by side in the side direction of the horizontal annular frame body A,
The corner structure module 4 divided about the corner portion of the horizontal annular frame body A is provided with a binding material through-hole 47 penetrating in two directions on both sides of the floor slab 40 bent along the corner portion angle. The floor slab 40 is arranged side by side with the floor slab 30 of the composite structure module 3 on both sides at the corner position of the horizontal annular frame body A,
The corner structure module 4 and the composite structure module 3 forming the two sides on both sides of the corner structure module 4 are pressure-bonded to each other by the binding material 5 that penetrates the binding material through holes 47 and 35 of the floor slabs 40 and 30 in common. However, the horizontal annular frame body A having a closed shape and a polygonal plan view is formed for each contour line.
The next upper horizontal annular frame A is arranged such that the composite structure module 3 protrudes inward by a length corresponding to the inclination angle of the structure outer surface of each side of the polygonal pyramid structure. It is arranged on the lower horizontal annular frame body A, combined with the corner structure module 4, and by the binding material 5 horizontally penetrated into the binding material through holes 35 and 47 of the floor slabs 30 and 40 of the modules 3 and 4. One horizontal annular frame body A is constructed by crimping and tightening, and the upper and lower horizontal annular frame bodies A, A are also vertically passed through the binding material through holes 36 of each vertical member frame module 31. It is characterized in that it is pressure-bonded and tightly laminated by a binding material 6.

The polygonal pyramid structure according to the present invention has a structure that does not have a structural material at the position B of each ridgeline, and inevitably has no joint between the structural material at the ridgeline portion and the horizontal structural material, and there is no joint work. It is extremely simple and clear, without the need for processing of joints. Therefore, the construction method is also simple, the manufacture of the structural member is easy, and construction in a short construction period is possible.
Moreover, since it is a structure which does not have a structural material in the position B of each ridgeline, a ridgeline part (a corner | angular part = B reference of FIG. 1) can be comprised in an open and light space, and it is easy for lighting property and visibility. A rich polygonal pyramid structure can be provided.

The polygonal pyramid structure to be constructed has a horizontal annular frame A having a polygonal closed shape and a position B at each corner of the polygonal horizontal annular frame A, which is equivalent to a horizontal cut of the outer shape of the polygonal pyramid structure. Except for this, the main frame is constituted by a plurality of vertically arranged frame frames A and A which are arranged in parallel in the vertical direction along the outer shape of the structure on each side and which connect and support the upper and lower horizontal annular frame bodies A and A.
The polygonal horizontal annular frame body A has a structure in which each side is divided into a plurality of parts in the longitudinal direction except for the corners, and the structure module 3 having a size is arranged in series in the longitudinal direction of the side and is crimped by the binding material 5. The structure is tight.
Alternatively, the polygonal horizontal annular frame body A has a structure module 3 having a structure and size in which each side is divided into a plurality of parts in the longitudinal direction except for the corners thereof, and the horizontal annular frame bodies A and A adjacent to each other vertically. A composite structure module 3 composed of a vertical frame module 31 having a structure divided into a height corresponding to a single layer is arranged in a series in the longitudinal direction of the sides, and is crimped and fastened with a binding material 5. The upper and lower horizontal annular frame bodies A are stacked and fastened using the material frame module 31.

Hereinafter, the present invention will be described based on illustrated embodiments.
In the illustrated embodiment, the quadrangular pyramid frame structure shown in FIG. 1, that is, the shape of the quadrangular pyramid structure to be constructed is equivalent to the outer shape of the quadrangular pyramid horizontally cut, is a quadrangle in plan view, and has a similar shape on the top and bottom. Are substantially parallel in the vertical direction along the outer surface of the structure on each side, except for a plurality of closed circular annular frames A of different sizes, and the position B of each corner of the horizontal annular frame A. 5 is a structure in which a main frame is composed of a vertical frame C that connects and supports the upper and lower horizontal annular frames A, A, and the completed drawing is a pyramid-shaped quadrangular pyramid structure shown in FIG. It shows the case where the object is constructed by a precast concrete member crimping method with no support.

