WO2021149507A1

WO2021149507A1 - Coil frame

Info

Publication number: WO2021149507A1
Application number: PCT/JP2021/000439
Authority: WO
Inventors: 亮吉浅井; 照定三浦; 剛堀賀
Original assignee: 株式会社商船三井; 商船三井テクノトレード株式会社
Priority date: 2020-01-22
Filing date: 2021-01-08
Publication date: 2021-07-29
Also published as: TW202134145A; JPWO2021149507A1; EP4095069A4; CN115151493A; JP6913839B1; EP4095069A1

Abstract

This coil frame 1, in which a coil-like object 6 is mounted sideways and which is disposed on a transportation container 2, comprises: a pair of pedestal girders 21 which are disposed facing each other, extend in the longitudinal direction of the transportation container 2, and are placed on a container bottom surface 4; a frame horizontal girder 23 which extends in a direction orthogonal to the longitudinal direction and connects the pedestal girders 21; and a pair of coil support blocks 19 which are held by the pair of pedestal girders 21, have a block-like external shape, and have, on the upper surfaces thereof, support surfaces 53 for supporting the cylindrical surface of the coil-like object 6, the support surfaces 53 being inclined downward in an orientation approaching each other, wherein the coil support blocks 19 include an inner shell block 55 fixed to the pedestal girders 21, and an outer shell block 58 which covers the inner shell block 55 from outside, engages with a container side wall 5, and has a lower impact resilience than the inner shell block 55. Therefore, it possible to provide a frame which can support a coil-like object without scratching the object, even if the vertical load of the coil-like object is transmitted to the base of the container horizontal girder near the container side wall.

Description

Coil mount

The present invention relates to a coil mount.

A coil-like object, such as a steel plate coil, in which a plate material is wound in a cylindrical shape, is "horizontally placed" with the axial direction of the cylinder oriented horizontally in order to carry the fork of a forklift piercing the hole of the cylinder. It may be installed on a gantry, and the gantry may be mounted on a transportation container for transportation.
On the other hand, in the horizontal installation, the pedestal supports the cylindrical surface of the coiled object from below, so it is difficult to evenly transfer the load of the coiled object to the pedestal and the container. Either the gantry or the shipping container may be deformed or damaged.
As a structure for evenly transmitting the load of the coiled object to the pedestal and the transportation container, there is a pedestal having a U-shaped support surface corresponding to a cylinder for supporting the coiled object (Patent Document 1).

On the other hand, some shipping containers have lower strength than new ones due to repeated use. In a shipping container, a container cross girder that receives the load to be transported is arranged by connecting the side walls of the container to support the bottom surface of the container. The girder may be deformed and the coil or pedestal may be damaged. Therefore, it is preferable that there is a gantry that can not only evenly transmit the load of the coiled object to the gantry and the transportation container, but also cope with the decrease in strength of the container cross girder due to aging deterioration.

As a structure that can prevent damage even when the strength of the container cross girder is reduced, there is a structure that transmits a load to the root of the container cross girder near the connection portion with the container side wall. This is because the base of the horizontal girder of the container is less likely to be deformed than the central part. Therefore, there is also known a structure in which a pedestal for supporting the load of a coiled object is provided only near the side wall of the container (Patent Document 2).
In this structure, since the load is concentrated on both ends in the width direction of the gantry and the central portion is easily bent, the gantry, particularly the portion supporting the coiled object, may be formed of a rigid body that is not easily deformed by an external force. For example, in Patent Document 2, the retaining pawl that supports the coiled object is made of steel. However, if the gantry is made of a rigid body, there is a risk that the contact surface will be damaged due to scratches when the coiled object comes into contact with the gantry. Therefore, it has been difficult to transport a coiled material of a type in which scratches during transportation are not allowed in terms of quality control. On the other hand, if the support member of the coiled object is made of a material that does not scratch the coil, the support member may be deformed or damaged due to insufficient strength, and the coiled object may not be supported.

Japanese Patent Application Laid-Open No. 2017-95152 Japanese Patent Application Laid-Open No. 2003-192808

The present invention has been made in view of the above circumstances, and an object of the present invention is to provide a gantry, a coiled object, even if the structure transmits the vertical load of the coiled object to the root near the side wall of the container cross girder. And the provision of a pedestal that can support the container without damaging it.

In the coil mount of the present invention for achieving the above object, a coil-like object obtained by winding a plate-like member in a cylindrical shape is mounted sideways so that the axis of the cylinder faces in the horizontal direction, and is a transport container. A pair of girder-shaped pedestal girders that extend in the longitudinal direction of the transport container and are arranged to face each other and are placed on the bottom surface of the transport container. The cross girder extending in the orthogonal direction orthogonal to the pedestal girder and the cross girder connecting the pedestal girder and the outer shape held by the pedestal girder facing each other in the orthogonal direction are a pair of block-shaped members. The coil support block has a support surface on the upper surface that supports the cylindrical surface of the coiled object, and the support surfaces include a pair of coil support blocks that are inclined downward in a direction approaching each other. The inner shell block fixed to the pedestal girder and the inner shell block are covered from the outside to support the coil-like object with the support surface, and are engaged with the corrugated container side wall of the transportation container along the longitudinal direction. In addition, it is characterized by including an outer shell block having a lower repulsive elasticity than the inner shell block.

In this configuration, when a coil-like object is mounted on the coil mount, the support surface of the outer shell block is elastically deformed to follow the shape of the inner peripheral surface of the coil-like object to prevent scratches, and the inner shell block is coiled. It supports the shape and suppresses excessive deformation of the outer shell block.

According to the present invention, it is possible to provide a gantry that can support the gantry, the coiled object, and the container without damaging them, even if the structure transmits the vertical load of the coiled object to the root near the side wall of the container cross girder.

FIG. 1 is a plan view showing a transportation container equipped with a coil mount according to an embodiment of the present invention, and the description of the upper wall of the container is omitted. FIG. 2 is a front view of FIG. 1, and the description of the door and the back wall of the container is omitted. FIG. 3 is a perspective view showing a state in which the coil mount of FIG. 1 is mounted on the rail, with the left side being the front side of the shipping container and the right side being the back side. FIG. 4 is a perspective view showing a state in which the outer shell block and the guide member of FIG. 1 are removed. FIG. 5 is a perspective view of the coil mount viewed from an angle different from that of FIG. 1, and the description of the outer shell block, the upper inner shell block, and the contact member is omitted. 6A and 6B are cross-sectional views of FIG. 1, where FIG. 6A is a cross-sectional view taken along the line AA and FIG. 6B is a cross-sectional view taken along the line BB. 7 (a) is an enlarged view of one vertical load support block of FIG. 6 (b), and FIG. 7 (b) is an enlarged view of the vicinity of one vertical load support block of FIG. 6 (b). 8 is a cross-sectional view of FIG. 1, in which FIG. 8A is a cross-sectional view taken along the line CC and the outer shell block is omitted, and FIG. 8B is a cross-sectional view taken along the line DD. FIG. 9 is a flow chart of a procedure for transporting a coiled object using a coil mount. FIG. 10 is a diagram illustrating a procedure for transporting a coiled object using a coil mount. FIG. 11 is a diagram illustrating a procedure for transporting a coiled object using a coil mount. FIG. 12 is a diagram illustrating a procedure for transporting a coiled object using a coil mount. FIG. 13 is a diagram illustrating a procedure for transporting a coiled object using a coil mount.

Hereinafter, embodiments suitable for the present invention will be described in detail with reference to the drawings.
First, the configuration of the coil mount 1 according to the embodiment of the present invention will be described with reference to FIGS. 1 to 8.
In the present specification, the depth direction of the transportation container 2 on which the coil mount 1 is mounted is the X direction, the vertical direction is the Z direction, and the direction orthogonal to the X and Z directions is the Y direction.
Further, the drawings to be referred to are schematic views for explaining the embodiment, and the dimensional ratios and shapes of the members may differ from the actual ones for easy illustration and explanation.

As shown in FIGS. 1 and 2, the coil pedestal 1 is a transport container 2 in which a coil-shaped object 6 in which a plate-shaped member is wound in a cylindrical shape is mounted sideways so that the axis of the cylinder faces the horizontal direction. It is a stand placed inside.
As a specific coil-shaped object 6, a steel plate coil in which a steel plate is wound can be exemplified.
As shown in FIG. 2, the coil pedestal 1 is arranged inside the transportation container 2 so that the axial direction of the cylinder of the coiled object 6 faces the X direction. The transport container 2 means a box-shaped transport container that is transported by a vehicle, a ship, or the like while protecting the transport object from an external force while the transport object including the coil-shaped object 6 is mounted.

The transportation container 2 may have a size capable of accommodating the coil pedestal 1 on which the coil-shaped object 6 is mounted, and has a strength that does not deform due to the weight of these and vibration or impact during transportation. Specific examples thereof include 20-foot containers and 40-foot containers mainly used for marine transportation.
As shown in FIG. 1, the transportation container 2 includes a container side wall 5, a container cross girder 3, a container bottom surface 4, a back wall 10, and a door 12.
The container side walls 5 are a pair of corrugated side walls, and are arranged on the left and right sides when viewed from the X direction. The container cross girder 3 is a plurality of girders provided at predetermined intervals in the X direction by connecting the lower ends of the container side wall 5 in the Y direction. The bottom surface 4 of the container is a plate material stretched on the cross girder 3 of the container. The back wall 10 is a side wall on the back side in the X direction. The door 12 is a side wall that can be opened and closed provided on the front side in the X direction. The transportation container 2 also includes a container side wall 5, a back wall 10, and an upper wall covering the upper end of the door 12, but the description is omitted in FIG. The transportation container 2 is preferably a container having standardized dimensions such as an ISO container from the viewpoint of transportation efficiency, but may be a dedicated container.

As shown in FIGS. 1 to 6, the coil pedestal 1 includes a pedestal girder 21, a pedestal cross girder 23, a coil support block 19, a guide member 27, a contact member 28, and a push-out jig 30.

