JP3737289B2 - Concrete bucket flooring equipment - Google Patents

Description

[0001]
BACKGROUND OF THE INVENTION
The present invention is, for example, for landing a concrete bucket transported by a cable crane or the like at a predetermined position of a concrete bucket landing place (bunker line) provided near a ready-mixed concrete production supply site in dam construction or the like. The present invention relates to a flooring device for a concrete bucket.
[0002]
[Prior art]
At the dam construction site, the ready-mixed concrete produced in the batcher plant (prepared concrete production site) is packed into a concrete bucket by a transfer car (prepared concrete supply device), and this concrete bucket is transported to the concrete placement site by a cable crane. The dam construction work is done in the same way.
Figure 7 shows an overview of the dam construction site.
In FIG. 7, 1 is a concrete bucket made of a can having a shape such as an ellipse, a circle, or a square. 2 is concrete in which the concrete bucket 1 is transported and landed in order to pack the concrete bucket 1 with raw concrete. It is a bucket landing place and a place called a bunker line.
Reference numeral 20 denotes a foundation work, and a rail cable 25 is stretched between a fixed tower 22 provided on the left bank 21 of the foundation work 20 and a moving tower 24 provided on the right bank 23. A trolley 26 slides on the rail cable 25 via pulleys 26a and 26a. The trolley 26 moves between the fixed tower 22 and the moving tower 24 by a traction cable 29 operated by a traction winch 28 installed in the machine room 27. Reference numeral 30 denotes a suspension cable which is wound or unwound by a hoisting winch 31 installed in the machine room 27 via pulleys 26b and 26b provided at the lower portion of the trolley 26. It is. The concrete bucket 1 is suspended by the suspension cable 30 operated by the hoisting winch 31 so that the concrete bucket 1 is wound up and down in the vertical direction via the trolley 26. The moving tower 24 is movable toward the upstream side and the downstream side of the river flow so as to draw an arc around the fixed tower 22. That is, the moving tower 24 is movable on the rail 24R laid in an arc shape on the right bank 23 by driving the motor 24a.
As described above, the concrete bucket 1 is moved between the bunker wire 2 and the concrete placement destination by the trolley 26 via the cable, and the concrete bucket 1 is moved up and down at the bunker wire 2 and the concrete placement destination. A dam is constructed by a cable crane having the above-described configuration.
The dam site 32 is provided with a ground hopper 33 necessary for the ground hopper driving method. The concrete placement method includes a ground hopper placement method and a direct placement method, and the ground hopper 33 is unnecessary in the direct placement method.
[0003]
In detail, the bunker line 2 has a wall 2a and a floor 2b on which the concrete bucket 1 is landed by extending from the lower part of the wall 2a, as shown in FIG. 1 and FIG. The batcher plant 2x and the ready-mixed concrete made from the batcher plant 2x are transported to the position of the concrete bucket 1 landed on the floor portion 2b to the flat portion 2c on the upper side of the wall portion 2a. 1 is provided with a transfer car 2y to be supplied from a supply port 2k. Note that a track 2R is provided on the flat surface 2c along the wall 2a, and the transfer car 2y travels on the track 2R. 2d is a cushioning material provided on the wall 2a to cushion the impact of the concrete bucket 1, and a plurality of cushioning materials are provided in parallel in the lateral direction.
[0004]
The operation of the cable crane and transfer car 2y is controlled by a host computer 36 provided in the cab 35.
The host computer 36 outputs electrical information related to the travel position output from the encoder 24b of the mobile tower 24, electrical information related to travel position origin correction of the mobile tower 24 output from the lightwave distance meter 24c, and output from the load cell 24d. Electrical information related to the load of the concrete bucket 1, electrical information related to the moving position of the trolley 26 output from the encoder 28 b connected to the motor 28 a that drives the traction winch 28, and a motor 31 a that drives the hoisting winch 31. The electrical information about the winding up and down of the concrete bucket 1 output from the encoder 31b connected to, the electrical information about the movement position correction of the trolley 26 output from the lightwave distance meter 22a, and the lightwave distance meter 2m Regarding the correction of the landing position origin of the concrete bucket 1 Electrical information, electrical information related to detection of the landing position of the concrete bucket 1 output from the area sensor 2n, electrical information related to the swing angle of the concrete bucket 1 output from the vibration gyro 1a, output from the area sensor 33a It receives electrical information related to the position of the concrete bucket 1 and information related to its own position output from the transfer car 2y. The host computer 36 automatically controls each device such as the mobile tower 24, each winch, and the transfer car 2y based on the control information calculated by comparing the received information with the operation setting information stored in advance.