2 to 5 conceptually show important construction steps in the case of constructing the quadrangular pyramid structure whose completed drawing is shown in FIG.
First, FIG. 2 shows a stage in which a basic part of a quadrangular pyramid structure is constructed. Reference numeral 1 in the figure indicates a reinforced concrete foundation structure constructed by leveling out. As an example, the basic structure 1 is constructed in a square shape having a side of about 20 m when viewed in plan.
The embodiment of the present invention is not limited to the illustrated quadrangular pyramid structure. It can be implemented as a triangular pyramid-shaped or polygonal pyramid-shaped polygonal pyramid structure. Therefore, the planar shape of the foundation structure 1 is implemented by constructing it into a triangle or a polygon according to the planar view shape of the polygonal pyramid structure to be constructed.

  3-5, the horizontal annular frame body A (closed module on the contour line) is sequentially laminated on the foundation structure 1 by the non-supporting precast concrete member crimping method, Specifically, the main construction stage until the canopy 2 is installed at the apex portion and the quadrangular pyramid structure (FIG. 5) is completed is shown as a bird's-eye view.

Next, FIG. 6 and FIG. 7 show a corner structure module 4 in which different ones of the horizontal annular frame bodies A (closed modules on the contour lines) in the upper and lower layers are divided at each corner. The example of allocation in the case where the sides excluding the same corner structure module 4 are constituted by the structure module 3 or 3 ′ divided into a plurality in the longitudinal direction is shown. Incidentally, the difference between the reference numerals 3 and 3 'distinguishes between the two different vertical member frame modules, which will be described later, due to the allocation of the divisions.
FIG. 8 and FIG. 9 show an embodiment in which the structural module 3 and the corner structural module 4 which are blocked by the assignment as described above are configured as precast concrete members, respectively.
Further, FIG. 10 shows that the structural module 3 and the corner structural module 4 configured as the precast concrete member are arranged in a row in the longitudinal direction of each side, and are crimped and fastened with a binding material 5 such as a PC steel material to form one layer. The procedure for assembling the horizontal annular frame A (contour line closed type module) is shown. FIG. 11 shows a structure in which horizontal annular frame bodies A and A (contour line closed type modules) stacked one above the other are pressure-bonded to each other with a binding material 6 such as a PC steel material.

The structural module 3 shown in FIG. 8 has a dimension corresponding to the inclination angle (50 ° in the illustrated example) of the quadrangular pyramid structure on the upper surface of the horizontal floor slab 30 whose side length is divided by about 3 m. It is configured as a composite structure module in which two vertical member frame modules 31 and 31 in a form protruding linearly inwardly are assembled with an appropriate interval in the side direction.
The two vertical member frame modules 31, 31 are coupled to a vertical support member 32 arranged in the side direction. The support member 32 has the same height as the vertical member frame module 31. In the case of the illustrated example, the outer portion of the longitudinal member frame modules 31, 31 is aligned at the same height as the outer wall portion 33. Reference numeral 34 indicates a water return.
The composite structure module 3 is formed in such a size that the total weight as a whole does not hinder the suspension work by a crane or the like. However, the composite structure module 3 is not necessarily manufactured as a reinforced concrete structure. It can also be implemented as a steel structure, a wooden structure, or a stone structure. This also applies to the corner structure module 4 described below.
Two binding material through-holes 35, 35 are penetrated in the side direction of the floor slab 30. In addition, a total of two binding material through holes 36, 36, one for each of the two vertical member frame modules 31, 31 on the outer side and the inner side of the support member 32, are in the vertical direction. A box-shaped binder fixing port 36a is formed at an appropriate depth at the entrance of each hole.
Reference numeral 6 in FIG. 8 is a binding material such as PC steel prepared to pass through the binding material through hole 36 of the vertical frame module 31 in the composite structure module 3 different in the upper and lower layers, and the lower end thereof is the vertical frame. The module 31 is fixed by the fixing tool 7. The binding material 6 is provided at a position (see FIG. 11) whose center coincides with the above-described binding material through hole 36 in the upper structural module 3 or the composite structural module stacked thereon. The binding material 6 is fixed in advance before the upper structure module 3 or the composite structure module is suspended and laminated. The upper structure module 3 or the composite structure module is connected to the vertical material frame modules 31 and 31 through the binding material through holes. 36 is matched with the above-described binding material 6, and the stacking operation is performed by suspending the binding material 6 through the binding material through hole 36.

