JPH11164622A - Elevated cultivation apparatus - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an elevated cultivation apparatus capable of making a man work in a standing posture, reducing the amount of culture soil, water, a fertilizer, etc., to be used, readily carrying out the transporting, installing and withdrawing works, and a small housing space is enough to house the cultivation apparatus. SOLUTION: This elevated cultivation apparatus 10 is obtained by nipping the lower parts of superimposed plural flexible sheets 11 and 12 with corrugated plate materials 13 and 14, thereby forming culture soil housing units 15 in a cylindrical shape and providing holding members 17 for holding the culture soil housing units 15 in a standing state on the ground surface 16 and holding members 18 for holding the flexible sheets 11 and 12 exposed from the upper part of the culture soil housing units 15 in the form of a groove. The holding members 17 and 18 are fixed to supports 22 stood from the ground surface 16 and each of the culture soil housing units 15 has a structure for communicating with a groove-shaped part 19 formed by the flexible sheets 11 and 12.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an elevated cultivation container for cultivating strawberries, leafy vegetables, flowers, root vegetables and the like at a position higher than the ground surface.

[0002]

2. Description of the Related Art When cultivating strawberries, leafy vegetables, flowers, root crops, and the like, a method called soil cultivation in which seedlings are planted and grown along ridges formed on the ground surface of the cultivation area has been adopted. ,
In the case of this cultivation method, a series of operations from raising seedlings to harvesting is often performed in a squatting or crouched posture, so that the working efficiency is poor and the physical burden on the worker is large. In particular, when cultivating strawberries or the like, the planting work involves heavy labor such as transport of seedlings, so that an extremely heavy physical burden is imposed on the workers.

In order to improve such severe working conditions, development of a cultivation container capable of working in a standing posture of a human being or research on a new cultivation technique has been carried out. A cultivation method called cultivation is being implemented.

[0004] The present applicant has developed a cultivation container for strawberry and the like that requires a small amount of cultivation soil and has good root growth (see Japanese Utility Model Application Laid-Open No. 6-34437).
A device for holding the cultivation container and an auxiliary tool suitable for watering and fertilizing have been developed (see Japanese Utility Model Publication No. 6-16495). By combining these cultivation containers and devices, it is possible to improve working conditions and work efficiency.

FIG. 7 is a perspective view showing a state in which a cultivation container in which the auxiliary tool is set is held by a holding device. As shown in FIG. 7, the holding device 80 includes a frame 81 and a support 82.
By holding the tapered cylindrical cultivation container 91 and the auxiliary tool 92 for watering and fertilizing with the holding device 80, it becomes possible to work in the standing posture, so that the cultivation work can be performed more efficiently. Work conditions can be improved.

On the other hand, as a method of holding a cultivation container at a position higher than the ground surface, the present applicant has developed a method of suspending a cultivation container having a shape in which a plurality of container bodies are connected by a connecting member, over a gantry. However, it is disclosed in JP-A-8-298870.

FIG. 8 is a perspective view showing an example of the cultivation apparatus according to the above publication. The cultivation container 95 is formed by continuously forming a part of the upper end of a synthetic resin container body 96.
Container main body groups 97a and 97b having a shape in which ten container main bodies are linearly connected are formed, and container main body groups 97a and 97b are formed.
A structure is provided in which the upper part of 7b is connected by a connecting member 98.

By using the cultivation apparatus shown in FIG. 8, the worker can work in an upright posture, and a large number of conventional cultivation containers can be locked to the frame 99 by one locking operation. Therefore, the efficiency of the work of locking the cultivation container can be improved.

[0009]

In the case of a conventional elevated cultivation apparatus, regardless of whether the cultivation container is a single container or a connected container, the work of filling the container with the cultivation soil must be performed for each container. For this reason, in large-scale cultivation using a large number of cultivation containers, a large amount of time and labor is required for installation work and soil filling work.

In addition, since these cultivation containers are used in a state where they are hung on a holding device installed on the ground, the ratio of the holding device occupied by the holding device is smaller than that of the portion actually contributing to cultivation. Tends to be large. For this reason, not only enormous labor and time are required when transporting and installing the apparatus, but also a wide installation space is required, and it is difficult to adopt the apparatus when the cultivation area is small.

Further, after the cultivation season is over, it is necessary to withdraw the cultivation apparatus and the cultivation container, but in this case, it takes much time and work to discharge the cultivation soil in the cultivation container and to carry out the holding devices. In addition to consuming labor, after withdrawal, a large space is needed to accommodate these cultivation containers and holding devices.