The pedestal girder 21 is a pair of support girders that receive the weights of other members constituting the coil pedestal 1 and the coiled object 6 mounted on the coil pedestal 1 and transmit the weights to the container cross girder 3 of the transportation container 2. ..
The pedestal girder 21 is a prismatic member extending in the X direction as one direction, and when mounted on the transportation container 2, extends in the X direction which is the longitudinal direction of the transportation container 2 and is arranged to face each other. And placed on the bottom 4 of the container. The length of the pedestal girder 21 in the X direction is preferably longer than the axial length of the cylinder of the coiled object 6. With such a length, when the coil-shaped object 6 is installed on the coil pedestal 1, the coil-shaped object 6 does not protrude from the coil pedestal 1 in the X direction.

The pedestal girder 21 is preferably made of a material that has strength not to be deformed by the weight of other members constituting the coil pedestal 1 and the coiled object 6 and is easy to process. Further, in order to facilitate the transportation of the coil mount 1 itself, a material as light as possible is preferable. Further, since the pedestal girder 21 slides on the bottom surface 4 of the container in the X direction when mounted on the transportation container 2, wear resistance is also required. Examples of such a material include wood such as laminated lumber and plastic artificial wood. A plastic artificial wood is a resin molded product obtained by molding and heating a resin piece such as polyethylene or polypropylene to adjust the strength and weight to be similar to that of wood.
Whether to use laminated lumber or plastic artificial wood may be appropriately set in consideration of the required strength, cost, environmental load, and the like. For example, laminated wood has an advantage over plastic artificial wood in terms of cost. On the other hand, plastic artificial wood is advantageous in that it is easy to adjust the strength and weight by adjusting the material, dimensions, molding and conditions of the resin piece. Further, since the resin piece of the raw material may be waste plastic, the environmental load is smaller than that of laminated lumber, and even if it is broken, it is advantageous that the broken material can be used as a new raw material for artificial plastic wood. However, since laminated lumber is made by reusing wood that could not be used as solid wood, it has a smaller environmental impact than solid wood.

As shown in FIGS. 3 to 6, a pair of pedestal girders 21 are connected to the pedestal cross girder 23. The gantry cross girder 23 is also a girder-shaped member, and is provided so as to extend in the Y direction, which is an orthogonal direction orthogonal to the X direction, in a state of being mounted on the transportation container 2.
The length of the gantry cross girder 23 in the Y direction is preferably equal to or larger than the diameter of the coiled object 6. With such a length, when the coil-shaped object 6 is installed on the coil pedestal 1, the coil-shaped object 6 does not protrude from the coil pedestal 1 in the Y direction. The upper limit of the length of the gantry cross girder 23 in the Y direction is the length that can be mounted on the transportation container 2.

The number of the pedestal cross girder 23 can be appropriately set as long as it can restrain the relative movement of the pedestal girder 21 and is in a position where it does not interfere with the mounting of the coiled object 6. FIG. 3 illustrates a pair of end cross girders 23a, a pair of coil fixed cross girders 23b, and a pair of reinforcing cross girders 23c. The end cross girder 23a is a pedestal cross girder 23 that connects a pair of pedestal girders 21 in the longitudinal direction, and has only a connecting function of the pedestal girder 21. The coil fixed cross girder 23b is a pedestal cross girder 23 provided in the vicinity thereof so as to be sandwiched between the end cross girders 23a. It also has a function to pinch and regulate its movement. The reinforced cross girder 23c is a pedestal cross girder 23 for reinforcement provided as needed when there is a possibility that the connecting force of the other pedestal cross girder 23 is insufficient, and is near the center of the pedestal girder 21 in the X direction. To concatenate. The reinforcing cross girder 23c has a shape in which the center in the Y direction is recessed, in order to prevent contact between the lower surface of the coiled object 6 and the reinforcing cross girder 23c.

As a means for connecting the pedestal girder 21 and the pedestal cross girder 23, a known fastening means such as a bolt may be used. Further, as shown in FIGS. 3 and 4, a structure in which the pedestal girder 21 is fitted into the connecting portion 51 of the pedestal cross girder 23 with the pedestal girder 21 as a concave shape having a length corresponding to the width of the pedestal girder 21 in the Y direction. Is preferable. This is because the position of the pedestal cross girder 23 to which the pedestal girder 21 is attached when the coil pedestal 1 is assembled can be easily visually grasped by the operator from the concave shape of the connecting portion 51.
The pedestal cross girder 23 is preferably lightweight because it has the strength to connect a pair of pedestal girders 21 and restrain the relative distance of the pedestal girder 21 in the Y direction and facilitates the transportation of the coil pedestal 1. Specifically, the same material as the pedestal girder 21 may be used.

By arranging the pedestal girders 21 as a pair of members facing each other in the longitudinal direction of the transportation container 2 and connecting them with the pedestal cross girders 23, a pair of roots of the container cross girders 3 near the left and right container side walls 5 are connected. A pair of pedestal girders 21 can be placed on top. Therefore, the load received by the pedestal girder 21 from the coiled object 6 can be transmitted to the root of the container cross girder 3 near the container side wall 5. Therefore, even if the strength of the container cross girder 3 is reduced, damage to the container cross girder 3 can be prevented.

In FIGS. 3 to 6, a pair of pedestal girders 21 include a fixed girder 29 and a movable girder 31, respectively. Therefore, the coil mount 1 of FIGS. 3 to 6 includes a pair of fixed girders 29 and a pair of movable girders 31.
The fixed girder 29 is a pedestal girder 21 whose mounting position with respect to the gantry cross girder 23 is determined, and in FIGS. 3 to 6, a pair of fixed girders 29 are connected to both ends of the gantry cross girder 23 in the extending direction. ..

The fixed girder 29 is also used as a sliding plate when the coil pedestal 1 is pulled into the transportation container 2 and when it is pulled out from the inside of the transportation container 2.
In the transportation container 2 shown in FIGS. 1 and 3 to 5, a pair of rails 25 are provided along the X direction above the root of the container cross girder 3 connected to the container side wall 5. Here, the rail 25 is a concave sheet metal when viewed from the X direction, and the width in the Y direction is slightly larger than the width in the Y direction of the fixed girder 29. When the coil mount 1 is mounted on the transportation container 2, the fixed girder 29 is housed in the rail 25 so that the bottom surface of the fixed girder 29 comes into contact with the concave bottom surface of the rail 25. When a force is applied to the coil pedestal 1 in the X direction in this state, the fixed girder 29 slides on the rail 25 and is guided by the concave side surface to move the coil pedestal 1 in the X direction.

As described above, the fixed girder 29 not only supports other members constituting the coil pedestal 1 and the coil-shaped object 6, but is also used as a sliding plate when the coil pedestal 1 is moved in the transportation container 2. Therefore, the coil mount 1 is also advantageous in that it is not necessary to separately prepare wheels and a sliding plate for movement in the transportation container 2.

As shown in FIGS. 3 to 5, the rail 25 is provided with a defective portion 25c in which both side surfaces are defective at a predetermined position. As shown in FIG. 1, a block-shaped stopper 34 wider than the width of the defective portion 25c in the Y direction is fitted to the defective portion 25c. The stopper 34 is a member that regulates the fixed girder 29 from moving in the X direction on the rail 25 after the installation of the coil pedestal 1 in the transportation container 2 is completed.

The movable girder 31 is a pair of girders that can be fixed at a plurality of different positions of the gantry cross girder 23 in the Y direction, and is provided between the pair of fixed girders 29 in the Y direction. As a structure capable of fixing the movable girder 31 to a plurality of different positions of the gantry cross girder 23, as shown in FIG. 3, the gantry cross girder 23 is connected in the Y direction of the gantry cross girder 23 rather than the number of movable girders 31. It suffices if the number of connecting portions 51 is large. In FIG. 3, there is one pair of movable girders 31, whereas two pairs of connecting portions 51 are provided as is clear from the shape of the reinforcing cross girder 23c.

By configuring the pedestal girder 21 with the fixed girder 29 and the movable girder 31, the distance between the fixed girder 29 and the movable girder 31 in the Y direction can be changed. For example, when the contact position between the coiled object 6 and the coil pedestal 1 is different in the Y direction due to a different diameter of the coiled object 6, the mounting position of the movable girder 31 to the pedestal cross girder 23 can be moved. As a result, the load of the coil-shaped object 6 applied to the coil support block 19 is evenly received by the fixed girder 29 and the movable girder 31.

The coil support block 19 is a member that directly contacts the coiled object 6 to receive and support the load.

As shown in FIGS. 2, 3 and 6, the coil support block 19 is a pair of members having a block-shaped outer shape held by a pair of pedestal girders 21 facing each other in the Y direction. Since the coil support block 19 supports the cylindrical surface of the coiled object 6, the coil support block 19 has a support surface 53 on the upper surface that supports the cylindrical surface. The support surface 53 is a pair of coil support blocks 19 that are inclined downward in a direction approaching each other, and has a portion having a wedge-shaped shape as a whole. Specifically, since the coil support blocks 19 face each other in the Y direction, the support surfaces 53 are inclined downward in the direction of approaching each other in the Y direction. Therefore, in FIG. 1, the support surface 53 of the coil support block 19 is inclined downward toward the center between the pedestal girders 21 in the Y direction.

In this structure, as shown in FIG. 2, the support surface 53 sandwiches both side surfaces of the cylindrical surface of the coil-shaped object 6 and supports the coil-shaped object 6 in a manner of receiving the cylindrical surface from below.
Even if the coiled object 6 tries to move in the Y direction in this state, the movement is prevented by the support surface 53 which is an inclined surface. Further, even if an attempt is made to move downward in the Z direction, the movement is blocked by the support surface 53, which is an inclined surface. Therefore, the coil support block 19 can restrain the downward movement of the coil-shaped object 6 in the Y direction and the Z direction. Further, in this structure, when the coil-shaped object 6 is sandwiched between the inclined surfaces of the coil-supporting block 19 when viewed from the X direction, if the pair of coil-supporting blocks 19 are in contact with each other at even one place, the coil-shaped object is formed. 6 can be held. Therefore, the coil-shaped objects 6 having different diameters can be held by the coil-supporting blocks 19 having the same dimensions as long as the coil-shaped objects 6 have a diameter that does not come into contact with the bottom surface 4 of the container when mounted on the pair of coil-supporting blocks 19. .. Therefore, it is not necessary to change the dimensions and shape of the coil support block 19 according to the diameter of the coiled object 6.