  Next, the corner structure module 4 shown in FIG. 9 is an embodiment configured as a precast concrete member. This is substantially square in a plan view, and has an outer corner portion 44 and an inner corner portion 45 on one side of the upper surface of the floor slab 40 having a length of about 2 m, and perpendicular to the two perpendicular sides of the quadrangular pyramid structure. The wall plates 41 and 41 are provided, and a vertical peripheral wall 42 having an L shape in plan view in two directions at right angles is provided at an intermediate portion between the two wall pillars 41 and 41. A horizontal plate 46 that is continuous in an L-shaped cross section is provided inward at the lower portion of the peripheral wall 42. An outer wall portion 43 is integrally provided at the outer edge portion of the floor slab 40 at the same height (about 30 cm) as the wall plate 41. The floor slab 40 has an arrangement and caliber common to the binding material through-hole 35 provided in the floor slab 30 of the structure module 3 or the composite structure module in two perpendicular directions of the quadrangular pyramid structure. The binding material through holes 47, 47 and 48, 48 are provided in a penetrating manner, and box-shaped binding material fixing ports 47a, 48a are formed at appropriate depths at the respective entrances.

  6 and 7 show a configuration example in which the horizontal annular frame body A (contour closed type module) is assembled by combining the structure module 3 or the composite structure module and the corner structure module 4 described above. Reference numeral 3 ′ in the figure indicates that the division length of the structural module 3 or the composite structural module is adjusted in accordance with the change in the length in the side direction of the horizontal annular frame A that differs for each layer as described above. . The structural module 3 ′ (or the composite structural module; the same applies hereinafter) has a single vertical frame module 31 corresponding to the length divided. However, if there is a possibility of the lifting ability by the crane, the structural module 3 ′ can be implemented with a configuration in which the three vertical member frame modules 31 are long.

  As described above, the horizontal annular frame body A of the quadrangular pyramid structure is divided in the longitudinal direction of the side, and the structure module 3 or 3 ′ and the corner structure module 4 have the horizontal annular frame body A (contour line closure) 10 and are arranged side by side in series, and the binding material 5 such as a PC cable is passed through the binding material through holes 35 and 47 and 35 and 48 of the modules 3 and 4 in common. As shown in the figure, the fixing ports 47 a and 48 a having a box shape prepared in the corner structure module 4 at both ends are introduced with appropriate tension (pre-stress) into the respective binding materials 5 and pressure-bonded to each other to fix the known fixing device 7. As a result, fixing and tightening are performed, so that a horizontal annular frame A for one layer is constructed. Accordingly, the horizontal annular frame body A (contour closed type module) of the layer is structurally stabilized as one closed type module in the fastening stage.

In the horizontal annular frame A (contour closed type module) thus completed in one layer, the individual structural modules 3 are placed on the lower horizontal annular frame A (contour closed type module) and arranged side by side. At the stage, as shown in FIG. 11, the structural stability of the stacked state is established by crimping and tightening with the vertical binding material 6. As described above, the upper structural module 3 stacked on the vertical upward binding material 6 prepared in advance in the vertical frame module 31, 31 of the lower horizontal annular frame A as shown in FIG. The binding material through-holes 36 and 36 in the vertical frame module 31 are suspended so as to coincide with each other, so that the binding material 6 is also threaded together. Thereafter, using a box-shaped fixing port 36a formed at the entrance / exit of each binding material through hole 36, an appropriate tension force (pre-stress) is introduced into each binding material 6 and is crimped. Fixing is performed by fixing by the fixing tool 7.
In this way, the horizontal annular frame body A (contour line closed type module) of each layer is tightly bonded by each structural module 3 firmly in principle over one layer of the binding material 6 across three layers. In addition, since the single-layer vertical member frame module 31 is substantially fastened by the two inner and outer binding members 6, 6, the structural module 3 of each layer is inward by a dimension corresponding to the inclination angle of the quadrangular pyramid structure. Even if they are protruding and stacked, a stable and safe construction work and a stacked structure can be realized without requiring support work.

