A cultivation barrel module for cultivating plant growth

Abstract

The utility model relates to the technical field of plant cultivation, especially to a cultivation barrel module for cultivating plant growth, which comprises a plurality of barrel stacks arranged at intervals and a fixing plate for positioning the barrel stacks, the fixing plate is formed with a plurality of fixing round holes coaxially aligned with the barrel stacks, the barrel stack comprises a plurality of germination barrels stacked layer by layer, the top and bottom of the germination barrel are of a through opening structure, a germination tray is placed in the germination barrel, and a limiting tray is axially movable in the barrel, the limiting tray is located above the germination tray, and the bottom and top of the germination barrel are respectively formed with a limiting structure; after the barrel stack is stacked to a certain height, the fixing round hole is sleeved on the barrel stack, and the plurality of barrel stacks are connected with each other to prevent the barrel stack from collapsing due to being too high, so as to realize the positioning of the barrel stack; when germination is carried out, the seeds are placed on the germination tray, then the seeds germinate and grow continuously, and the limiting tray is pushed up, so that the germination and growth height of the seeds is relatively uniform, and the overall growth height will not exceed the germination barrel.

Description

Technical Field

[0001] This utility model relates to the field of plant cultivation technology, and in particular to a cultivation barrel module for cultivating plant growth. Background Technology

[0002] Patent 201921654141.X discloses a seedling container for forestry, including a box body, a planting rack slidably installed between two slid grooves, slide rails fixedly installed on the side of the box body directly above the slid grooves, two corresponding sliding door panels slidably installed between the two slide rails, and several drip irrigation mechanisms equally spaced along the width direction embedded in the lower surface of the two sliding door panels. A lifting mechanism corresponding to the planting rack is threaded through the center of the bottom of the box body. The above-mentioned seedling container is a grid-like seedling structure, while the volume of seedlings is generally large, and the space for individual growth is limited, which will greatly affect the development of the seedling root system and the survival rate.

[0003] The existing seedling trays are all individual units. When multiple seedling trays are stacked to a certain height, they will collapse, making it impossible to cultivate seedlings normally. Utility Model Content

[0004] The purpose of this invention is to provide a cultivation bucket module for cultivating plant growth, addressing the shortcomings of existing technologies.

[0005] To achieve the above objectives, the technical solution of this utility model is as follows:

[0006] A cultivation barrel module for cultivating plant growth includes multiple barrel stacks arranged at intervals and a fixing plate for positioning the multiple barrel stacks. The fixing plate is formed with multiple fixing circular holes coaxially aligned with the barrel stacks. The barrel stacks include multiple layered sprouting barrels. The top and bottom of the sprouting barrels are through-open structures. A sprouting tray and a limiting tray that moves axially inside the barrel are placed inside the sprouting barrel. The limiting tray is located above the sprouting tray. The bottom and top of the sprouting barrel are respectively formed with limiting structures.

[0007] Furthermore, both the germination tray and the limiting tray have perforated grooves for water supply.

[0008] Furthermore: the limiting structure includes a bottom limiting block and a top limiting block, the bottom limiting block supporting the germination tray, the top limiting block stopping the limiting tray and supporting the top germination bucket.

[0009] Furthermore, there are multiple bottom limiting blocks and multiple top limiting blocks, which are arranged in a ring at equal intervals on the inner wall of the germination bucket.

[0010] Furthermore: the edge of the germination tray has multiple bottom passage grooves formed in a ring at equal intervals, the number of bottom passage grooves being the same as the number of bottom limiting blocks; the edge of the limiting tray has multiple top passage grooves formed in a ring at equal intervals, the number of top passage grooves being the same as the number of top limiting blocks.

[0011] Furthermore: the top of the germinating barrel is formed with an annular groove for inserting another germinating barrel. The annular groove is located on top of the top limiting block, and two adjacent germinating barrels are inserted and stacked through the annular groove.

[0012] Furthermore: the bottom outer ring wall of the germination bucket is formed with a stop ring, the outer diameter of which is larger than the inner diameter of the fixing hole of the fixing plate.

[0013] Furthermore: a locking structure is provided between the barrel stacks. The locking structure is set at the first height of the barrel stack. The locking structure includes a latching block and a latching seat set on the outer wall of the barrel stack. The latching block can swing laterally. Two adjacent barrel stacks are connected by the latching block and the latching seat.

[0014] Furthermore: the first height is for one of the germination buckets, and the angle between the buckle block and the buckle seat is 180° or 90°.

[0015] The beneficial effects of this utility model are as follows: multiple buckets are stacked close to each other, and after the buckets are stacked to a certain height, a fixing round hole is fitted onto the buckets to connect the multiple buckets to each other, preventing the buckets from collapsing due to excessive height, thus achieving the positioning of the buckets; during germination, the seeds are placed on the germination tray, and then the seeds germinate and grow continuously, pushing the limiting tray upwards, so the germination and growth height of the seeds will be relatively uniform, and the overall growth height will not exceed the germination bucket, ensuring the stability of germination and growth. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the structure of the cultivation barrel module.