The movement of the coiled object 6 upward in the Z direction is blocked by the lashing belt 52 shown in FIG.
In FIG. 2, the lashing belt 52 ties the coil-like object 6 and the coil pedestal 1 together. Specifically, the lashing belt 52 is passed through the gap between the pedestal girder 21 and the bottom surface 4 of the container, which is located below the coil support block 19, and the lashing belt 52 is further passed through the cylindrical hole of the coiled object 6. The coil-shaped object 6 and the coil pedestal 1 are firmly tied together by being passed through and bound in a loop shape.

The coiled object 6 may be fixed to the transportation container 2, but it is preferably fixed to the coil pedestal 1. The reason is as follows.
When the coiled object 6 is lashed to the shipping container 2, whether or not it is properly lashed depends on the strength of the shipping container 2. On the other hand, even if the transportation container 2 is a standard product such as an ISO container, its strength may decrease due to aged deterioration. Since the shipper is not always the owner of the shipping container 2, it may be difficult for the shipper to guarantee the strength of the shipping container 2.
On the other hand, since the coil pedestal 1 is used exclusively for transporting the coiled object 6 and the shipper is the owner, it is easier to guarantee the strength than the transport container 2.

Further, in the coil pedestal 1, a pair of pedestal girders 21 are provided near the container side wall 5 in order to transmit the load of the coil-shaped object 6 to the root of the container cross girder 3 of the transportation container 2 near the container side wall 5. A coil support block 19 is provided on the upper surface of the pedestal girder 21.
Therefore, a gap is formed between the coil support block 19 and the bottom surface 4 of the container shown in FIG. 2, that is, in the vicinity below the portion of the coil-shaped object 6 that receives the vertical component of the load F. If the coil-shaped object 6 and the coil pedestal 1 are connected to this gap through the lashing belt 52, even if the coil-shaped object 6 tries to move in the Z direction against the lashing force, the load of the coil-shaped object 6 itself is applied. The vertical component of F can prevent movement. The above is the reason why it is preferable to fasten the coil-shaped object 6 to the coil mount 1.
As described above, the coil mount 1 is also characterized in that it has a shape that can be fixed to the coil-shaped object 6.

When the coiled objects 6 having different diameters are supported, the positions in the Y direction in contact with the coiled objects 6 on the support surface 53 are different. For example, consider a case where two types of coil-shaped

objects

6a and 6b having different diameters are mounted on the coil mount 1 as the coil-shaped object 6 as shown in FIG. 6A.
In this case, in order to prevent the vertical load received from the coiled objects 6 from being biased to one of the pair of pedestal girders 21, the axial centers of the coiled

objects

6a and 6b are fixed in the Y direction regardless of the diameter. The coiled objects 6a and 6b are arranged so as to be located at the center between the girders 29. Therefore, as the diameter becomes smaller, the Y-direction position where the coil-shaped object 6 and the coil support block 19 come into contact becomes closer to the center between the fixed girders 29 and farther from the fixed girders 29. In FIG. 6A, the diameter of the coiled object 6b is smaller than the diameter of the coiled object 6a. Therefore, the Y-direction position of the coil-shaped object 6b in contact with the coil-supporting block 19 is farther from the fixed girder 29 than the coil-shaped object 6a.
On the other hand, the movable girder 31 of the coil mount 1 can change the distance between the fixed girder 29 and the movable girder 31 in the Y direction. Since the connection position of the fixed girder 29 with the gantry cross girder 23 does not change, the position of the movable girder 31 in the Y direction can be changed in this configuration. Therefore, as the diameter of the coiled object 6 becomes smaller, the installation position of the movable girder 31 in the Y direction is brought closer to the center between the fixed girders 29, that is, the axial center of the coiled object 6, so that the coiled object 6 is added to the coil support block 19. The load of the object 6 is evenly received by the fixed girder 29 and the movable girder 31. For example, in FIG. 6A, when the coiled object 6a is mounted, the installation position of the movable girder 31 in the Y direction is set to position P1, and when the coiled object 6b is mounted, the installation position of the movable girder 31 in the Y direction is positioned. The position P2 may be closer to the axis center of the coiled object 6 than P1.

As shown in FIG. 6B, each pair of coil support blocks 19 includes an inner shell block 55 and an outer shell block 58, respectively.

The inner shell block 55 is a block-shaped member for supporting the coil support block 19 on the pedestal girder 21, and is fixed to the pedestal girder 21 by fastening means such as bolts (not shown) with the longitudinal direction facing the Y direction. In FIG. 4, since two inner shell blocks 55 are provided for one coil support block 19, a total of four are provided. Each of the four inner shell blocks 55 faces one other inner shell block 55 in the Y direction. Further, since the pedestal girder 21 of the coil pedestal 1 includes the fixed girder 29 and the movable girder 31, one inner shell block 55 straddles the adjacent fixed girder 29 and the movable girder 31 as shown in FIG. 6 (b). There is.

As shown in FIGS. 4, 5 and 6 (b), the inner shell block 55 includes a lower inner shell block 57, an upper inner shell block 59, and a connecting block 61.
The lower inner shell block 57 is a long plate-shaped member that serves as a pedestal for the inner shell block 55, and is fixed to the pedestal girder 21 by straddling a fixed girder 29 and a movable girder 31 that are adjacent to each other. As shown in FIG. 6B, the lower inner shell block 57 is provided with a concave lower side connecting recess 57a on the upper surface.
The upper inner shell block 59 is a block-shaped member mounted on the upper surface of the lower inner shell block 57, and is recessed in the lower surface located above the lower connecting recess 57a while being mounted on the upper surface of the lower inner shell block 57. It is provided with a connecting recess 59a on the upper side of the shape. The dimensions and shape of the upper connecting recess 59a are the same as those of the lower connecting recess 57a.

The connecting block 61 is a block-shaped member that connects the lower inner shell block 57 and the upper inner shell block 59, has an approximate shape corresponding to the upper connecting recess 59a and the lower connecting recess 57a, and has a height of 2. Double.
Therefore, the upper inner shell block 59 and the lower inner shell block 57 can be connected by inserting the connecting block 61 into the upper connecting recess 59a and the lower connecting recess 57a. If the upper inner shell block 59 and the lower inner shell block 57 are attempted to move relative to each other in the Y direction in the connected state, the upper connecting recess 59a and the lower connecting recess 57a are caught by the connecting block 61, so that the movement is restricted. As shown in FIG. 5, an engaging groove 57c, which is a groove portion along the Y direction, is also provided on the upper surface of the lower inner shell block 57. Further, as shown in FIG. 4, an engaging convex portion 59c that fits into the engaging groove 57c is also provided on the lower surface of the upper inner shell block 59. In this structure, by aligning the engaging groove 57c and the engaging convex portion 59c, the relative movement of the upper inner shell block 59 and the lower inner shell block 57 in the X direction can also be regulated.

As shown in FIG. 6B, the upper surfaces of the upper inner shell block 59 and the lower inner shell block 57 are inclined downward in the same direction as the support surface 53 at a portion located below the support surface 53. Specifically, the portion of the lower inner shell block 57 located below the support surface 53 has a lower inclined portion 57b that is inclined downward toward the center in the Y direction, which is in the same direction as the support surface 53. Be prepared. The portion of the upper inner shell block 59 located below the support surface 53 includes an upper inclined portion 59b that is inclined downward toward the center in the Y direction, which is in the same direction as the support surface 53.

In this structure, since the lower inner shell block 57 is straddled between the fixed girder 29 and the movable girder 31, it can also fulfill the function of increasing the connecting strength between the fixed girder 29 and the movable girder 31.
Further, in this structure, the upper inner shell block 59 can be connected to the lower inner shell block 57 as long as the upper connecting recess 59a has a shape into which the connecting block 61 can be inserted. Therefore, by preparing a plurality of upper inner shell blocks 59 having different shapes, dimensions, and strengths, the upper inner shell block 59 suitable for connecting to the lower inner shell block 57 according to the dimensions, weight, etc. of the coiled object 6 is provided. Can be changed.

Further, as shown in FIG. 6B, the upper surfaces of the upper inner shell block 59 and the lower inner shell block 57 have an upper inclined portion 59b and a lower inclined portion 57b which are inclined surfaces located below the support surface 53. It has an arc shape that is convex upward when viewed from the X direction, which is the extending direction of the pedestal girder 21. Such a shape is also called a ginkgo type.
By forming the inclined surface into a ginkgo shape in this way, the inclined surface supports the coil-shaped object 6 as an arch structure. Therefore, the strength of the inner shell block 55 with respect to the load of the coiled object 6 is improved as compared with the case where the inclined surface has a linear structure.

The outer shell block 58 is a member that directly contacts the coil-shaped object 6 and supports the coil support block 19 not only on the pedestal girder 21 but also on the container side wall 5.
As shown in FIGS. 3 and 6B, the outer shell block 58 is arranged so as to cover the inner shell block 55 from the outside, and includes a support surface 53.
Further, as shown in FIG. 3, the outer shell block 58 is provided with a block-side corrugated portion 75 that engages with the container side wall 5 of the transportation container 2 on the end surface on the container side wall 5 side in the Y direction. Therefore, as shown in FIG. 2, when the load F applied to the outer shell block 58 becomes the load F'shifted in the horizontal direction due to the rolling motion of the ship or vehicle during transportation, this load F'is the side wall of the container. Directly transmitted to 5. Therefore, the movement of the coil pedestal 1 in the horizontal direction due to shaking during transportation can be suppressed by the container side wall 5.
Although the outer shell block 58 is held by the inner shell block 55, it is only fitted and not fastened to each other by bolts or the like.
Specifically, as shown in FIG. 7A, the outer shell block 58 is formed with a storage recess 58a corresponding to the outer shape of the inner shell block 55 on the bottom surface, and the inner shell block 55 is a storage recess of the outer shell block 58. By inserting and fitting into 58a, the inner shell block 55 is covered from the outside.