[0005]
By the way, when the ready-mixed concrete is packed in the concrete bucket 1, it is necessary to land the concrete bucket 1 transported by the cable crane at a predetermined position in the bunker line 2 which is a concrete bucket landing place. As an apparatus for landing the concrete bucket 1 on 2, there are apparatuses as shown in FIGS.
[0006]
FIG. 8 shows a landing apparatus using a fixed swash plate. This is provided with a support column 40 on the floor 2b opposite to the wall 2a of the bunker wire 2, and a fixed swash plate 41 inclined toward the floor 2b in the direction of the wall 2a is provided at the upper end of the support 40. Is. According to this floor landing device, the bottom edge 1e of the concrete bucket 1 transported by the cable crane is slid while being brought into contact with the inclined surface 41f of the fixed swash plate 41 to land on the floor 2b. It is.
[0007]
FIG. 9 shows a landing apparatus using a swash plate which can be rotated via a rotation fulcrum. This is such that the rear center side of the swash plate 50 is supported so as to be rotatable by hinge means 51 constituting a rotation fulcrum. 52 is a fixed base. According to this landing apparatus, as in FIG. 10, the bottom edge 1e of the concrete bucket 1 is slid while being brought into contact with the inclined surface 50f of the swash plate 50 to be landed on the floor 2b. However, at this time, the swash plate 50 is rotated in the upright direction by the dead weight of the concrete bucket 1 (from the state shown in 50A to the state shown in 50B), and the concrete bucket 1 is landed on the floor 2b. Is. This apparatus includes a spring 53 for restoring the swash plate 51 to the state shown in 50A after the concrete bucket 1 is landed on the floor 2b.
[0008]
FIG. 10 is a diagram in which a carriage 60 on which the concrete bucket 1 is placed is forcibly moved by a jack 61. That is, the carriage 60 is moved between the state shown in 60A and the state shown in 60B.
[0009]
[Problems to be solved by the invention]
However, the conventional concrete bucket landing devices as shown in FIGS. 8, 9, and 10 have the following problems.
In the apparatus shown in FIG. 8, when the concrete bucket 1 slides on the inclined surface 41f of the fixed swash plate 41, there is a problem that it often happens that the floor cannot be smoothly landed due to being caught and inclined.
In the apparatus of FIG. 9, once the concrete bucket 1 is landed on the floor 2b, the concrete bucket 1 cannot be moved in the direction of the wall by the force of the spring 53 (it is not in a state of being slightly lifted from the floor 2b). And cannot be moved). Therefore, in order for the concrete bucket 1 to land on the floor 2b so as to reach the wall 2a, the distance between the wall 2a and the apparatus cannot be increased. Therefore, the horizontal movement allowance H (see FIG. 9) of the concrete bucket 1 at the time of landing cannot be made large. That is, the horizontal movement allowance H of the concrete bucket 1 is reduced as compared with the apparatus of FIG. 8 and FIG. 10, and it cannot cope with the rolling of the concrete bucket when landing, which hinders the operation of the cable crane. There was a problem of coming.
In addition, the apparatus shown in FIG. 10 requires a jack power source (hydraulic power source or the like), which increases the number of steps for controlling the power source, and does not require the jack to be operated by controlling the power source when landing or leaving the floor. Therefore, there are problems such as complicated control.
[0010]
Then, this invention aims at obtaining the flooring apparatus of the concrete bucket which can overcome all the above subjects. In other words, the horizontal movement allowance can be taken sufficiently, the concrete bucket can be swayed, the concrete bucket can be smoothly landed, and a power source and complicated control are required when landing and leaving the floor. An object of the present invention is to provide a flooring device having a simple configuration.
[0011]
[Means for Solving the Problems]
According to the first aspect of the present invention, a concrete bucket landing device is provided on the floor side in a direction approaching the wall side via a pivot point provided on the floor side of the concrete bucket landing place. An inclined surface inclined upward from the one end side close to the floor portion away from the wall portion in the initial state before receiving the weight of the concrete bucket, on the distal end side of the arm of a predetermined length that rotates to fall down In a state where the weight of the concrete bucket is received and the arm is rotated, the concrete bucket is set to a state facing the wall portion while guiding the concrete bucket. A landing actuating means comprising a receiving material attached to the floor portion close to the wall portion, and the receiving material is a weight of the concrete bucket; In the receiving state, the position of the receiving material is operated to be pulled back in the direction of the initial state, and the position of the receiving material is returned to the initial state when the concrete bucket is separated from the concrete bucket landing place. And withdrawing means.