[0017] Figure 2 This is a structural diagram of the fixed plate.

[0018] Figure 3 This is a schematic diagram of the exploded structure of the germination tank.

[0019] Figure 4 This is a schematic diagram of the structure connecting two adjacent germination buckets.

[0020] The reference numerals in the figures include:

[0021] 1-Bucket stack,

[0022] 11-Sprouting bucket, 12-Sprouting tray, 13-Limiting tray, 14-Hollow groove, 15-Bottom limiting block

[0023] 16-Top limiting block, 17-Bottom through groove, 18-Top through groove, 19-Annular groove

[0024] 2-Fixing plate

[0025] 21-Fixed round hole, 22-Stop ring, 23-Locking structure, 24-Snap block, 25-Snap seat. Detailed Implementation

[0026] The present invention will now be described in detail with reference to the accompanying drawings.

[0027] like Figure 1-4 As shown, a cultivation barrel module for cultivating plant growth includes multiple barrel stacks 1 arranged at intervals and a fixing plate 2 for positioning the multiple barrel stacks 1. The fixing plate 2 is formed with multiple fixing circular holes 21 that are coaxially aligned with the barrel stacks 1. The barrel stacks 1 include multiple layered sprouting barrels 11. The top and bottom of the sprouting barrels 11 are through openings. A sprouting tray 12 and a limiting tray 13 that moves axially inside the barrel are placed inside the sprouting barrel 11. The limiting tray 13 is located above the sprouting tray 12. The bottom and top of the sprouting barrels 11 are respectively formed with limiting structures.

[0028] Multiple buckets 1 are stacked close to each other. After the buckets 1 are stacked to a certain height, the fixing round hole 21 is fitted onto the buckets 1 to connect the multiple buckets 1 to each other, preventing the buckets 1 from collapsing due to excessive height, thus achieving the positioning of the buckets 1. During germination, the seeds are placed on the germination tray 12. Subsequently, the seeds germinate and grow continuously, pushing the limiting tray 13 on top. Therefore, the germination and growth height of the seeds will be relatively uniform, and the overall growth height will not exceed the germination bucket 11, ensuring the stability of germination and growth.

[0029] The germination tanks 11 in this solution can be stacked vertically, and can be stacked to different heights according to needs, which greatly reduces the footprint of the factory area. During cultivation, the water in the top germination tank 11 can continuously flow downwards, reducing water waste and improving water utilization.

[0030] Both the germination tray 12 and the limiting tray 13 have perforated grooves 14 for water supply. Since the germination bucket 11 has a through structure, in conjunction with the perforated grooves 14, water is sprayed from the bottom of the bucket pile 1. This water will continuously flow downwards until it reaches the bottommost germination bucket 11, thus achieving stable hydroponics of the plants.

[0031] Furthermore, the limiting structure includes a bottom limiting block 15 and a top limiting block 16. The bottom limiting block 15 supports the germination tray 12 and prevents the germination tray 12 from falling from the bottom of the germination bucket 11. Seeds that need to be germinated are placed on the germination tray 12 and continuously germinate and grow. The top limiting block 16 stops the limiting tray 13 and supports the top of the germination bucket 11. As the seeds continue to germinate and grow, the limiting tray 13 will be continuously lifted until the top limiting block 16 is reached, after which it will not be lifted further. The limiting tray 13 can further improve the uniformity of germination height and ensure the stability of germination and growth.

[0032] Preferably, there are multiple bottom limiting blocks 15 and multiple top limiting blocks 16, which are arranged in a ring at equal intervals on the inner wall of the germination container 11. Multiple bottom passage grooves 17 are formed in a ring at equal intervals along the edge of the germination tray 12, the number of which is the same as the number of bottom limiting blocks 15. Multiple top passage grooves 18 are formed in a ring at equal intervals along the edge of the limiting tray 13, the number of which is the same as the number of top limiting blocks 16.

[0033] The number of bottom through grooves 17 and bottom limiting blocks 15 is the same, and the area of ​​the bottom through grooves 17 is larger than that of the bottom limiting blocks 15. Therefore, when the bottom through grooves 17 and bottom limiting blocks 15 are coaxially aligned, the germination tray 12 can be removed from the germination bucket 11 for replacement and cleaning. Similarly, the number of top through grooves 18 and top limiting blocks 16 is the same, and the area of ​​the top through grooves 18 is larger than that of the top limiting blocks 16. Therefore, when the top through grooves 18 and top limiting blocks 16 are coaxially aligned, the germination tray 12 can be removed from the germination bucket 11 for replacement and cleaning.

[0034] Furthermore, the top through groove 18 and the bottom through groove 17 are coaxially aligned and have the same size. The top limiting block 16 and the bottom limiting block 15 are coaxially aligned and have the same size. Therefore, the germination tray 12 and the limiting tray 13 can be removed from the top opening or the bottom opening for replacement and disassembly.