As described above, the construction method of the present invention is constructed by laminating the horizontal annular frame body A (contour line closed type module) one by one, and fastening them by a crimping method for each layer, while completing the assembly. Since it advances, even a polygonal pyramid structure can be constructed without requiring any support work.
And since it is a frame structure that does not have a ridge structure material such as purlin or ridge beam at the corner (on the ridge line) of the polygonal pyramid structure, the joint connection between the ridge structure material on the ridge line and the horizontal material Since there is no such thing and joining is unnecessary, there is no hassle of joint processing and joining work.
As described above, the polygonal pyramid structure constructed by the construction method of the present invention is a frame structure that does not have a ridge structure material such as a purlin or a ridge beam on the ridgeline of the corner of the polygonal pyramid structure. As illustrated in FIG. 12, the position B of the corner portion is opened, and the structure of the space is simple and rich in openness.

  Although the present invention has been described based on the illustrated embodiment, of course, the technical idea of the present invention is not limited to the above embodiment. The present invention can be implemented in various ways including design changes and application modifications that are usually made by those skilled in the art without departing from the gist and technical idea of the present invention.

It is a perspective view which shows notionally the frame structure of the quadrangular pyramid structure of this invention. It is a bird's-eye view which shows the basic structure of a quadrangular pyramid structure. It is a bird's-eye view which shows the middle of construction which laminated several layers of a horizontal annular frame (contour line closed type module) on the foundation structure. It is a bird's-eye view which shows the middle of construction which lamination of a horizontal annular frame object advanced further. It is a bird's-eye view which shows the completed quadrangular pyramid structure. It is a top view which shows the example of allocation of the horizontal annular frame body which comprises a quadrangular pyramid structure. It is a top view which shows the example of allocation of the different layer of a horizontal annular frame body. It is a perspective view which shows an example of the composite structure module which divided | segmented the edge direction length of the horizontal annular frame body. It is a perspective view which shows an example of a corner structure module. It is a top view which shows the assembly point of a horizontal annular frame body (contour line closed type module) about the principal part. It is a vertical sectional view showing a laminated structure of a horizontal annular frame body (contour closed module). It is the landscape figure which looked up at the corner part of a pyramid structure from the inside. It is a perspective view which shows the frame structure of the conventional quadrangular pyramid structure. It is an axial force figure of the ridge structure material of the conventional pyramid structure.

Explanation of symbols

A Horizontal annular frame (Contour closed type module)
C Vertical material frame 3 Structural module 4 Corner structure module 30 Floor slab 31 Vertical material frame module 32 Support member 35, 36 Tightening material through hole 40 Floor slab 47, 48 Tightening material through hole 5, 6 Tightening material 7 Fixing tool

Claims (5)