The materials of the inner shell block 55 and the outer shell block 58 are different. Specifically, the outer shell block 58 is composed of an elastic body having a lower rebound elastic modulus than the inner shell block 55.
The rebound elastic modulus is a physical property value indicating the degree of energy absorption when elastically deforming following the outer shape of an object to which a load is applied. The lower the repulsive elastic modulus, the more the original shape when elastically deformed by a load. It means that the speed of returning to is slow. When the outer shell block 58 is made of an elastic body, the contact area is increased by elastically deforming following the deformation of the coil-shaped object 6 due to the load, so that stable support is possible as compared with the rigid body, and the coil-shaped object can be supported. 6 is preferable because it is difficult to scratch. Further, when the coiled object 6 is removed, it returns to its original shape due to elastic deformation, which is also preferable in that it can withstand repeated use. On the other hand, if a material having a high elastic modulus is simply used for the outer shell block 58, the outer shell block 58 repels the deformation of the coiled object 6 due to the load and immediately tries to return to the original shape. Therefore, if the contact position shifts even slightly due to vibration during transportation, the outer shell block 58 may immediately repel and stable support may be difficult. Especially in marine transportation, the hull sway of the transport ship due to waves causes rolling and pitching of a magnitude that does not occur during land transportation, which makes stable support even more difficult.
Therefore, by using an elastic body having a low rebound elastic modulus for the outer shell block 58, the speed of returning to the original shape becomes slow when the coil-shaped object 6 is elastically deformed by the load, and more stable support becomes possible. As a method for measuring the elastic modulus, the method described in JIS K 6400-3 can be mentioned.

On the other hand, if the entire coil support block 19 is made of an elastic body having a low repulsive elastic modulus, the coil-shaped object 6 may be excessively deformed by a load and the coil-shaped object 6 may not be supported. Therefore, the inner shell block 55 having a high rebound resilience is covered with the outer shell block 58 having a low rebound resilience, that is, the hard inner shell block 55 is used as the core material of the soft outer shell block 58. The block 55 supports the coiled object 6 to suppress excessive deformation of the outer shell block 58.
Therefore, even if the structure is such that the load of the coiled object 6 is transmitted to the root of the container cross girder 3 near the container side wall 5, the coiled object 6 can be supported without damaging the coiled object 6 and the transportation container 2.
The "hard" material here means the one with a small deformation when one is pressed against the other, and the "soft" material means the one with a large deformation when one is pressed against the other. ..

On the other hand, the outer shell block 58 and the inner shell block 55 are not fixed to each other, and only the outer shell block 58 is engaged with the container side wall 5.
Therefore, as shown in FIG. 2, when the load F applied to the outer shell block 58 becomes the load F'shifted in the horizontal direction due to the rolling motion of the ship or vehicle during transportation, the load F'is changed. It is transmitted directly to the container side wall 5. Therefore, the movement of the coil pedestal 1 in the horizontal direction due to shaking during transportation can be suppressed by the container side wall 5.

Further, as shown in FIG. 6B, by providing the inner shell block 55 with an inclined portion, the load of the coiled object 6 applied to the support surface 53 is along the lower inclined portion 57b and the upper inclined portion 59b. Is added to the inner shell block 55.
Therefore, as compared with the case where the inner shell block 55 is formed of a simple cube or the like, the load of the coiled object 6 applied to the outer shell block 58 is received more evenly by the inner shell block 55, and the outer shell block 58 and the inner shell block 58 and the inner shell block 55 are received. The shell block 55 is less likely to be damaged.

Examples of the material constituting the outer shell block 58 include bead method foamed polyolefin. The bead method foamed polyolefin is a material that is foamed by the bead method when olefins such as ethylene and propylene are condensed into polyolefin. The beaded foamed polyolefin is preferable because it has a lower elastic modulus than a material in which styrene is foamed, such as expanded polystyrene. Specific examples of the bead method foamed polyolefin include bead method foamed polyethylene and bead method foamed polypropylene.

The material of the inner shell block 55 does not necessarily have to be a material having a low elastic modulus, and does not necessarily have to be an elastic body. This is because the inner shell block 55 is a member that supports the coil support block 19 on the pedestal girder 21 and does not come into direct contact with the coil-like object 6, so it is necessary to consider repulsion at the time of contact as compared with the outer shell block 58. Is low. Further, if the elastic modulus of the inner shell block 55 is too low, the inner shell block 55 may be crushed by the load of the coil-shaped object 6, and the coil-shaped object 6 may come into contact with the reinforcing cross girder 23c or the bottom surface 4 of the container. ..

However, if the elastic modulus of the outer shell block 58 is lower than that of the inner shell block 55, it is not necessary to make the inner shell block 55 and the outer shell block 58 from completely different materials. Specifically, both the upper inner shell block 59 and the outer shell block 58 may be formed of beaded foamed polyolefin, and the outer shell block 58 may be used as a material having a higher expansion ratio. This is because, in the case of the beaded foamed polyolefin having the same composition, the higher the foaming ratio, the higher the porosity and the lower the elastic modulus. In this case, the bead method foamed polypropylene having a foaming ratio of 8 to 15 times constitutes the upper inner shell block 59 of the inner shell block 55, and the bead method foamed polyethylene having a foaming ratio of 18 to 20 times constitutes the outer shell block 58. Is preferable. This is because the bead method foamed polypropylene has a higher elastic modulus than the bead method foamed polypropylene, but is less likely to be deformed by an external force. Since the lower inner shell block 57 is preferably made of a material that is not easily deformed, it may be laminated lumber or plastic artificial wood.
In this configuration, the upper inner shell block 59 and the outer shell block 58 having different physical characteristics can be manufactured by using the same polyolefin manufacturing apparatus only by changing the raw material and the foaming conditions at the time of manufacturing, which is advantageous in terms of productivity. ..
The upper inner shell block 59 may be made of a material different from the bead method foamed polyolefin, such as laminated wood or plastic artificial wood, as long as it has a higher elastic modulus than the outer shell block 58. However, laminated lumber and plastic artificial wood tend to be heavy and are not suitable for safe and simple lashing work.
Therefore, by forming the upper inner shell block 59 and the outer shell block 58 with beaded foamed polyolefins having different foaming ratios and materials, it is possible to prevent scratches on the coiled object 6 and to easily satisfy the requirements for safe transportation. Safe lashing work can be realized.

As shown in FIGS. 3 and 6 (b), the outer shell block 58 includes a vertical load support block 71 and a fixing member 73.

The vertical load support block 71 is a block-shaped portion of the outer shell block 58 that is in contact with the inner shell block 55 and the coil-shaped object 6. More specifically, the vertical load support block 71 has a support surface 53 on the upper surface as shown in FIG. 6 (b) and a housing recess 58a on the bottom surface as shown in FIG. 7 (a). Since the vertical load support blocks 71 are members that cover the inner shell blocks 55, the same number as the inner shell blocks 55 are provided.
The vertical load support block 71 shown in FIG. 3 has a block-side waveform having a waveform shape in which a surface facing the container side wall 5, that is, a surface of the support surface 53 facing in the direction opposite to the inclined direction extends in the X direction in a plan view. It has a part 91.

The fixing member 73 is a block-shaped member of the outer shell block 58 that regulates the horizontal movement of the outer shell block 58 by fitting with the corrugated container side wall 5. As shown in FIG. 2, when the load F applied to the outer shell block 58 becomes the load F'shifted in the horizontal direction due to the rolling motion of the ship or vehicle during transportation, this load F'is from the fixing member 73. It is transmitted to the container side wall 5.
As shown in FIG. 3, the fixing member 73 has a block shape extending in the X direction, and has a block-side corrugated portion 75 and a fixing member-side corrugated portion 81.
The block-side corrugated portion 75 is provided on a surface facing the container side wall 5, that is, a surface of the support surface 53 facing in the direction opposite to the inclined direction, and is a corrugated portion that fits with the corrugated container side wall 5.
The fixed member side corrugated portion 81 is a portion of the vertical load support block 71 that engages with the block side corrugated portion 91, and is provided on a surface facing the block side corrugated portion 91, that is, a surface opposite to the block side corrugated portion 75. .. The shape of the fixed member side waveform portion 81 is the shape of a waveform extending in the X direction in a plan view, and the shape and dimensions of waves such as wavelength and amplitude are the same as those of the block side waveform portion 91.

In this structure, the block-side corrugated portion 91 of the vertical load support block 71 and the fixed member-side corrugated portion 81 of the fixing member 73 are engaged with each other, so that the vertical load support block 71 and the fixing member 73 are integrated to form the outer shell block 58. do. Further, the container side wall 5 and the block-side corrugated portion 75 are aligned with each other in an integrated state, so that the horizontal movement of the outer shell block 58 is restricted. Further, as shown in FIG. 2, when the load F applied to the outer shell block 58 becomes the load F'shifted in the horizontal direction due to the rolling motion of the ship or vehicle during transportation, this load F'is the container side wall 5 Is directly transmitted to.

Further, in this structure, the relative positions of the vertical load support block 71 and the fixing member 73 in the X direction can be changed by changing the phase of the wave in which the block-side corrugated portion 91 and the fixing member-side corrugated portion 81 are engaged. The advantages of this configuration are as follows.

The transportation container 2 is often deeper than the length of the fork of the forklift that conveys the coiled object 6. Therefore, if the coil pedestal 1 is fixed in the transport container 2 in the X direction and then the coiled object 6 is mounted on the coil pedestal 1, the fork may not reach the coil pedestal 1. Therefore, it is preferable to first mount the coil pedestal 1 at a position where the fork can reach, mount the coil-shaped object 6, and then move the coil pedestal 1 to the back side in the X direction to move it to a desired fixed position.
On the other hand, when the fixing member 73 is fitted with the container side wall 5, the fixing member 73 restrains the movement in the X direction. Therefore, it is preferable to separate the fixing member 73 from the vertical load support block 71 (see FIG. 10) until the coil pedestal 1 moves to a desired fixing position, and to integrate the fixing member 73 after the movement (see FIG. 13).
However, at the time of integration, a fitting structure is required in which the fixing member 73 and the vertical load support block 71 are fitted so as not to move in the X direction.
The fitting structure may be a simple uneven fitting, but the X-direction position of the fixing member 73 is constrained by the container side wall 5, while the X-direction position of the vertical load support block 71 is constrained by the stopper 34. Therefore, depending on the installation position of the stopper 34, the position of the unevenness of the fixing member 73 and the vertical load support block 71 in the X direction may be deviated from each other in the simple fitting of the unevenness.
Therefore, if the structure is such that the fixing member 73 and the vertical load supporting block 71 are connected by the block-side corrugated portion 91 and the fixing member-side corrugated portion 81, even if the fixing member 73 and the vertical load supporting block 71 are displaced in the X direction. , If the waves are engaged with the phase shifted, the misalignment can be absorbed.