On the other hand, the conventional elevated cultivation apparatus has a relatively large size and a complicated structure, so that it takes a lot of time and labor to manufacture, and also requires a large amount of raw materials such as synthetic resin. , High cost. For this reason, it is difficult to adopt it in small-scale farmers with a small cultivation area.

[0013] Therefore, the problem to be solved by the present invention is that a human can work in an upright posture,
The amount of fertilizer used can be significantly reduced,
An object of the present invention is to provide an elevated cultivation apparatus that can be easily installed and withdrawn and requires a small storage space.

[0014]

Means for Solving the Problems In order to solve the above-mentioned problems, an elevated cultivation apparatus of the present invention comprises: Holding means for holding the cultivated soil container on the ground in an upright state.

[0015] With such a configuration, a cylindrical soiling container is formed between the superposed plate members, and the soiling container is held upright on the ground by the holding means.
By filling the cultivation soil container with the cultivation soil, the plant can be cultivated, and during the cultivation period, a human can perform various operations in the standing posture. In this case, the roots of the plant cultivated in the cultivation soil in the cultivation soil container can extend downward toward the bottom of the cultivation soil container, and can reach the ground portion in contact with the cultivation soil container. Therefore, nutrient absorption is improved, the same effect as deep cultivation is produced, and the yield can be increased. In this case, if a ridge is formed on the ground portion in contact with the cultivation soil container, the root can extend into the ridge.

Further, since the buried soil container can be formed simply by laminating a plurality of plate members, at least one of which is corrugated, and holding it upright on the ground, not only installation work but also withdrawal work is easy. In addition, since the constituent members are a corrugated plate or a flat plate, the storage space is small.

Further, since at least one of the plate members forming the cultivation container is corrugated and the respective cultivation containers are arranged apart from each other, the amount of cultivation used can be reduced. Even when cultivated soil is stored, no clogging occurs and workability is good. In addition, the amount of water, fertilizer, and the like can be reduced along with the reduction in the amount of soil used.

On the other hand, since the lower part of the cultivated soil container held upright on the ground is grounded, the ground temperature spreads throughout the plate material forming the cultivated soil container during use, and the heat retention is good. is there.

Further, the elevated cultivation apparatus of the present invention is characterized in that a part of a plurality of stacked flexible sheets is sandwiched between a plurality of plate members, at least one of which is corrugated, so that the cultivated soil storage formed between the plate members is provided. First holding means for holding the cultivated soil container on the ground in an upright state, and second holding means for holding the flexible sheet exposed from the top of the cultivated soil container in a groove shape.
Holding means.

With such a structure, each soil container is in communication with the groove formed by the flexible sheet, and when the soil is injected into the groove, the groove becomes a funnel. Therefore, the work of filling the soil into the soil storage container can be efficiently performed. In addition, the burrow filled in the groove shape part will be in a continuous state in the longitudinal direction,
A large number of plant seedlings can be planted, and in the case of agricultural products, the cultivation density can be increased to improve the yield. Further, since the buried soil container and the groove-shaped portion can be integrally formed, the installation work and the withdrawal work are also easy.

Further, the elevated cultivation apparatus according to the present invention is characterized in that the cultivated soil container formed between the plate materials by laminating at least one of the corrugated plate materials, and the cultivated soil container is held upright on the ground. It is characterized by comprising a holding means and a groove-shaped soil cultivation container having an opening mounted on the upper portion of the soil cultivation container and communicating with the soil cultivation container.

With such a structure, an elevated cultivation device having a groove-shaped cultivation container communicating with each cultivation container is formed above the cultivation container. The cultivation soil filling operation into the cultivation soil container can be performed efficiently, and the yield can be increased by increasing the cultivation density. Further, after the formation of the cultivated soil container is completed, the cultivated soil container can be mounted, so that the work efficiency can be improved by division of labor during installation work or the like.

Further, in the elevated cultivation apparatus of the present invention, the opening of the soil cultivation container can be a tubular body that can be engaged with the soil cultivation container. By adopting such a shape, the opening has a cylindrical shape similar to the soil cultivation container, so that the opening of the soil cultivation container is inserted into the upper part of the soil cultivation container, or conversely, the soil cultivation container It is possible to adopt a structure in which the upper part of the soil cultivation container is inserted into the opening of the cultivation soil container, and the soil cultivation container and the soil cultivation container can be reliably connected. Therefore, the installation work is facilitated, and the detachment after the installation can be prevented.

