JPH061352A - Loading rack for composite panel - Google Patents

Abstract

PURPOSE:To prevent the panel from being damaged during transport, and the free end of an outer/inner wall attaching metal fitting from being bent. CONSTITUTION:A loading rack 1 is used to stack and fix a composite panel 21 for which a wall framework 23 is attached to one side surface of a panel 22, and is formed into an upside down gate-shape by a base 2 on which the wall framework 23 of the composite panel 21 is mounted and columns 3A, 3B which are stood at both ends of the base 2. Respective columns 3A, 3B are provided in such a manner that the stacking useful height H1 is larger than the stacking height H2 of the composite panels 21, and at the same time, a stacking pin 4 and stacking hole 5 which are relative are concentrically provided on the top and bottom both ends to make it possible to fasten the stacking pin 4 of one loading rack 1 to the stacking hole 5 of another loading rack 1. Also, a framework fixing hole 6 which can match a binding hole 24 on the wall framework 23 is provided at an intermediate part of respective columns 3A, 3B for the constitution.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a composite panel loading rack.

[0002]

2. Description of the Related Art A wall member such as an assembling house is constructed, for example, by processing a composite panel in which a wall frame is attached to one side of an outer wall panel in a factory production process, and loading the composite panel on a transport vehicle. The wall body of the assembling house was constructed by assembling the inner wall panel on the side opposite to the outer wall of the wall shaft assembly after carrying in the site.

When forming a composite panel in which two outer wall panels are adjacent to each other in an attempt to shorten the assembly process at a construction site, two sets of wall shafts attached to one side of the outer wall panel are arranged. Then, the adjacent wall shafts are connected to each other on the outer wall side of the outer and inner wall mounting brackets to form a double-composite composite panel, and the inner wall side of the outer and inner wall mounting brackets is loaded on the transport vehicle in a free state. It was

[0004]

However, when the composite panels are shipped to the construction site, each composite panel stacked on the carrier is laterally displaced due to vibration or shaking during transportation, which is aesthetically pleasing. The outer wall panel that requires the heat treatment is damaged by the contact or the collision with the stacked wall frame.

Further, in the double-composite composite panel, a large scratch is generated only by the free end portion of the outer-inner-wall mounting bracket in which the lower outer wall panel projects downward from the wall shaft assembly of the upper composite panel. However, there is a problem that the outer and inner wall mounting brackets also become defective due to the free end being bent.

In view of the conventional circumstances as described above, the present invention is such that the composite panel is damaged by the panel located above it or protrudes downward from the wall frame even if vibration or shaking occurs during transportation. It is an object of the present invention to provide a composite panel loading rack that prevents the outer and inner wall mounting brackets from bending.

[0007]

A stacking rack for a composite panel according to the present invention is a stacking rack for stacking and fixing composite panels each having a wall shaft assembly attached to one side surface of the panel. An inverted gate is formed by the base on which the wall shaft of the composite panel is placed and the pillars erected at both ends of this base, and these pillars are stacked from the top surface of the base. The effective height is formed larger than the mounting height of the composite panel,
Stacking pins and stacking holes that are opposed to each other at the upper and lower ends are concentrically provided, and stacking pins of one loading rack can be engaged with the stacking holes of another loading rack. A shaft assembly fixing hole that can be fitted into a wall shaft assembly binding hole is provided in an intermediate portion of the columnar body.

[0008]

The composite panel is placed on the base of the loading rack, and the spelling holes of the wall shaft assembly of the composite panel are fitted into the shaft fixing holes of the columns of the loading rack, and the nuts are inserted into the holes. By inserting and tightening attached bolts and the like, the composite panel is integrally combined with the loading rack to form a stacking form that is easy to stack.

By being formed into such a package,
The composite panel is formed with a space for protecting the composite panel at the upper and lower portions thereof, thus preventing damage to the upper and lower parts of the composite panel.

[0010]

Embodiments of the present invention will be described below with reference to the drawings.

In this description, the left-right direction of FIG. 1 is called the width direction of the panel, and the direction orthogonal to the plane of FIG. 1 is called the length direction of the panel.

The loading rack 1 shown in FIGS. 1 to 3 is applied to stack composite panels 21 on a transport vehicle such as a truck (not shown).
Is a panel 22 that forms part of the wall of the building (not shown)
A frame-shaped wall shaft assembly 23 made of lip grooved steel or the like is attached to one side surface (lower side surface).