Further, if the distance in the X direction of the two vertical load support blocks 71 adjacent to each other in the X direction is longer than the axial length of the coiled object 6, the coiled object 6 cannot be supported. Therefore, in this case, it is necessary to move the position in the X direction so that the distance between the vertical load support blocks 71 is shorter than the axial length of the coiled object 6. Even in this case, even if the positions of the vertical load support block 71 and the fixing member 73 after movement are displaced in the X direction, the displacement can be absorbed by engaging the waves with their phases shifted.

Further, the shapes of the block-side corrugated portion 91 and the fixing member-side corrugated portion 81 are different from the block-side corrugated portion 75 and are not affected by the corrugated shape of the container side wall 5. Therefore, it is also useful that the shorter the wavelength, the shorter the minimum distance in the X direction in which the engagement position can be adjusted, and the finer the adjustment of the positional deviation becomes possible.
However, if the wavelengths of the block-side corrugated portion 91 and the fixed member-side corrugated portion 81 are shortened too much, the intensity is lowered and the corrugated portion is easily broken. Therefore, the intensity is appropriately set within a range in which the intensity can be maintained.
In addition, the larger the amplitude of the wave, the higher the holding force due to engagement, but if it is too large, the corrugated part is likely to break, so set it appropriately within the range where the strength can be maintained.
The outer shell block 58 shown in the figure has a structure in which two vertical load support blocks 71 and one fixing member 73 are combined, but one vertical

load support block

71 and 1 are formed by dividing the fixing member 73 into two or the like. A structure in which two fixing members 73 are combined may be used. That is, the number of combinations of the outer shell block 58 and the vertical load support block 71 can be appropriately selected.

On the other hand, in the case of a structure in which the fixing member 73 and the vertical load supporting block 71 are connected by the block-side corrugated portion 91 and the fixing member-side corrugated portion 81, the fixing member 73 and the vertical load supporting block 71 are engaged by the load of the coiled object 6. There is a possibility that the case will be lost. This point will be described.
Since the coil support block 19 receives the load of the coil-like object 6 on the support surface 53 inclined downward, the support surface 53 of the outer shell block 58 is oriented in H1 shown in FIG. 7B due to the load of the coil-like object 6. Pulled by.
When the support surface 53 is pulled in the direction of H1, the reverse inclined portion 54, which is the upper surface closer to the fixing member 73 than the support surface 53, is pulled in the direction of H2. The direction of H2 is the direction away from the fixing member 73. Therefore, depending on the tensile force, the block-side corrugated portion 91 may come off from the fixed member-side corrugated portion 81, and the vertical load support block 71 may float in the direction of H2. In this state, the fixing member 73 and the vertical load support block 71 are disengaged. Further, when the support surface 53 is pulled in the direction of H1, the coiled object 6 may also be lowered and come into contact with the bottom surface 4 of the container.

Therefore, in order to prevent the vertical load support block 71 from rising, the coil support block 19 has an inner shell side corrugated portion 62a, an outer shell side corrugated portion 62b, a block groove portion 54a, and an dovetail as shown in FIGS. 4 and 7. It includes 56a and a dovetail groove 56b.

Specifically, as shown in FIGS. 4 and 7, the inner shell side corrugated portion 62a is provided on the upper surface of the inclined surface of the upper inner shell block 59. The inner shell side corrugated portion 62a is a corrugated portion when viewed from the X direction, which is the extending direction of the pedestal girder 21.
Further, as shown in FIG. 7, the outer shell side waveform of the waveform that engages with the inner shell side corrugated portion 62a is on the contact surface of the outer shell block 58 with the inclined surface of the inner shell block 55, that is, on the upper surface of the accommodating recess 58a. Part 62b is formed.

Further, as shown in FIG. 7, the upper inner shell block 59 is provided with a reverse inclined portion 54 inclined downward in the direction opposite to the support surface 53 on the upper surface of the fixing member 73 side of the support surface 53.
The reverse inclined portion 54 includes a block groove portion 54a extending in the X direction, which is the extending direction of the pedestal girder 21.

Further, the upper inner shell block 59 is provided with an dovetail or a dovetail groove provided along the vertical direction on a vertical surface facing the fixing member 73. 4 and 7 show the ant hozo 56a.
On the other hand, the inner peripheral surface of the outer shell block 58 facing the vertical surface of the upper inner shell block 59 is provided with a dovetail groove or an dovetail groove that engages with the dovetail groove or the dovetail groove. FIG. 7 illustrates a dovetail groove 56b that engages with the dovetail groove 56a.

In this structure, when the support surface 53 of the vertical load support block 71 is pulled in the direction of H1 shown in FIG. 7B by the load of the coiled object 6, the vertical load support block 71 is lifted as follows. Be blocked.
First, the engagement between the inner shell side corrugated portion 62a and the outer shell side corrugated portion 62b prevents the outer shell block 58 from moving relative to the inner shell block 55 in the direction of H1. As a result, the reverse inclination portion 54 is pulled in the direction of H2 to prevent the vertical load support block 71 from floating.
Next, even if the reverse inclined portion 54 is pulled in the direction of H2, the pulling force is increased by deforming the block groove portion 54a so as to expand in the horizontal direction as shown by the arrow H3 in FIG. 7 (b). It is prevented from being transmitted to the block side waveform unit 91. As a result, the block-side waveform portion 91 shown in FIG. 7 (a) is prevented from moving in the direction of H2 in FIG. 7 (b), and the block-side waveform portion 91 is moved from the fixed member-side waveform portion 81 (see FIG. 3). Prevent it from coming off.
Further, the vertical load support block 71 and the upper inner shell block 59 engage with the dovetail groove 56a at the dovetail groove 56b to restrict the movement in the horizontal direction. As a result, the movement of the block-side corrugated portion 91 in the direction of H1 is prevented, and the block-side corrugated portion 91 is prevented from coming off from the fixed member-side corrugated portion 81.

The guide member 27 is a member that regulates the movement of the pedestal girder 21 toward the container side wall 5 in the Y direction, and is a block-shaped member inserted between the pedestal girder 21 and the container side wall 5.
Specifically, as shown in FIG. 5, the guide member 27 is a cube, and the pedestal girder side contact surface 27a, which is one of the surfaces parallel to the XX plane, comes into contact with the pedestal cross girder 23. In FIG. 5, a guide member recess 27b is provided on the pedestal girder side contact surface 27a. Of the reinforced cross girder 23c, the portion protruding toward the container side wall 5 in the Y direction beyond the pedestal girder 21 is fitted into the guide member recess 27b, whereby the guide member 27 is fixed to the pedestal girder 23c and the pedestal girder is fixed. The relative position with 21 is fixed.
As shown in FIG. 2, the guide member 27 is provided on the bottom surface 4 of the container. Therefore, the guide member 27 is provided below the fixing member 73, and also functions to support the fixing member 73 from below.

As shown in FIG. 5, the pedestal girder side contact surface 27a includes a guide member side corrugated portion 50 that engages with the block side corrugated portion 91. The guide member side corrugated portion 50 is a corrugated portion along the X direction in a plan view. By engaging the guide member side corrugated portion 50 with the block side corrugated portion 91, the guide member 27 can be engaged with the vertical load support block 71, and the effect of preventing the vertical load support block 71 from rising is further improved. do.
Further, since the guide member side corrugated portion 50 engages with the block side corrugated portion 91, the height of the upper surface of the guide member 27 is higher than the lower end of the block side corrugated portion 91. That is, the guide member 27 also faces the vertical load support block 71 of the outer shell block 58.

On the other hand, the surface opposite to the pedestal girder side contact surface 27a, that is, the wall surface side guide surface 27c, which is the surface facing the container side wall 5, is a flat surface that is neither corrugated nor corrugated, and is a flat surface of the container side wall 5 as shown in FIG. It comes into contact with the convex portion 32a of the corrugated portion. Therefore, the movement of the guide member 27 in the Y direction is restricted by the convex portion 32a of the container side wall 5. On the other hand, since the wall surface side guide surface 27c is neither corrugated nor corrugated, it is separated from the recess 32b of the container side wall 5 without abuting. Therefore, the wall surface side guide surface 27c does not fit with the container side wall 5, and the movement of the guide member 27 in the X direction is not restricted by the container side wall 5.

When an external force is applied to the coil pedestal 1 in the X direction while the coil pedestal 1 is mounted on the transportation container 2, the wall surface side guide surface 27c of the guide member 27 comes into contact with the convex portion 32a of the wall surface side corrugated portion 32 and slides. While moving, it is guided in the X direction until it comes into contact with the stopper 34.

Therefore, not only the rail 25 but also the guide member 27 can be used as a guide when moving the coil mount 1 in the X direction, which is the longitudinal direction of the transportation container 2, and the load of the guide of the rail 25 can be reduced. Further, even when the coil pedestal 1 is mounted on the transportation container 2 in which the rail 25 is not provided, the coil pedestal 1 can be guided in the X direction.

The guide member 27 is made of a material that is strong enough to support the fixing member 73 without being easily worn or damaged by sliding when the coil mount 1 is moved in the X direction, and has a mass that does not burden the operator during installation. Set as appropriate. Specifically, the same material as the outer shell block 58 can be mentioned. The number of guide members 27 is the same as that of the fixing member 73 in the drawing, but may be different as long as the fixing member 73 can be supported.

The contact member 28 abuts on both end surfaces of the coil-shaped object 6 which are flat surfaces at both ends in the axial direction and sandwiches the coil-shaped object 6 in the X direction, whereby the coil-shaped object 6 moves in the X direction on the coil mount 1. It is a member that regulates the use. In particular, when the coiled object 6 is transported by land, the coil pedestal 1 moves in the X direction because the transport vehicle accelerates and decelerates more frequently than the ship according to the instruction of the traffic signal and the distance between the vehicle and the vehicle traveling in front and behind. Easy to vibrate. Therefore, it is more important to regulate the movement of the coiled object 6 in the X direction during land transportation than during sea transportation, and the contact member 28 is important.
As shown in FIG. 3, the abutting members 28 are on the facing surface side of a pair of coil fixed cross girders 23b, which is a kind of a pair of gantry cross girders 23 arranged to face each other so as to sandwich the coil-shaped object 6. It will be provided.
More specifically, as shown in FIG. 8, the bottom surface of the contact member 28 is provided with a contact member recess 28a having a concave cross-sectional shape, and the distance Lx in the X direction between the side surfaces of the contact member recess 28a is a coil. It is formed to be approximately the same as the width of the fixed cross section 23b in the X direction.
In this structure, the contact member 28 is provided on the facing surface side of the reinforcing cross girder 23c by fitting and fixing the coil fixing cross girder 23b with the contact member recess 28a facing down.