The invention according to claim 2 is configured such that the receiving member has an L-shaped panel having a support member that contacts the bottom surface of the concrete bucket on the one end side.
The invention according to claim 3 is provided with a fixed inclined surface extending from the other end of the receiving material in the initial state and extending to the inclined surface of the receiving material.
According to a fourth aspect of the present invention, there is provided regulation means for regulating the position of the receiving member so as not to move from the position in the initial state to the side opposite to the wall portion when the position is returned to the initial state.
The invention according to claim 5 includes moving means for moving the rotation fulcrum in a direction approaching or separating from the wall portion.
The invention according to claim 6 is characterized in that the receiving material is set to a size capable of receiving one of the concrete buckets, and the flooring device corresponding to the size of the receiving material having the receiving material, It was arranged over the entire length of the concrete bucket landing place.
[0012]
DETAILED DESCRIPTION OF THE INVENTION
Embodiment 1 FIG.
Embodiment 1 of the present invention will be described below with reference to FIGS. The components already described in FIGS. 7 and 3 are denoted by the same reference numerals and description thereof is omitted.
In each figure, 3 is a concrete bucket landing apparatus according to the present invention. The flooring device 3 is a circuit in which a receiving material 4 that receives a concrete bucket 1 transported to a bunker wire 2 is provided on a base 7 on the floor 2b side opposite to the wall 2a of the bunker wire 2. Attached to the tips 6t and 6t of the two arms 6 and 6 of a predetermined length that rotate so as to fall down to the floor 2b in a direction approaching the wall 2a via the hinge means 5 constituting the moving fulcrum. Comprising a landing actuation means. Further, a support column 8 that is integrated with the base 7 installed on the floor 2b is provided upright, and an upper portion of the support column 8 is extended with the other end 4b of the receiving member 4 in the initial state 4A described later. And the fixed inclined board 9 which comprises the inclined surface 4f of the receiving material 4 and the fixed inclined surface 9f extended is provided. A spring serving as a pull-back means having one end fixed to the back side of the receiving member 4 by a fixing tool 10a and the other end fixed to a spring reaction force receiver 11 provided on the back side of the support column 8 by a fixing tool 10b. 10 is provided. A walkway 12 is provided on the back side of the landing apparatus 3. In addition, 12a is a handrail of the walkway 12, and 13 is an underfloor structure that supports the floor 2b, the landing device 3, and the walkway 12.
[0013]
In the initial state 4A before receiving the weight of the concrete bucket 1, the receiving material 4 is in a state of forming an inclined surface 4f that is inclined upward from the one end 4a side close to the floor portion 2b away from the wall portion 2a. When the concrete bucket 1 is set and receives the weight of the concrete bucket 1, the concrete bucket 1 is set to face the wall 2 a while guiding the concrete bucket 1 by the rotation of the arms 6 and 6. 1 is placed on the floor 2b.
Further, the spring 10 as the pull-back means operates to pull back the position of the receiving material 4 in the direction of the initial state 4A in a state where the receiving material 4 receives the weight of the concrete bucket 1, and concrete. When the bucket 1 is separated from the bunker line 2, the position of the receiving material 4 functions to return to the initial state 4A.
[0014]
In addition, the said receiving material 4 consists of an L-shaped panel which has the supporting member 4x contact | abutted to the bottom face 1z of the said concrete bucket 1 in the said one end 4a side. In the process of guiding the concrete bucket 1, the support member 4 x is in a state in which the receiving material 4 faces the wall portion 2 a substantially in parallel with the tip end 4 t abutting against the bottom surface 1 z of the concrete bucket 1. The inner surface 4u abuts against the bottom surface 1z of the concrete bucket 1, and the concrete bucket 1 is landed on the floor portion 2b so that the upper portion 1t side of the concrete bucket 1 is slightly inclined toward the wall portion 2a. As an example, the support member 4x is configured by a frame member 4s having a hollow portion 4r as shown in FIG. 2, but needless to say, it may be configured by a flat plate.
[0015]
The hinge means 5 is formed by rotatably attaching the arms 6 and 6 to a shaft 5b attached to a bearing bracket 5a provided on the base 7. Any number of arms that support the receiving member 4 may be used. In short, it is only necessary to support the receiving member 4 away from the rotation fulcrum via the arm.