The loading rack 1 includes the composite panel 21.
The panel 2 in which the wall shaft set 23 of the above intersects with the wall shaft set 23.
2 by the width direction W of the base 2 and the pillars 3A, 3B standing upright at both ends of the length direction of the base 2 (ie, the width direction W of the panel 22). The shape is inverted.

In each of the columns 3A and 3B, the stacking effective height H1 from the upper surface of the base 2 is the mounting height H2 of the composite panel 21.
The stacking pin 4 and the stacking hole 5 are formed to be larger than each other and are opposed to each other at the upper and lower ends (in this embodiment, the stacking pin 4 arranged at the upper end and the stacking hole 5 arranged at the lower end).
And) are concentrically provided.

Since the stacking pin 4 and the stacking hole 5 are provided in each of the columns 3A and 3B of all the loading racks 1 in this way, the stacking pin 4 of one loading rack 1 is different from the others. The stacking holes 5 of one of the loading racks 1 can be engaged with each other, and therefore, the compatibility of all the loading racks 1 is high, so that quick stacking is possible.

Further, a shaft assembly fixing hole 6 that can be fitted into the binding hole 24 of the wall shaft assembly 23 is provided along the width direction W of the panel 22 in the middle of each of the columns 3A and 3B. The individual loading racks 1 are arranged in the length direction L of the panel 22 (see FIG. 4), and the shaft assembly fixing holes 6 of the columns 3A and 3B are fitted into the spelling holes 24 of the wall shaft assembly 23. Frame fixing hole 6
By inserting and tightening the bolts 7 with nuts into the spelling holes 24 and tightening them, the composite panel 21 is mounted on the loading rack 1.
To form a stacking unit U1.

Next, a method of assembling the composite panel using the loading rack of the above embodiment and its operation will be described.

First, the pair of loading racks 1 are attached to the panel 22.
The loading rack 1 is temporarily placed in an open space or the like in the factory so as to be parallel to the width direction W of the panel 22 with an interval between them in the lengthwise direction L.

Next, after the wall shaft assembly 23 of the composite panel 21 is placed on the base 2 of each loading rack 1, the loading racks 1 are moved little by little on the ground, and each loading rack is moved. The composite panel 21 is loaded by fitting the shaft assembly fixing hole 6 of No. 1 and the spelling hole 24 of the wall shaft assembly 23, inserting the nut-attached bolts 7 into the respective fitting holes 6 and 24, and tightening the nuts. The stacking unit U1 is integrally formed with the rack 1 for use.

As described above, by incorporating the composite panel 21 into the stacking unit U1, the composite panel 21 has the effective stacking height H1 of the loading rack 1 and the composite panel 21.
Upper space C1 and wall shaft assembly 23 due to the difference from the mounting height H2 of
There is no possibility that the lower space C2 supported by the base 2 will cause contact or collision with the composite panel 21 incorporated in another stacking unit U1.

Therefore, the composite panel 21 can be quickly stacked on the carrier in the form of a package incorporated in the stacking unit U1 and adapted to the process at the construction site.
The loading rack 1 unpacked at the construction site can be repeatedly used by the collection system.

The stacking pin 4 and the stacking hole 5 described above are arranged in place of this embodiment by disposing the stacking hole 5 at the upper end of each column 3A, 3B and the stacking pin 4 at the lower end thereof. It may be a structure.

The loading rack 11 shown in FIGS. 5 and 6 is applied for stacking a double-layered composite panel 31 on a carrier, and the composite panel 31 is a panel 22.
A frame-shaped wall shaft set 23 made of lip grooved steel or the like was attached to one side surface, and two sets of structures (that is, the composite panel 21 of the above embodiment) were arranged between the wall shaft sets 23 adjacent to each other. The outer and inner wall mounting members 25 are integrally connected, and the free ends (lower ends in FIGS. 5 and 6) of the outer and inner wall mounting members 25 project downward from each wall shaft assembly 23.

The loading rack 11 is the composite panel 3
Two wall shaft sets 23 of 1 are installed on the base 12 on which the panel 22 is mounted in the width direction W of the panel 22 and on both ends of the base 12 in the length direction (that is, the width direction W). Pillar 1
It is formed in an inverted gate shape by 3A and 13B.