[0024] In this case, the buried soil container can be structured to be dividable along the longitudinal direction. By adopting such a structure, when not in use, it can be divided and reduced in size, and can be overlapped with each other, so that the space for storage and transportation can be reduced. Further, after the cultivation period is over, since the cultivation soil container can be divided and the cultivation soil can be discharged, the cultivation soil discharge operation can be made more efficient.

Further, in the elevated cultivation apparatus of the present invention, the corrugated plate, the flat plate, and the cultivation container can be formed of any one of synthetic resin, metal, and wood. Since the synthetic resin is lightweight and has excellent corrosion resistance, it can be easily transported and installed, and can form an elevated cultivation apparatus that does not cause corrosion or deterioration due to pesticides or fertilizers. Since the metal has high rigidity and high thermal conductivity, it is easy to control the temperature of the filled soil from the outside, and it is possible to form an elevated cultivation device that is not easily deformed. Wood has moderate ventilation and hygroscopic properties, and it is difficult to transmit the temperature.Therefore, it is possible to keep the moisture and air content of the soil cultivated in the wood moderately, and to establish an elevated cultivation device with excellent heat retention. Can be formed.

Therefore, although the components such as the corrugated plate, the flat plate, and the cultivation container may be unified with the same material to form the elevated cultivation apparatus, the elevated cultivation may be formed by combining the components formed of different materials. By forming the apparatus, it is possible to provide a cultivation environment according to the type of plant to be cultivated, the climate, and the like.

[0027]

Embodiments of the present invention will be described below with reference to the drawings. FIG. 1 is a perspective view showing the elevated cultivation apparatus of the first embodiment, and FIG. 2 is a longitudinal sectional view of the elevated cultivation apparatus.

In the elevated cultivation apparatus 10 according to the first embodiment, the lower part of the plurality of superposed flexible sheets 11 and 12 is sandwiched between the corrugated plates 13 and 14 to form a cylindrical cultivation container 15. A holding member 17 for holding the cultivation container 15 on the ground 16 in an upright state, and a holding member 18 for holding the flexible sheets 11 and 12 exposed from the top of the cultivation container 15 in a groove shape. It has. The holding members 17 and 18 are fixed to a column 22 erected on the ground 16. Further, each cultivated soil container 15 has a structure communicating with a groove-shaped portion 19 formed by the flexible sheets 11 and 12.

Therefore, if the cultivation soil 20 is put into the groove-shaped portion 19 after the elevated cultivation apparatus 10 is installed in the cultivation area, the groove-shaped portion 19 functions as a funnel. The filling operation can be performed efficiently.
Further, since the cultivation soil 20 filled in the groove-shaped portion 19 is continuous in the longitudinal direction, a large number of plants 21 can be planted. In the case of agricultural products, the cultivation density is increased to improve the yield. be able to.

Further, since the cultivated soil container 15 and the groove 19 are formed integrally, not only the installation work but also the withdrawal work are easy. In addition, as shown in FIG. 1, in the elevated cultivation apparatus 10, the cultivated soil 20 is directly accommodated in the groove-shaped portion 19. After mounting in the groove 19, cultivation 2
0 may be stored. Since the openings 24 are formed at the bottom of the reinforcing member 23 at equal intervals with the cultivation soil container 15, there is no problem in filling the cultivation soil 20 and the like.

As described above, if the cultivation soil 20 is filled in the cultivation soil container 15 and the groove-shaped portion 19, the plant 21 can be cultivated, and during the cultivation period, a human can perform various operations in the standing posture. In this case, as shown in FIG.
, And the roots can also extend into the ridges 25 formed so as to fill the lower part of the cultivation container 15, so that the nutrient absorption is improved, The same effect as deep cultivation is produced, and the yield is increased.

Further, since the buried soil container 15 can be formed only by holding the overlapped flexible sheets 11 and 12 between the corrugated plate members 14 and holding the flexible sheets 11 and 12 in an upright state on the ground 16, the installation work is not required. Needless to say, the withdrawal operation is easy, and since the constituent members are the corrugated plate members 13 and 14 and the flexible sheets 11 and 12, the storage space is small.

Further, since each of the soil cultivation containers 15 is spaced apart from each other, the soil cultivation consumption can be reduced as compared with the case where a large ridge is formed by soil cultivation.
Even when the cultivated soil 20 is accommodated in the cultivated soil container 15, no soil clogging occurs and the workability is good. In addition, the amount of water, fertilizer, and the like can be reduced with the reduction in the amount of soil used.