[0016]
As shown in FIG. 4B, an end surface 9t on the lower end side of the fixed inclined plate 9 provided on the upper portion of the support column 8 is a vertical surface, and is on the other end 4b side of the receiving member 4. The end surface 4t is surface-treated so as to come into contact with the end surface 9t on the lower end side of the fixed inclined plate 9 in the initial state 4A. Therefore, the vertical surface which is the end surface 9t on the lower end side of the fixed inclined plate 9 has the wall portion from the position of the initial state 4A when the position of the receiving member 4 is returned to the initial state 4A by the spring 10. It functions as a restricting means for restricting movement to the side opposite to the side (the gallery 12 side).
[0017]
In addition, the said bunker line 2 is a concrete bucket landing place formed from the place where the long floor part 2b and the wall part 2a continued, as shown in FIG. Therefore, it has a receiving material 4 which is set to a size capable of receiving one concrete bucket 1 and is supported by the arms 6 and 6 at both ends, and a plurality of sizes corresponding to the size of the receiving material 4. The flooring device 3X is continuously provided over the entire length of the bunker wire 2 to constitute the flooring device 3. Therefore, the landing operation means and the spring 10 of each landing apparatus 3X operate independently. Specifically, as shown in FIGS. 2 and 3, the arm 6, 6 rotated by the hinge means 5 has a receiving member 4 made of an L-shaped panel at the tip, and this receiving member 4 is in an initial state. A plurality of flooring devices 3X including springs 10 for returning to 4A are arranged side by side. In this case, the arms 6 and 6 of each landing device 3X may be rotatably attached to one shaft 5b constituting the hinge means 5. In addition, it is desirable that the base 7, the support column 8, and the fixed inclined plate 9 have a continuous integrated structure in order to ensure rigidity. However, the base 7, the support column 8, and the fixed inclined plate 9 may be divided according to each of the landing devices 3X.
[0018]
Next, the operation of the first embodiment will be described.
In a state where the concrete bucket 1 is transported to the bunker wire 2 by the cable crane and is suspended by the cable crane, the bottom edge 1e of the concrete bucket 1 is placed in the initial state 4A as shown in FIG. When it is lowered while being brought into contact with the inclined surface 4f of the receiving material 4, the receiving material 4 is as shown by an arrow by the rotation of the arms 6 and 6 while the bottom 1z of the concrete bucket 1 is in contact with the tip 4t of the supporting member 4x. To the floor 2b. As a result, as shown in FIG. 4B, the concrete bucket 1 is landed on the floor 2b. At this time, the floor is landed so that the upper 1t side of the concrete bucket 1 is slightly inclined toward the wall portion 2a depending on the thickness of the support member 4x.
When the concrete bucket 1 packed with ready-mixed concrete is separated from the bunker wire 2, the receiving material 4 is restored to the initial state 4 </ b> A by the spring 10.
[0019]
According to the first embodiment, since the concrete bucket 1 is landed while the receiving material 4 is rotated, the concrete bucket 1 can be smoothly ground as compared with the conventional apparatus of FIG. Moreover, since the arm 6, 6 is provided, the concrete bucket 1 can be pushed in the direction of the wall 2 a when the concrete bucket 1 is landed, so that the distance between the wall 2 a and the landing device 3 is increased. Since the horizontal movement allowance can be sufficiently taken when the concrete bucket 1 is landed, the roll of the concrete bucket 1 can be dealt with. Therefore, an apparatus that does not hinder the operation of the cable crane as in the conventional apparatus of FIG. 9 is obtained. Furthermore, since no power source is used, the concrete bucket 1 can be automatically landed by the receiving material 4 by the action of the arms 6 and 6 that are rotated by the hinge means 5, and after leaving the floor, the spring 10 is used. Since the state is automatically restored to the initial state 4A, that is, the state of waiting for the concrete bucket 1 to be transported next, the power source and complicated control are not required compared to the apparatus of FIG. A landing device is obtained. Therefore, an apparatus that can solve all the problems of the conventional apparatus can be obtained.
Further, since the upper 1t side of the concrete bucket 1 is slightly inclined toward the wall 2a side due to the thickness of the support member 4x of the receiving material 4, the concrete is made easy to put ready concrete by the transfer car 2y. The bucket 1 can be landed, and the floor 1z of the concrete bucket 1 is supported by the tip 4t of the support member 4x, so that the flooring operation can be performed, and the attitude of the concrete bucket 1 does not collapse, and the cable crane is lowered by the cable crane. Driving operation is also easy.