The width Dy of the abutting member 28 in the Y direction shown in FIG. 1 is such that the abutting member 28 is in contact with the coiled object 6 in a state of being fixed to the reinforcing cross girder 23c, and the abutting member 28 is in contact with the coiled object 6 due to vibration during transportation or the like. However, it is preferable that the width is such that the coil-shaped object 6 does not come into contact with the coil-fixed cross girder 23b due to vibration during transportation or the like. However, if the structure is such that the cushioning material is inserted between the contact member 28 and the coil-shaped object 6, the coil-shaped object 6 and the contact member 28 do not have to come into contact with each other.
The width Dy is larger than the diameter of the coiled object 6 if the coiled object 6 has a width such that the coiled object 6 does not come into contact with the coil fixed cross girder 23b even when the coiled object 6 rotates in the horizontal direction due to vibration during transportation or the like. It doesn't have to be long.
On the other hand, as shown in FIG. 1, in the X direction, which is the extending direction of the pedestal girder 21, the distance Dx between the pair of abutting members 28 is the cylinder of the coiled object 6 in a state where the coiled object 6 is not mounted. Axial distance of Cx or less. This is because if this condition is not satisfied, a gap is formed between the coiled object 6 and the contact member 28, and the coiled object 6 cannot be sandwiched and held. However, when the cushioning member is inserted into the gap, the distance Dx between the pair of abutting members 28 does not have to be less than or equal to the axial distance Cx of the cylinder of the coiled object 6.

Although the contact member 28 is fixed to the coil fixing cross girder 23b in FIG. 1, it may be fixed to the end cross girder 23a without providing the coil fixing cross girder 23b. When fixing to the coil fixed cross girder 23b, the load applied to the end cross girder 23a can be reduced, and the number of the gantry cross girders 23 increases, which is advantageous in that the overall strength of the coil gantry 1 is improved. ..
When the end cross girder 23a is fixed, the end cross girder 23a also serves as the coil fixing cross girder 23b, so that the structure of the coil pedestal 1 is simplified, which is advantageous in terms of cost and workability.

The abutting member 28 is required to have viscoelasticity that does not scratch the coiled object 6 even if vibration occurs during transportation in a state of being in contact with the coiled object 6. Specifically, the same material as the outer shell block 58 may be used.
Further, when the cushioning material is inserted between the abutting member 28 and the coiled object 6, the material of the cushioning material also holds the coiled object 6 even if vibration occurs during transportation in the state of being in contact with the coiled object 6. Viscoelasticity that does not scratch is required. Specifically, the same material as the outer shell block 58 may be used.

By sandwiching both end faces of the coil-shaped object 6 in the X direction with the abutting member 28 in this way, the movement of the coil-shaped object 6 in the X direction, which is the axial direction of the coil-shaped object 6, can be restrained, and the coil being transported. The effect of preventing scratches on the state object 6 is further improved.

The push-out jig 30 is a jig used when the coiled object 6 is pushed into the transportation container 2 and when it is pulled out from the transportation container 2.
As shown in FIGS. 1 and 3, the push-out jig 30 includes a columnar portion 30a and a hook portion 30b.

The columnar portion 30a is a portion that is pushed when the coiled object 6 is pushed into the transportation container 2, and is, for example, a steel square cylinder.
The columnar portion 30a abuts on the end cross girder 23a in the X direction, which is the extending direction of the pedestal girder 21, and is detachably provided, and extends in the same Y direction as the extending direction of the end cross girder 23a. The columnar portion 30a does not need to be fixed to the pedestal girder 21 as long as it can hold the position in contact with the end cross girder 23a, and may simply be in contact with the pedestal girder 21.

In this structure, the columnar portion 30a is pressed against the end cross girder 23a on the front side of the transportation container 2 when the coiled object 6 is pushed into the transportation container 2 (see FIG. 11). The reason for using the columnar portion 30a is as follows.
When the coil pedestal 1 pushes the coiled object 6 into the transportation container 2, the direction of the load due to pushing is parallel to the X direction so that the load is not applied to the rail 25 and the guide member 27 in the Y direction. Is preferable. On the other hand, the coil mount 1 moves in the X direction by sliding on the rail 25 using a pair of fixed girders 29 as sliding plates. Therefore, in order to make the direction of the load due to pushing parallel to the X direction, a pair It is necessary to apply a load evenly to the fixed girder 29.
Therefore, by bringing the columnar portion 30a into contact with the end cross girder 23a and pushing the vicinity of the center in the extending direction, the load is evenly applied to the pair of fixed girders 29.

The hook portion 30b is a member for binding the pull-out belt 36, which is a belt pulled when the coil-shaped object 6 is pulled out from the transportation container 2, and is provided near the lower end of the columnar portion 30a.
As shown in FIGS. 1 and 3, the hook portion 30b is a U-shaped handrail-shaped rod material.
When the coiled object 6 is pulled out from the transportation container 2, the columnar portion 30a is brought into contact with the end cross girder 23a on the back side in the X direction of the transportation container 2, and the pull-out belt 36 is bound to the hook portion 30b. By pulling it, the coil mount 1 can be moved to the front side in the X direction.

As shown in FIGS. 1 and 3, it is preferable that a pair of hook portions 30b is provided at both ends of one surface of the columnar portion 30a along the extending direction. That is, it is preferable that the front or back surface is provided near both ends in the Y direction when viewed from the X direction. The reason is as follows. First, when the coiled object 6 is pulled out from the transportation container 2, it is preferable that the direction of the load due to tension is parallel to the X direction so that the load is not applied to the rail 25 and the guide member 27 in the Y direction. .. However, when there is only one hook portion 30b, the pull-out direction of the pull-out belt 36 tends to tilt in the X direction from the direction parallel to the Y direction, so that it is difficult to hold the direction of the load due to tension in the Y direction. Next, in the case of a structure in which the fixed girder 29 slides on the rail 25 as shown in FIG. 1, it is better to provide the hook portion 30b at a position as close as possible to the fixed girder 29 so that the direction of the load due to tension is parallel to the Y direction. Cheap. However, since the rail 25 and the fixed girder 29 are provided as a pair, when there is one hook portion 30b, it is provided only on one side.

When a pair of hook portions 30b is provided, as shown in FIG. 1, the pull-out belts 36 are bound to each pair of hook portions 30b, and the pull-out belts 36 are bundled together on the door 12 side of the transportation container 2. Pull the bundled part. At this time, if the pull-out belt 36 is pulled so that the distances between the two hook portions 30b and the bundled portions are equal to each other, the direction of the load due to the tension of the pull-out belt 36 can be held in the direction parallel to the Y direction.

By providing the push-out jig 30 in this way, the coil pedestal 1 can be pushed into the transportation container 2 by pushing the columnar portion 30a.
Further, the coil pedestal 1 can be pulled out from the transportation container 2 by pulling the hook portion 30b with the pull-out belt 36.
Therefore, it is not necessary to separately prepare a jig for pushing / pulling out, and workability is further improved. The push-out jig 30 may be mounted on the transportation container 2 in a state of being attached to one end cross girder 23a in advance, or may be attached to one end cross girder 23a only when pushing / pulling out. May be good.

The hook portion 30b is limited to a U-shaped rod as long as it can bind the drawer belt 36 and does not deform or come off when the drawer belt 36 is pulled in the bound state. Not done. It may be a key shape such as a J character. Further, a hole or groove for bundling the drawer belt 36 may be provided in the columnar portion 30a to form the hook portion 30b.
The above is the description of the configuration of the coil mount 1 according to the present embodiment.

Next, a transportation method in which the coil-shaped object 6 is mounted on the coil pedestal 1 and transported in the transportation container 2 will be described. In the loading process (vanning process: the process of loading the load into the container) of this transportation method, as shown in FIG. 9, the laying process, the coil mounting process, the back side positioning process, the pushing process, the front side positioning process, and the lashing process are performed. Will be done.

First, in the laying process, as shown in FIG. 1, the door 12 of the transportation container 2 is opened, and the coil pedestal 1 is arranged inside the transportation container 2. At this time, as shown in FIG. 10, the fixed girder 29 is housed in the rail 25 so that the bottom surface of the fixed girder 29 comes into contact with the concave bottom surface of the rail 25, and the guide member 27 is brought into contact with the container side wall 5. Then, the position in the Y direction can be tentatively determined. Further, the pedestal girder 21 is arranged at a position where the vertical load is transmitted to the root of the container cross girder 3 near the container side wall 5.
As shown in FIG. 10, in the laying process, the fixing member 73 (FIG. 3) is removed from the coil mount 1. This is because the coil pedestal 1 is restrained by the container side wall 5 and cannot move in the X direction when the fixing member 73 is attached.
Members other than the fixing member 73 may be assembled until they are attached to the coil mount 1 in the laying process. These members may be assembled inside the transportation container 2, or those assembled outside the transportation container 2 may be carried into the inside of the transportation container 2.
At the time of assembly, the pedestal girder 21 is first installed on the bottom surface 4 of the container, and then the pedestal girder 21 is connected by the pedestal cross girder 23. Next, the inner shell block 55 is fixed to the pedestal girder 21, and the inner shell block 55 is covered with the vertical load support block 71 of the outer shell block 58. Further, the guide member 27 is engaged with the reinforcing cross girder 23c.

In the coil mounting process, as shown in FIG. 10, the coil-shaped object 6 is placed on the coil mount 1. Specifically, first, outside the transportation container 2, a fork is inserted into the cylindrical hole of the coiled object 6 with a forklift or the like (not shown) to lift the coiled object 6.
Next, the forklift is moved to move the coiled object 6 above the coil pedestal 1 inside the transport container 2. After this movement, the fork is lowered to place the coil-like object 6 on the support surface 53 of the coil support block 19 of the coil mount 1. After mounting, the fork is slightly raised, the forklift is moved backward, and the fork is pulled out from the hole of the coiled object 6, thereby completing the process of mounting the object to be transported.
When the coil-shaped object 6 is placed on the coil mount 1 and the contact member 28 does not come into contact with the coil-shaped object 6 due to a gap in the X direction, a cushioning material is provided in the gap. Fill the gap by inserting it.