A horizontal annular frame body having a polygonal closed shape in plan view equivalent to a horizontal cut of the outer shape of the polygonal pyramid structure to be constructed;
Except for the position of each corner portion of the polygonal horizontal annular frame body, a plurality of vertical material frames that are arranged in parallel in the vertical direction along the outer shape of the structure on each side and connect and support the upper and lower horizontal annular frame bodies. A polygonal pyramid structure that does not have a structural material on the ridgeline, characterized in that the main frame is composed of   Polygonal horizontal annular frame body is structured by dividing each side into a plurality of lengths in the longitudinal direction except for the corners. It is set as the structure, The polygonal pyramid structure which does not have a structural material in the ridgeline of Claim 1 characterized by the above-mentioned.   The polygonal horizontal annular frame body has a structure module having a structure and size in which each side is divided into a plurality of parts in the longitudinal direction except for the corners, and a height of one layer between the horizontal annular frame bodies adjacent to each other vertically. A composite structure module composed of a vertically divided frame module and a vertical frame module having a size divided into a series is arranged in the longitudinal direction of the side and crimped with a binding material. The polygonal pyramid structure having no structural material on a ridgeline according to claim 1 or 2, characterized in that a horizontal annular frame is stacked and tightened. The polygonal pyramid structure to be constructed is a polygonal, closed horizontal annular frame body that is equivalent to a circular cut of the outer shape of the polygonal pyramid structure, and each corner except for the position of each corner in the polygonal horizontal annular frame body. A method of constructing a polygonal pyramid structure in which a main frame is composed of a plurality of vertically arranged vertical frame frames that are arranged substantially in parallel in the vertical direction along the outer shape of the side structure and connect the upper and lower horizontal annular frame bodies. ,
The horizontal annular frame body is composed of a corner structure module divided with respect to the corner portion, and a structure module having a shape and a structure equal to each side divided in the longitudinal direction,
The structural module is configured as a composite structural module in which a vertical material frame module is provided at a height of one layer on the horizontal floor slab, and a binding material through hole penetrating in the longitudinal direction of the side is provided in the floor slab, Further, there is provided a binding material through-hole penetrating the vertical member frame module and the floor slab in the vertical direction, and the floor slab of the composite structure module is placed on the vertical member frame module in the lower composite structure module to form a horizontal annular frame. Arranging multiple horizontal rows in the direction of the side of the body,
The corner structure module divided about the corner portion of the horizontal annular frame body is provided with fastening material through holes penetrating in two directions on both sides of the floor slab bent along the corner portion, and horizontally Arranging the floor slab in a series of arrangements with the floor slab of the composite structure module in two sides to the position of the corner of the annular frame body;
The corner structure module and the composite structure module forming the two sides on both sides of the corner structure module are bonded to each other by using a bonding material that is commonly penetrated into a bonding material through hole of a floor slab of each module. A step of constructing a horizontal annular frame body having a polygonal shape in a plan view and a closed shape;
The next upper horizontal annular frame body is configured such that the composite structure module is arranged so that the vertical frame module protrudes inward by a dimension corresponding to the inclination angle of the structure outer surface of each side of the polygonal pyramid structure. Arranged on the annular frame body, combined with the corner structure module, crimped and bonded with a binding material commonly passed through the binding material through hole of the floor slab of each module to complete one horizontal annular frame body, and A structure material on a ridge line, wherein the horizontal annular frame bodies of the upper and lower layers are repeatedly bonded and laminated by a bonding material that is commonly passed through the bonding material through-holes of the vertical frame modules. To construct a polygonal pyramid structure that does not have an edge. The polygonal pyramid structure to be constructed has a polygonal, closed horizontal annular frame that is equivalent to a horizontal cut of the outer shape of the polygonal pyramid structure, and the positions of the corners of the polygonal horizontal annular frame, A polygonal pyramid structure in which a main frame is constituted by a vertical frame that connects and supports the upper and lower horizontal annular frame bodies by arranging a plurality of substantially parallel in the vertical direction along the outer structure surface of the side,
The horizontal annular frame body is composed of a corner structure module divided about the corner portion, and a structure module having the same shape and structure as each side divided in the longitudinal direction,
The structural module is configured as a composite structural module in which a vertical frame module is provided at a height of one layer on a horizontal floor slab, and a binding material through hole penetrating in the longitudinal direction of the side is provided in the floor slab. In addition, there is provided a binding material through-hole that vertically penetrates the vertical frame module and the floor slab, and the composite structure module has a horizontal annular shape with the floor slab placed on the vertical frame module in the lower composite structure module. It is arranged in a row in the side direction of the frame body,
The corner structure module divided about the corner portion of the horizontal annular frame body has a configuration in which a floor slab bent along the corner portion is provided with binding material through holes penetrating in two directions on both sides thereof. The floor slab is installed side by side with the floor slab of the composite structure module on both sides to the corner position of the horizontal annular frame body,
The corner structure module and the composite structure module forming the two sides on both sides of the corner structure module are bonded to each other by a bonding material that is commonly passed through the through holes of the floor slabs. A horizontal annular frame body with a polygonal view and a closed shape is configured,
The next upper horizontal annular frame body is formed by arranging the composite structure module so that the vertical frame module protrudes inward by a dimension corresponding to the inclination angle of the structure outer surface of each side of the polygonal pyramid structure. A horizontal annular frame body is constructed by combining corner structure modules arranged on the annular frame body, and crimping and fastening with a fastening material horizontally penetrated into the fastening material through hole of each module floor slab. Further, the horizontal annular frame bodies of the upper and lower layers are laminated by being bonded and bonded by a bonding material vertically penetrated into the bonding material through holes of each vertical frame module. Polygonal pyramid structure without material.

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