Furthermore, since the fixed inclined plate 9 having the fixed inclined surface 9f extending to the inclined surface 4f of the receiving member 4 in the initial state 4A is provided, the horizontal movement allowance when the concrete bucket 1 is landed can be more sufficiently taken. Therefore, it can respond more sufficiently to the roll of the concrete bucket 1. Thus, the cable crane can be operated more easily.
Further, since the fixed inclined plate 9 (vertical surface which is the end surface 9t on the lower end side) also functions as a restricting means, the receiving plate 4 can be reliably set to the initial state 4A.
Further, since the flooring device 3 is configured by continuously providing a plurality of flooring devices 3X having a size corresponding to the size of the receiving material 4 over the entire length of the bunker wire 2, the concrete bucket 1 The number of places where the cable can be lowered increases, and the operation of the cable crane becomes easier.
[0020]
Embodiment 2. FIG.
The second embodiment of the present invention will be described below with reference to FIG.
Since the concrete bucket 1 has various shapes and sizes, the various concrete buckets 1 can be brought close to the wall 2a of the bunker wire 2 in correspondence with the concrete buckets 1 having such various shapes and sizes. In order to achieve this, it is desirable that the position of the receiving material 4 can be moved in the direction approaching or separating from the wall 2a in accordance with the shape and size of the concrete bucket 1. Therefore, in the second embodiment, as shown in FIG. 5, there is provided a moving means for moving the base 7 of the landing apparatus 3 in a direction toward or away from the wall 2a. Various concrete buckets 1 can be brought close to the wall 2a of the bunker wire 2 well.
As the moving means, a plurality of positioning bolt holes in a straight line in a direction perpendicular to the wall 2a side on the floor 2b near the both ends 7e of the base 7 extending over the entire length of the bunker wire 2 14, and bolts 15 that are screwed into the bolt holes 14 to fix the position of the base 7 are provided at both ends 7 e of the base 7. A female screw member 15 a guides the bolt 15. In this case, it is necessary to move the entire landing apparatus 3 provided over the entire length of the bunker line 2, but this movement may be performed using a jack or the like. Further, the base 7, the support column 8, and the fixed inclined plate 9 may be divided so as to correspond to each of the above-described landing devices 3X so that the position can be adjusted for each of the landing devices 3X.
[0021]
According to the second embodiment, it is possible to obtain a landing apparatus that can correspond to the concrete buckets 1 having various shapes and sizes.
[0022]
Embodiment 3 FIG.
In each of the above-described embodiments, the flooring device including the receiving material 4 including the L-shaped panel having the support member 4x has been described. However, as illustrated in FIG. 6, the receiving material 4Z having no support member is provided. You may comprise and use the flooring apparatus 3 (3X). In this case, the effect of having the support member cannot be obtained, but the intended purpose can be sufficiently achieved. That is, among the effects obtained in the first embodiment, the effect when the supporting member is provided cannot be obtained, but other effects can be obtained.
[0023]
【The invention's effect】
As described above, according to the first aspect of the present invention, the inclined surface is formed in the initial state before receiving the weight of the concrete bucket on the tip side of the arm having a predetermined length that rotates through the rotation fulcrum. In a state in which the weight of the concrete bucket is received and the concrete bucket is received, the arm is set to face the wall portion while guiding the concrete bucket, and the concrete bucket is landed. Provided with a landing actuating means to which a material is attached, and operates so as to pull back the position of the receiving material in the direction of the initial state when the receiving material receives the weight of the concrete bucket. A pull-back means for returning the position of the receiving material to the initial state when it is away from the bucket landing place. Therefore, the horizontal movement allowance can be taken sufficiently, the concrete bucket can be swayed, the concrete bucket can be smoothly landed, and the power source and complicated control are also required when landing and leaving the floor. Thus, a concrete bucket flooring device with a simple configuration that does not become the case can be obtained.
According to the second aspect of the present invention, since the receiving material is formed from an L-shaped panel having a support piece that comes into contact with the bottom surface of the concrete bucket, the following effect is further obtained in addition to the effect of the first aspect. Is obtained. That is, the concrete bucket can be landed in a state in which ready-mixed concrete can be easily placed, and the attitude of the concrete bucket is not collapsed, and the descent operation operation by the cable crane is facilitated.
According to the invention according to claim 3, since it includes the other end of the receiving member in the initial state, and includes the inclined surface extending with the inclined surface of the receiving material, in addition to the effects of claims 1 and 2, Thus, a device capable of easily operating the cable crane can be obtained.