In the back side positioning step, as shown in FIG. 10, the stopper 34 is arranged at a fixed position on the rail 25, and the positioning member on the back side of the coil pedestal 1 in the X direction and the movement of the coil pedestal 1 to the back side in the X direction during transportation. It is a regulatory member. When another coil mount 1 is already loaded on the transportation container 2, if the stopper 34 on the front side in the X direction of the loaded transportation container 2 is used as a positioning member and a movement restricting member, a new stopper 34 can be used. There is no need to provide it.

In the pushing step, as shown in FIG. 11, the coil pedestal 1 on which the coil-shaped object 6 is placed is pushed in the X direction from the door 12 side, which is the inlet side of the transportation container 2, to the position where the stopper 34 is provided. In the pushing process, the fixed girder 29 of the coil pedestal 1 slides on the rail 25. Therefore, before pushing in, grease or silicon is applied as a lubricant to the back side of the coil pedestal 1 of the rail 25 by spraying or the like to slide. It is preferable to make it easy.
In the pushing step, as shown in FIG. 11, the pushing-out jig 30 is brought into contact with the end cross girder 23a on the front side in the X direction and placed on the upper end of the rail 25 so as to be placed above the rail 25. do. In this state, the coil pedestal 1 is pushed in by pressing the center of the pushing-out jig 30 in the extending direction toward the back side in the X direction from the outside of the transportation container 2 with a forklift or the like. The pushed coil pedestal 1 is guided by the rail 25 and the guide member 27 and moves in the transport container 2 in the X direction. When the rear end of the coil mount 1 in the X direction is pushed to a position where it comes into contact with the stopper 34, the pushing process is completed. The push-in / pull-out jig 30 may be removed from the end cross girder 23a, or may be fixed to the end cross girder 23a as it is and used at the time of pulling out.

In the front side positioning step, as shown in FIG. 12, the front side stopper 34 is arranged at a fixed position on the front side of the coil pedestal 1 in the X direction. The stopper 34 on the front side also positions the coil mount 1, but plays a greater role in suppressing movement during transportation. The method of arranging the stopper 34 on the front side is the same as the method of arranging the stopper 34 on the back side.

In the lashing step, first, as shown in FIG. 13, the fixing member 73 is arranged on the guide member 27, and the fixing member side corrugated portion 81 is engaged with the block side corrugated portion 91 of the vertical load support block 71. The fixing member 73 and the vertical load support block 71 are integrated into the outer shell block 58.
Further, the outer shell block 58 is connected to the container side wall 5 by fitting the block-side corrugated portion 75 of the fixing member 73 to the container side wall 5.

Next, as shown in FIG. 2, the coil-shaped object 6 is fixed to the coil mount 1. Specifically, first, the lashing belt 52 is passed through the hole of the cylinder of the coiled object 6, and then the lashing is performed in the gap between the lower inner shell block 57, the bottom surface 4 of the container, the movable girder 31, and the fixed girder 29. Pass the belt 52 through. In this state, the lashing belt 52 is bound in a loop and tightened with a ratchet or the like (not shown) to tie the coil-shaped object 6 to the coil pedestal 1.

In the lashing step, the coil-shaped object 6 may be lashed to the transportation container 2 by binding the coil-shaped object 6 and a hook (not shown) provided on the bottom surface 4 of the container. It is preferable to tie the coil to the coil because it is easy to guarantee the strength of the lashing.

In the state where the lashing step is completed, the movement of the coil pedestal 1 in the X direction is restrained by the fitting of the stopper 34 and the block-side corrugated portion 75 of the fixing member 73 and the container side wall 5 of the transportation container 2. The relative movement of the coiled object 6 with respect to the coil mount 1 in the X and Y directions is also constrained by the lashing belt 52. The friction between the movable girder 31 and the bottom surface 4 of the container due to the weight of the coiled object 6 and the friction between the fixed girder 29 and the rail 25 also suppress the movement in the X direction.

Further, in the movement of the coil mount 1 in the Y direction, the fixed girder 29 is housed in the rail 25, the guide member 27 and the container side wall 5 of the transportation container 2 are in contact with each other, and the outer shell block. It is suppressed by fitting 58 with the side wall 5 of the container. The friction between the movable girder 31 and the bottom surface 4 of the container due to the weight of the coiled object 6 and the friction between the fixed girder 29 and the rail 25 also suppress the movement in the Y direction.

Further, the coil-shaped object 6 and the coil pedestal 1 are brought into contact with the guide member 27 and the container side wall 5 and the container side wall 5 of the fixing member 73 with respect to rolling, lateral inclination, and rotation caused by these. The movement is suppressed by the contact, the lashing by the lashing belt 52, and the contact with the contact member 28. At this time, since the fixing member 73 is arranged on the guide member 27, the fixing member 73 can be fitted to the container side wall 5 at a height close to the height of the center of gravity of the coil-shaped object 6 and the coil mount 1. , It is more and more advantageous to restrain the movement.
The coiled object 6 is prevented from jumping up by its own weight and the lashing belt 52.

These effects will be described more specifically.
As shown in FIG. 9, the transportation of the coiled object 6 using the coil pedestal 1 is a transportation called combined integrated transportation in which both land transportation and marine transportation are carried out. In the combined integrated transportation, the coiled object 6 receives a relatively small but frequently repeated impact in the vertical direction at the unevenness of the road surface of a rough road or the joint of the road surface of the highway during the land transportation by the vehicle. In addition, during land transportation, frequent impacts in the front-rear direction due to brakes and the like are also applied.
On the other hand, during marine transportation, the impact of rolling, which is called rolling, is applied to both domestic and ocean shipping.
Furthermore, since loading and unloading of transportation equipment is required between land transportation and marine transportation, a relatively large impact in the vertical direction is applied during loading and unloading.
Therefore, it is necessary to deal with a wide variety of impacts in the combined integrated transportation.
In the conventional composite integrated transportation, for the reason of safe transportation, when the coiled material 6 is tied, a hard timber or the like is used to fix the coiled material 6, so that the tied material is a coil. There is a possibility of scratching the object 6.

Further, the hard lashing by the hard lashing material may be released by directly receiving a frequent repeated impact in the vertical direction and the front-rear direction during land transportation.
On the other hand, in marine transportation, attention tends to be paid to the response to the impact caused by rolling, and in order to realize the lashing that can cope with the impact in the vertical and front-back directions during land transportation, a larger amount of materials are required. It is necessary to tie up and tie up by personnel.
In addition, if a hard but heavy material such as timber is used during the lashing work, there is a risk during the lashing work. A member such as a pallet, which has an assembled shape and can be transported by a forklift, contributes to safe and efficient work even if it is heavy, but the work of manually transporting and assembling a heavy object is particularly dangerous.
On the other hand, in the coil mount 1 of the present embodiment, the outer shell block 58 that supports the coil-shaped object 6 and the inner shell block 55 that supports the outer shell block 58 are made of materials having different elastic moduluses. Preferably, the outer shell block 58, the upper inner shell block 59, the guide member 27, and the abutting member 28 are made of beaded foamed polyolefin, which is lighter than timber. As a result, the impact of the coiled object 6 can be absorbed by the shrinkage of the beaded foamed polyolefin at the time of frequent repeated impacts in the vertical direction and the anteroposterior direction during land transportation, and the coiled object 6 can be prevented from being scratched. In addition, deformation and movement of the coil mount 1 can be prevented.
In addition, this configuration also supports the impact of rolling during marine transportation.

After the lashing step, the support surface 53 of the outer shell block 58 is elastically deformed to follow the shape of the inner peripheral surface of the coiled object 6 to prevent scratching of the coiled object 6, and the coil together with the inner shell block 55. Supports the shape 6.
Further, the load of the coiled object 6 is directly applied to the outer shell block 58, but the vertical component of the load is transmitted to the inner shell block 55 and the pedestal girder 21, and the container on the bottom surface 4 of the container 2 of the transportation container 2 is used. It is distributed and transmitted to the base of the cross girder 3.

Therefore, even if the structure is such that the vertical load is transmitted to the root of the container cross girder 3 of the transportation container 2 near the container side wall 5, the coil-like object 6 and the transportation container 2 can be supported without damaging the coil-like object 6. .. Further, by increasing the width and the number of the pedestal girders 21, the load per unit area on the surface of the transportation container 2 in contact with the container bottom surface 4 can be easily reduced.

When transporting a plurality of coil-shaped objects 6 in one transport container 2, as many coil mounts 1 as the number of coil-shaped objects 6 are prepared. The coil pedestals 1 are repeated one by one from the laying step to the lashing step, and the coil pedestals 1 and the coil-like objects 6 are arranged and fixed in the X direction so as not to come into contact with each other.
In this way, when a plurality of coil-shaped objects 6 are mounted inside the transportation container 2, the coil pedestals 1 and the coil-shaped objects 6 are arranged so as not to come into contact with each other, so that the adjacent coil pedestals 1 and the adjacent coil pedestals 1 and each other can be arranged. The coil-shaped objects 6 are arranged so as not to receive the moving force due to the acceleration. As a result, even when an acceleration having an X-direction component is applied to the transportation container 2, the plurality of coil mounts 1 inside do not come into contact with each other, so that the force applied to the back wall 10 of the transportation container 2 is prevented from becoming large. can.

When the lashing process is completed, the process proceeds to the transportation process. As shown in FIG. 9, the transportation process includes a first land transportation process, a shipping process, a sea transportation process, a landing process, and a second land transportation process. In the first land transportation process, the transportation container 2 is moved from the shipping place to the shipping port by using a transportation means such as a truck or a railroad. Further, at the shipping port, the transportation container 2 is loaded onto a ship such as a container ship in the shipping process. After loading, it will be moved to the nearest destination port by the navigation of the ship in the marine transportation process.
At the destination port, the transportation container 2 is landed from a vessel such as a container ship in the landing process. Then, in the second land transportation process, the transportation container 2 is moved from the destination port to the destination by using a transportation means such as a truck or a railroad. These movements, shipping, landing, and the like of the transportation container 2 are the same as the well-known moving methods of containers. As a result, the coiled object 6 is transported from the shipping location to the destination.