On the other hand, since the lower part of the cultivated soil container 15 held upright on the ground 16 is grounded through the ridge 25,
During the cultivation period, the temperature of the ground 16 spreads over the entire cultivation soil 20 through the corrugated plate members 13 and 14 and the flexible sheets 11 and 12 forming the cultivation soil storage body 15, and the heat retention is also good.

Next, referring to FIGS. 3 and 4, the second embodiment of the present invention will be described.
An embodiment will be described. FIG. 3 is an exploded perspective view showing the elevated cultivation apparatus of the second embodiment, and FIG. 4 is a perspective view showing another embodiment of the soil cultivation container.

As shown in FIG. 3, in the elevated cultivation apparatus 30 of the present embodiment, a plurality of corrugated plate members 31 and 32 are overlapped to form a cylindrical cultivation container 33, and the cultivation container 33 is grounded. 34, a holding member 35 for holding the container in an upright state, and a groove-shaped cultivation container 37 having a tubular body 36 which is mounted on the top of the cultivation container 33 and can be inserted into the top of the cultivation container 33. I have.

Therefore, when the elevated cultivation device 30 is installed in the cultivation area, a structure is provided in which a groove-shaped cultivation container 37 communicating with each cultivation container 33 is provided above the cultivation container 33. Similar to the above-described elevated cultivation apparatus 10, the cultivation soil filling operation into the cultivation soil storage body 33 can be performed efficiently, and the cultivation density can be increased to increase the yield.
Further, after the formation of the cultivation soil container 33 is completed, the cultivation soil container 37 can be mounted, so that the work efficiency can be improved by division of labor, for example, at the time of installation work in the cultivation area.

In the elevated cultivation apparatus 30, since the cylindrical body 36 formed in the cultivated soil container 37 has a structure to be inserted into the cultivated soil container 33, the mounting operation is easy, and during the cultivation period after installation, There is no separation.

On the other hand, as shown in FIG. 4A, a structure in which a cultivation container 38 which can be divided in the longitudinal direction is mounted on the upper portion of the cultivation container 33 may be adopted. In this case, when not in use, the size of the cultivation container 38 can be reduced by dividing it, and can be overlapped with each other, so that the space for storage and transportation can be reduced. Further, after the cultivation period is over, the cultivation soil container 38 can be divided and the cultivation soil can be discharged, so that the discharging operation can be made more efficient.

As shown in FIG. 4 (b), a pair of slits 4 capable of holding the plane portions of the corrugated plate members 42 and 43 superposed on the respective cylindrical bodies 40 formed in the cultivation container 39.
1 and the inner diameter of each cylindrical body 40 is set to be larger than the outer diameter of the cultivated soil container 44, the structure is such that the upper portion of the cultivated soil container 44 is inserted into the cylindrical body 40 of the cultivated soil container. The container 39 can be reliably engaged with the cultivation soil container 44.
In this case, the slit 41 of each tubular body 40 is
Corrugated plate members 42, 4
3 can be prevented from separating.

Next, third and fourth embodiments of the present invention will be described with reference to FIGS. FIG. 5 is a perspective view showing the elevated cultivation apparatus of the third embodiment, and FIG. 6 is a perspective view showing the elevated cultivation apparatus of the fourth embodiment.

As shown in FIG. 5, the elevated cultivation apparatus 50 of the third embodiment has a tubular cultivated soil container 5 formed by stacking a plurality of corrugated plate members 51, 52 on each other.
3 and a holding member 55 for holding the soil storage container 53 on the ground 54 in an upright state.

As shown in FIG. 6, the elevated cultivation apparatus 60 of the fourth embodiment comprises a cultivated soil container 6 formed by stacking a flat plate 61 and a corrugated plate 62 on each other.
3 and a holding member 65 for holding the cultivated soil container 63 on the ground 64 in an upright state.

The elevated cultivation devices 50 and 60 shown in FIGS.
Is a tubular soil storage container 53, 6 between the superposed plate materials.
3 are formed, and the cultivation soil containers 53 and 63 are
Because the soil is held upright on the grounds 54 and 64 by the soils 5 and 65, the soil can be cultivated by filling the soil soil containers 53 and 63 with the soil 56 and 66. Can perform various operations.