In each of the columns 13A and 13B, the effective stacking height H1 from the upper surface of the base 12 is formed to be larger than the mounting height of the composite panel 31, and the upper and lower end portions have the above-mentioned embodiment. Stacking pins 4 as in the loading rack 1
And a stacking hole 5 is provided. Furthermore, each pillar 1
A shaft assembly fixing hole 6 that can be fitted into the binding hole 24 of the wall shaft assembly 23 is provided along the width direction W of the panel 22 in the intermediate portion between 3A and 13B.

When the composite panel 31 is to be transported by a transport vehicle or the like, two loading racks 11 are arranged in the longitudinal direction L of the panel 22 as in the above embodiment. After fitting the shaft assembly fixing holes 6 of the columns 13A and 13B to the spelling holes 24 of the wall shaft assembly 23 located at both ends of the composite panel 31 in the width direction W, nuts are attached to the holes 6 and 24, respectively. By inserting and tightening the bolts, the composite panel 31 forms a stacking unit U2 integrally connected to the loading rack 11 so that the stacking unit U2 can be quickly loaded on the transport vehicle.

As described above, in the composite panel 31 incorporated in the stacking unit U2, as in the case of the composite panel 21, the upper space C1 protects the upper surface of the panel 22 and the lower space C2 protects the outer and inner wall fittings. 25
The free end (lower end) of is protected.

[0028]

The stacking rack for a composite panel according to the present invention has an inverted gate shape by a base on which a wall shaft assembly of the composite panel is placed and pillars erected at both ends of the base. Formed,
Each of these pillars is formed so that the stacking height from the upper surface of the base is larger than the mounting height of the composite panel, and the stacking pins and the stacking holes provided concentrically at both upper and lower ends make it A stacking pin of one loading rack can be engaged with a stacking hole of the other loading rack, and a shaft fixing hole that can be fitted to the spelling hole of the wall shaft at the middle of each column. Is installed, and by fitting the shaft fixing holes of the loading rack to the spelling holes of the wall shaft and tightening them with bolts etc., the composite panel is loaded with the protective space above and below it. Since it is integrated with the rack for loading, it can be quickly loaded into a transport vehicle etc. and the supply capacity to the construction site is improved.

Further, even if the composite panels are stacked, there is no possibility that the composite panels will contact or collide with each other.
Excellent advantage of preventing damage to the panel surface and bending of the free end (lower end) of the outer and inner wall mounting brackets, thus eliminating the defective product and outer / inner wall mounting bracket occurrence rate There is.

It can be used repeatedly depending on the purpose of the rack member, and waste packaging materials are not generated, so that the material can be saved.

[Brief description of drawings]

FIG. 1 is a front view showing a usage state of a stacking rack for a composite panel.

FIG. 2 is a plan view of FIG.

FIG. 3 is a left side view of FIG.

FIG. 4 is an external perspective view showing a usage state of a stacking rack for a composite panel.

FIG. 5 is a front view showing a usage state of a stacking rack for a composite panel according to another embodiment.

6 is a left side view of FIG.

[Explanation of symbols]

 1, 11 Loading rack 2, 12 Base 3A, 13A Column 3B, 13B Column 4 Stacking pin 5 Stacking hole 6 Shaft fixing hole 21, 31 Composite panel 22 Panel 23 Wall shaft 24 Spelling hole H 1 step Effective stacking height H2 Loading height

 ─────────────────────────────────────────────────── ─── Continuation of the front page (72) Inventor Eiji Nakatani 6-27 Nakanoshima, Kita-ku, Osaka-shi, Osaka Sekisui House Co., Ltd.

Claims (1)

[Claims] 1. A loading rack for stacking and fixing composite panels in which a wall shaft assembly is attached to one side surface of the panel, and a base on which the wall shaft assembly of the composite panel is mounted, It is formed in an inverted gate shape with the pillars standing upright at both ends of this base, and each pillar is formed so that the stacking effective height from the upper surface of the base is larger than the mounting height of the composite panel. In addition, stacking pins and stacking holes facing each other at the upper and lower ends are concentrically provided so that the stacking pin of one loading rack can engage with the stacking hole of another loading rack. A rack for loading a composite panel, characterized in that a shaft assembly fixing hole that can be fitted into a binding hole of a wall shaft assembly is provided in an intermediate portion of each pillar.