Next, the unloading process (devanning process: the process of taking out the package from the container) at the destination will be described. In this loading / unloading step, a lashing release step, a drawing step, a coil unloading step, and a post-treatment step are carried out.
In the lashing release step, first, the door 12 of the transportation container 2 is opened, the lashing belt 52 shown in FIG. 2 is released, and the lashing of the coil-shaped object 6 is released. Further, the fixing member 73 is pulled out upward to release the restraint on the movement of the coil pedestal 1 in the X direction (see FIG. 13).
Further, the stopper 34 on the front side in the X direction is removed. As a result, the coil pedestal 1 on which the coil-shaped object 6 is placed can be moved in the X direction (see FIG. 12).

Since the fixed girder 29 slides on the rail 25 in the drawing process, grease or silicon is sprayed on the rail 25 on the front side of the coil mount 1 as a lubricant before sliding to facilitate the movement. .. Next, as shown in FIG. 1, the push-pull-out jig 30 is brought into contact with the end cross girder 23a on the back side in the X direction and placed on the upper end of the rail 25 to be placed above the rail 25. Next, the pull-out belt 36 is bound to the hook portion 30b of the push-pull-out jig 30, and is pulled by a forklift, a vehicle, an external winch, or the like to slide the coil stand 1 on the rail 25 and move it. By this movement, the coil pedestal 1 is pulled out from the position at the time of transportation of the transportation container 2 to the door 12 side which is the entrance side.

When the drawing process is completed and the coil pedestal 1 is pulled out to the inlet side, the coil-shaped object 6 is lifted from the coil pedestal 1 and taken out from the transportation container 2 in the coil lowering process. More specifically, the forklift is advanced to insert the fork into the hole in the cylinder of the coiled object 6, and then raise the fork slightly. As a result, the coil-shaped object 6 is removed from the coil mount 1. Next, the forklift is moved backward to take out the coiled object 6 from the inside of the transportation container 2. Then, the coiled object 6 is moved to a predetermined position set in advance. In this coil lowering step, the transportation of the coiled object 6 is completed.

In the post-processing step, the coil pedestal 1 after the transportation is completed is taken out from the transportation container 2. The coil pedestal 1 may be disassembled and taken out from the transportation container 2, or may be taken out from the transportation container 2 without being disassembled. When disassembling, each component may be separated in the reverse procedure of assembly.
After the coil pedestal 1 is taken out from the transportation container 2, the inside of the transportation container 2 is cleaned if necessary.
The above is the explanation of the transportation method.

As described above, the coil pedestal 1 of the present embodiment covers the pair of pedestal girders 21, the pedestal cross girders 23, the inner shell block 55, and the inner shell block 55 to support the coil-like object 6, and repels the inner shell block 55. An outer shell block 58 having a low elastic modulus and engaging with the container side wall 5 is provided.

In this configuration, when the coil-shaped object 6 is mounted on the coil pedestal 1, the support surface 53 of the outer shell block 58 is elastically deformed to follow the shape of the inner peripheral surface of the coil-shaped object 6 and prevent scratches. , The inner shell block 55 supports the coiled object 6 and suppresses excessive deformation of the outer shell block 58.

Therefore, even if the structure is such that the vertical load is transmitted to the root of the container cross girder 3 of the container bottom surface 4 near the container side wall 5, the coil pedestal 1, the coiled object 6, and the transportation container 2 are not damaged and are coiled. Can support object 6.

Although the present invention has been described above based on the embodiments, the present invention is not limited to the embodiments. It goes without saying that those skilled in the art will come up with various modifications and improvements within the scope of the technical idea of the present invention, and these are also included in the present invention.

1: Coil stand 2: Transport container 3: Container cross girder 4: Container bottom surface 5: Container side walls 6, 6a, 6b: Coil-shaped object 10: Back wall 12: Door 19: Coil support block 21: Pedestal girder 23: Stand Cross girder 23a: End cross girder 23b: Coil fixed cross girder 23c: Reinforced cross girder 25: Rail 25c: Missing part 27: Guide member 27a: Pedestal girder side contact surface 27b: Guide member recess 27c: Wall side guide surface 28 : Contact member 28a: Contact member recess 29: Fixed girder 30: Push-in / pull-out jig 30a: Columnar portion 30b: Hook portion 31: Movable girder 32a: Convex portion 32b: Recess 34: Stopper 36: Pull-out belt 50: Guide member side corrugated portion 51: Connecting portion 52: Fastening belt 53: Support surface 54: Reversely inclined portion 54a: Block groove portion 55: Inner shell block 56a: Dovetail 56b: Dovetail groove 57: Lower inner shell block 57a: Lower part Side connecting recess 57b: Lower inclined portion 57c: Engagement groove 58: Outer shell block 58a: Accommodating recess 59: Upper inner shell block 59a: Upper connecting recess 59b: Upper inclined portion 59c: Engaging convex portion 61: Connecting Block 62a: Inner shell side corrugated portion 62b: Outer shell side corrugated portion 71: Vertical load support block 73: Fixed member 75: Block side corrugated portion 81: Fixed member side corrugated portion 91: Block side corrugated portion

Claims

A coil pedestal in which a coil-shaped object obtained by winding a plate-shaped member in a cylindrical shape is mounted sideways so that the axis of the cylinder faces the horizontal direction and is arranged inside a transportation container.
A pair of girder-shaped pedestal girders that extend in the longitudinal direction of the shipping container and are arranged to face each other and are placed on the bottom surface of the shipping container.
A pedestal cross girder extending in an orthogonal direction orthogonal to the longitudinal direction and connecting the pedestal girder,
A pair of block-shaped members whose outer shape is held facing each of the pair of pedestal girders in the orthogonal direction, has a support surface for supporting the cylindrical surface of the coiled object on the upper surface, and said. A pair of coil support blocks in which the support surfaces are inclined downward toward each other.
The pair of coil support blocks
The inner shell block fixed to the pedestal girder and
The inner shell block is covered from the outside, the coil-like object is supported by the support surface, and the coiled object is engaged with the corrugated container side wall of the transportation container along the longitudinal direction, and the elastic modulus of rebound is higher than that of the inner shell block. A coil mount characterized by having a low outer shell block.
The outer shell block is
A vertical load support block in contact with the inner shell block and the coiled object,
A fixing member inserted between the container side wall and the vertical load support block to regulate the horizontal movement of the vertical load support block is provided.
The fixing member is
The surface facing the container side wall has a corrugated block-side corrugated portion that engages with the container side wall, and the surface facing the outer shell block has a corrugated shape extending in the longitudinal direction in a plan view. Has a fixed member side corrugated part,
The coil mount according to claim 1, wherein the vertical load support block includes a block-side corrugated portion having a waveform whose surface facing the fixed member engages with the fixed member-side corrugated portion.
Inserted between the pedestal girder and the container side wall to support the fixing member from below, movably contact the container side wall in the longitudinal direction, and face the vertical load support block to the pedestal cross girder. A guide member that fits and regulates the movement of the pedestal girder toward the side wall of the container is provided.
The coil pedestal according to claim 2, wherein the guide member includes a corrugated guide member-side corrugated portion having a waveform whose surface facing the vertical load support block engages with the block-side corrugated portion.
The pedestal girder
A pair of fixed girders fixed to the gantry cross girder,
The coil pedestal according to claim 2 or 3, which is provided between the pair of the fixed girders and includes a pair of movable girders which are provided between the pair of the fixed girders and can be fixed at a plurality of positions of the gantry cross girders in different orthogonal directions.
The coil mount according to claim 4, wherein the fixed girder is a sliding plate that slides on a rail provided on the bottom surface of the container of the transportation container along the longitudinal direction.
The inner shell block is
The lower inner shell block straddling the adjacent fixed girder and the movable girder,
The upper inner shell block fixed on the lower inner shell block is provided.
The coil mount according to claim 4 or 5, wherein a portion of the upper surface of the upper inner shell block and the upper surface of the lower inner shell block is inclined downward in the same direction as the support surface.
The upper surface of the upper inner shell block and the upper surface of the lower inner shell block has a portion located below the support surface inclined downward in the same direction as the support surface, and the inclined surface is an extension of the pedestal girder. The coil mount according to claim 6, which has an arc shape that is convex upward when viewed from the current direction.
When viewed from the extending direction of the pedestal girder, the inner shell side corrugated portion of the waveform provided on the upper surface of the upper inner shell block and the lower inner shell block, and the corrugated portion on the inner shell side.
The coil mount according to claim 6 or 7, which is provided on a contact surface of the outer shell block with the upper surface and includes an outer shell side corrugated portion having a waveform that engages with the inner shell side corrugated portion.
The upper inner shell block is provided with a reversely inclined portion inclined downward in the direction opposite to the supporting surface on the upper surface on the side closer to the fixing member than the supporting surface.
The coil pedestal according to any one of claims 6 to 8, wherein the reverse inclined portion includes a block groove portion extending in the extending direction of the pedestal girder.
An dovetail or a dovetail groove provided along the vertical direction on a vertical surface of the upper inner shell block facing the fixing member, and an inner peripheral surface of the outer shell block facing the vertical surface. The coil mount according to any one of claims 6 to 9, further comprising a dovetail groove or an dovetail groove that engages with the dovetail groove or the dovetail groove.
The material constituting the lower inner shell block is laminated lumber or plastic artificial wood.
The material constituting the upper inner shell block is bead method foamed polypropylene.
The coil mount according to any one of claims 6 to 10, wherein the material constituting the outer shell block is polyethylene foamed by the bead method, and the foaming ratio is higher than that of the inner shell block.
The pedestal cross girder is
A pair of coil-fixed cross girders arranged so as to sandwich the coil-like object,
It is provided on the opposite surface side of the pair of coil-fixed cross girders, and abuts on both end faces of the coil-shaped object to sandwich the coil-shaped object, thereby restricting the movement of the coil-shaped object in the longitudinal direction. Any of claims 1 to 11, further comprising a pair of abutting members, wherein the distance between the pair of abutting members is less than or equal to the axial distance of the coiled cylinder in the extending direction of the pedestal girder. The coil mount according to item 1.
When the coil-shaped object is pushed into the transportation container by being detachably provided on the pedestal cross girder in the extending direction of the pedestal girder and extending in the same direction as the extending direction of the pedestal cross girder. The columnar part pushed by
It has hook portions provided at one end of a surface along the extending direction of the columnar portion and for binding a pull-out belt, which is a belt pulled when the coil-shaped object is pulled out from the transportation container. The coil mount according to any one of claims 1 to 12, further comprising a push-in / pull-out jig.