In this case, the roots of the plants cultivated in the cultivation soils 56 and 66 in the cultivation soil storage bodies 53 and 63 are
Since it is possible to grow long below 63, the nutrient absorption is enhanced, the same effect as deep cultivation is produced, and the yield can be increased. Elevated cultivation equipment 5
In the case of 0, 60, since the cultivated soil storage bodies 53, 63 are cylindrical, they are suitable for cultivating root vegetables such as radish, burdock, yam and the like.

Further, the cultivated soil storage bodies 53 and 63 can be formed only by stacking a plurality of plate materials, at least one of which is corrugated, and holding the plate material in an upright state on the ground.
Not only the installation work, but also the withdrawal work is easy, and since the constituent members are the corrugated plate members 51, 52, 62, the flat plate member 61, etc., the storage space is small.

Further, since the cultivation containers 53 and 63 are arranged apart from each other, it is possible to reduce the amount of cultivation used, and even when the cultivation containers 56 and 66 are stored in the cultivation containers 53 and 63. No clogging occurs and workability is good. In addition, the amount of water, fertilizer, and the like can be reduced with the reduction in the amount of soil used.

On the other hand, since the lower portions of the cultivated soil containers 53 and 63 held upright on the ground are grounded, the ground temperature spreads throughout the plate material forming the cultivated soil containers 53 and 63 during use. Good heat retention.

The elevated cultivation apparatuses 10 and 3 of the first to fourth embodiments
In 0, 50, and 60, all the constituent members such as the corrugated plate, the flat plate, and the soil container are formed of synthetic resin. For this reason, the elevated cultivation apparatuses 10, 30, 50, and 60 are lightweight and excellent in corrosion resistance, are easy to transport and install, and do not generate corrosion or deterioration due to pesticides or fertilizers.

Since each component is not limited to a synthetic resin, it can be made of metal, wood, or the like. Further, each component may be unified with the same material to form an elevated cultivation device, but by forming the elevated cultivation device by combining components formed of different materials, the type of plant to be cultivated, It is also possible to provide a cultivation environment according to the climate and the like.

[0051]

According to the present invention, the following effects can be obtained.

(1) A soil cultivation container formed between a plurality of plate materials, at least one of which is corrugated, and a holding means for holding the soil cultivation container upright on the ground. With the provision, a cylindrical soiling container is formed between the stacked plate materials, and the soiling container is held upright on the ground by the holding means, so if the soiling container is filled with soil, Plants can be cultivated, and during the cultivation period, humans can perform various operations in a standing posture. In this case, the roots of the plant cultivated in the cultivation soil in the cultivation container can extend long downward of the cultivation container, and can also extend from the lower portion of the cultivation container into the ground. Therefore, nutrient absorption is enhanced, and the growth state is improved.

(2) Since the cultivation soil container can be formed only by stacking a plurality of plate members, at least one of which is corrugated, and holding the plate material in an upright state on the ground, installation work,
Withdrawal work is easy, and the storage space is small because the constituent members are corrugated plate members or flat plate members.

(3) At least one of the plate members forming the cultivation container is corrugated, and the respective cultivation containers are spaced apart from each other, so that the amount of cultivation used can be reduced. Even when cultivated soil is stored, no clogging occurs and workability is good. In addition, the amount of water, fertilizer, etc. can be reduced along with the reduction of soil cultivation, and the lower part of the soil cultivation container is grounded. And spread throughout, and the heat retention is good.

(4) A cultivated soil container formed between plate materials by sandwiching a part of a plurality of superposed flexible sheets between a plurality of plate materials, at least one of which is corrugated; And a second holding means for holding the flexible sheet exposed from the upper part of the cultivation soil container in a groove shape. The body is in communication with the groove formed by the flexible sheet, and when the soil is injected into this groove, the groove functions as a funnel. Can be done.
In addition, since the cultivated soil filled in the groove-shaped portion is continuous in the longitudinal direction, it is possible to plant a large number of plant seedlings, and in the case of agricultural products, it is possible to increase the cultivation density and improve the yield. it can. Further, since the buried soil container and the groove-shaped portion can be integrally formed, the installation work and the withdrawal work are also easy.

(5) At least one of the corrugated plates is overlapped to form a cultivated soil container formed between the plates, holding means for holding the cultivated soil container upright on the ground, and a cultivated soil container. By having a groove-shaped cultivation container having an opening attached to the upper part and communicating with the cultivation container, a groove-shaped cultivation container connected to each of the cultivation containers is provided at the top of the cultivation container. Since the elevated cultivation apparatus is formed, similarly to the above (4), the cultivation soil filling operation into the cultivation soil container can be efficiently performed, and the yield can be increased. Also, after the formation of the burial container is completed,
Since the buried soil container can be mounted, the work efficiency can be improved by division of labor during installation work and the like.