According to the invention according to claim 4, since the receiving member is provided with a restricting means for restricting the receiving member to be positioned at the initial state when the position is returned to the initial state. In addition to the third effect, the backing plate can be reliably set to the initial state.
According to the invention which concerns on Claim 5, since the said rotation fulcrum is provided with the moving means which moves to the direction which adjoins with respect to the wall part side of a concrete bucket landing place, or the direction which leaves | separates, Claim 1, In addition to the effects of 2, 3 and 4, it is possible to obtain a flooring apparatus that can handle concrete buckets of various shapes and sizes.
According to the invention which concerns on Claim 6, the flooring apparatus corresponding to the magnitude | size of the receiving material set to the magnitude | size which can receive one concrete bucket is arrange | positioned over the full length of a concrete bucket landing place. Thus, in addition to the effects of the first, second, third, fourth, and fifth aspects, the number of places where the concrete bucket can be lowered further increases, so that the operation of the cable crane is facilitated.
[Brief description of the drawings]
FIG. 1 is a side view showing a landing apparatus according to Embodiment 1 of the present invention.
FIG. 2 is a plan view showing the landing apparatus according to the first embodiment.
FIG. 3 is a perspective view showing an outline of a landing apparatus according to the first embodiment.
FIG. 4 is an operation explanatory diagram of the landing apparatus according to the first embodiment.
FIG. 5 is a side view showing a landing apparatus according to a second embodiment of the present invention.
FIG. 6 is a side view showing a landing apparatus according to Embodiment 3 of the present invention.
FIG. 7 is a diagram showing an overview of a dam construction site.
FIG. 8 is a diagram showing an example of a conventional landing apparatus.
FIG. 9 is a diagram showing an example of a conventional landing apparatus.
FIG. 10 is a diagram showing an example of a conventional landing apparatus. .
[Explanation of symbols]
DESCRIPTION OF SYMBOLS 1 Concrete bucket, 2 Bunker wire (concrete bucket landing place), 2a wall part, 2b floor part, 3 (3X) landing device, 4 receiving material, 4x support member, 5 hinge means (rotation fulcrum), 6 arm , 9 fixed inclined plate, 9f fixed inclined surface, 10 spring (retraction means).

Claims (6)

A predetermined position in a concrete bucket landing place having a wall portion and a floor portion extending from the lower portion of the wall portion on which a concrete bucket is to be placed, and a ready-mixed concrete supply device being disposed on the upper side of the wall portion; A device for landing a concrete bucket on
On the distal end side of the arm of a predetermined length that rotates so as to fall down to the floor side in a direction approaching the wall side via a pivot point provided on the floor side of the concrete bucket landing place, In an initial state before receiving the weight of the concrete bucket, an inclined surface that is inclined upward is formed so as to be separated from the wall portion from one end near the floor portion, and receives the weight of the concrete bucket. In this state, the arm is turned, and the receiving member is set so as to face the wall portion while guiding the concrete bucket so as to land the concrete bucket on the floor portion close to the wall portion. An implantation actuating means comprising:
When the receiving material receives the weight of the concrete bucket and operates to pull back the position of the receiving material in the direction of the initial state, and when the concrete bucket is separated from the concrete bucket landing place, A concrete bucket landing device comprising pull-back means for returning the position of the receiving material to the initial state. 2. The concrete bucket landing apparatus according to claim 1, wherein the receiving member is formed of an L-shaped panel having a support member that abuts against a bottom surface of the concrete bucket on the one end side. The landing apparatus for a concrete bucket according to claim 1 or 2, further comprising a fixed inclined surface extending from the other end of the receiving material in the initial state and extending to the inclined surface of the receiving material. 2. A restricting means for restricting the receiving member from being moved to the opposite side of the wall from the initial position when the receiving member is returned to the initial state. The concrete bucket landing apparatus according to claim 2 or claim 3. The moving fulcrum is provided with a moving means for moving in a direction approaching or separating from the wall portion, according to claim 1, claim 2, claim 3, or claim 4. Concrete bucket flooring equipment. The receiving material is set to a size capable of receiving one of the concrete buckets, and the flooring device corresponding to the size of the receiving material having the receiving material is connected to the entire length of the concrete bucket landing site. The concrete bucket landing device according to claim 1, claim 2, claim 3, claim 4, or claim 5, wherein the flooring device is arranged over a range of points.

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