(6) By making the opening of the soil cultivation container a tubular body engageable with the soil cultivation container, the opening has a cylindrical shape similar to the soil cultivation container. Can be inserted into the upper part of the cultivation container, or vice versa, the upper part of the cultivation container can be inserted into the opening of the cultivation container. It can be reliably connected to the soil storage container,
Separation after installation can be prevented.

(7) The cultivation soil container has a structure that can be divided along the longitudinal direction, so that when not in use, it can be divided and reduced in size, and can be overlapped with each other. Space is small. Further, after the cultivation period is over, since the cultivation soil container can be divided and the cultivation soil can be discharged, the cultivation soil discharge operation can be made more efficient.

(8) Corrugated plate material, flat plate material, and soil container
It can be formed of any material such as synthetic resin, metal and wood. Since the synthetic resin is lightweight and has excellent corrosion resistance, it can be easily transported and installed, and can form an elevated cultivation apparatus that does not cause corrosion or deterioration due to pesticides or fertilizers. Since the metal has high rigidity and high thermal conductivity, it is easy to control the temperature of the filled soil from the outside, and it is possible to form an elevated cultivation device that is not easily deformed.
Wood has moderate ventilation and hygroscopic properties, and it is difficult to transmit the temperature.Therefore, it is possible to keep the moisture and air content of the soil cultivated in the wood moderately, and to establish an elevated cultivation device with excellent heat retention. Can be formed.

[Brief description of the drawings]

FIG. 1 is a perspective view showing an elevated cultivation apparatus according to a first embodiment.

FIG. 2 is a longitudinal sectional view of the elevated cultivation apparatus shown in FIG.

FIG. 3 is an exploded perspective view showing an elevated cultivation apparatus according to a second embodiment.

FIG. 4 is a perspective view showing another embodiment of the soil cultivation container.

FIG. 5 is a perspective view showing an elevated cultivation apparatus according to a third embodiment.

FIG. 6 is a perspective view showing an elevated cultivation apparatus according to a fourth embodiment.

FIG. 7 is a perspective view showing a conventional elevated cultivation apparatus.

FIG. 8 is a perspective view showing a conventional elevated cultivation apparatus.

[Explanation of symbols]

10, 30, 50, 60 Elevated cultivation apparatus 11, 12 Flexible sheet 13, 14, 31, 32, 42, 43, 51, 52, 6
2 Corrugated plate material 15, 33, 44, 53, 63 Cultivated soil container 16, 34, 54, 64 Ground 17, 18, 35, 55 Holding member 19 Groove-shaped portion 20, 56, 66 Cultivated soil 21 Plant 22 Strut 23 Reinforcement member 24 Opening 36,40 Cylindrical body 37,38,39 Cultivation container 41 Slit 61 Flat plate

 ──────────────────────────────────────────────────続 き Continued on the front page (72) Inventor Hiroshi Iwashige 481-1, Hiratsuka, Chikuho-cho, Kaho-gun, Fukuoka Prefecture Inside the Kyushu Branch of Yazaki Corporation

Claims (6)

[Claims] 1. A cultivated soil container formed by laminating a plurality of plate materials at least one of which is corrugated, and holding means for holding the cultivated soil container upright on the ground. An elevated cultivation device comprising: 2. A cultivation soil container formed between a plurality of superposed flexible sheets by sandwiching a part of the plurality of flexible sheets with a plurality of plate materials, at least one of which is corrugated, First to hold upright on the ground
An elevated cultivation apparatus comprising: holding means; and second holding means for holding the flexible sheet exposed from the upper part of the cultivation soil container in a groove shape. 3. A soil cultivation container formed by laminating a plurality of plate materials at least one of which is corrugated, and holding means for holding the soil cultivation container upright on the ground. An elevated cultivation apparatus, comprising: a groove-shaped soil cultivation container mounted on an upper part of the soil cultivation container and having an opening communicating with the soil cultivation container. 4. The elevated cultivation apparatus according to claim 3, wherein the opening of the soil cultivation container is a tubular body that can be engaged with the soil cultivation container. 5. The elevated cultivation apparatus according to claim 3, wherein the soil cultivation container is dividable along a longitudinal direction. 6. The corrugated plate material, the flat plate material, and the soil container,
The elevated cultivation apparatus according to claim 1, wherein the elevated cultivation apparatus is formed of any one of a synthetic resin, a metal, and wood.