[0035] Furthermore, the top of the germinating barrel 11 is formed with an annular groove 19 for inserting another germinating barrel 11. The annular groove 19 is located on the top of the top limiting block 16. Two adjacent germinating barrels 11 are inserted and stacked through the annular groove 19. When multiple germinating barrels 11 are stacked, the top germinating barrel 11 is inserted into the bottom germinating barrel 11 and is initially positioned by the annular groove 19. This allows multiple germinating barrels 11 to be stacked and installed to form barrel stacks 1 of different heights.

[0036] Furthermore, a stop ring 22 is formed on the outer ring wall at the bottom of the germination bucket 11. The outer diameter of the stop ring 22 is larger than the inner diameter of the fixing hole 21 of the fixing plate 2. When all the buckets stacked 1 are installed to a certain height, the fixing plate 2 is installed. The fixing hole 21 of the fixing plate 2 is fitted into the germination bucket 11 at that height, and the stop ring 22 supports the fixing plate 2. The fixing hole 21 is fitted onto the bucket stack 1, connecting multiple bucket stacks 1 to each other to prevent the bucket stack 1 from collapsing due to excessive height, thereby achieving the positioning of the bucket stack 1. Subsequently, stacking can continue. After the bucket stack 1 is stacked to a specified height, the operation of installing the fixing plate 2 is repeated. That is, according to the height of the bucket stack 1, multiple spaced fixing plates 2 are installed to position the bucket stack 1 through the height plate, reducing the possibility of the bucket stack 1 collapsing.

[0037] Furthermore, to further enhance the connection stability between the stacks of barrels 1, a locking structure 23 is provided between them. The locking structure 23 is positioned at a first height of the stacks of barrels 1 and includes a latching block 24 and a latching seat 25 located on the outer wall of the stacks of barrels 1. The latching block 24 can swing laterally via a hinge shaft. Adjacent stacks of barrels 1 are connected via the latching block 24 and the latching seat 25. When the stacks of barrels 1 are stacked to the first height, two adjacent sprouting barrels 11 in the horizontal direction are connected via the latching block 24 and the latching seat 25. The latching block 24 engages with the latching seat 25 to achieve the connection, thus connecting adjacent stacks of barrels 1. During movement, the entire stack can move simultaneously, reducing the risk of collapse.

[0038] In one embodiment, the first height is one of the germination buckets 11, and the angle between the latching block 24 and the latching seat 25 is 180° or 90°; the size of the germination bucket module is 4*5, and in the locking structure 23, the angle between the latching block 24 and the latching seat 25 in the middle part of the locking structure 23 is 180°; two adjacent germination buckets 11 in the horizontal direction are connected to each other by the latching block 24 and the latching seat 25; in the locking structure 23 at the corner, the angle between the latching block 24 and the latching seat 25 is 90°, and two adjacent germination buckets 11 arranged perpendicularly to each other in the horizontal direction are connected by the latching block 24 and the latching seat 25.

[0039] In summary, this utility model possesses the aforementioned excellent characteristics, enabling it to achieve unprecedented efficiency in use and thus become a highly practical product.

[0040] The above description is only a preferred embodiment of this utility model. For those skilled in the art, there will be changes in the specific implementation method and application scope based on the idea of ​​this utility model. The content of this specification should not be construed as a limitation of this utility model.

Claims

1. A cultivation tank module for cultivating plant growth, characterized in that: It includes multiple stacks of barrels arranged at intervals and a fixing plate for positioning the multiple stacks of barrels. The fixing plate is formed with multiple fixing round holes that are coaxially aligned with the stacks of barrels. The stacks of barrels include multiple layers of seedling barrels stacked on top of each other. The top and bottom of the seedling barrels are through-open structures. Seedling trays and limiting trays that move axially inside the barrels are placed inside the seedling barrels. The limiting trays are located above the seedling trays. Limiting structures are formed at the bottom and top of the seedling barrels, respectively.

2. The cultivation tank module for cultivating plant growth according to claim 1, characterized in that: Both the germination tray and the limiting tray have perforated grooves for water supply.

3. A cultivation tank module for cultivating plant growth according to claim 2, characterized in that: The limiting structure includes a bottom limiting block and a top limiting block. The bottom limiting block supports the germination tray, and the top limiting block stops the limiting tray and supports the top germination bucket.

4. A cultivation tank module for cultivating plant growth according to claim 3, characterized in that: The number of bottom limiting blocks and top limiting blocks are multiple, and the multiple bottom limiting blocks and top limiting blocks are arranged in a ring at equal intervals on the inner ring wall of the germination bucket.

5. A cultivation tank module for cultivating plant growth according to claim 4, characterized in that: The edge of the germination tray has multiple bottom passage grooves formed in a ring at equal intervals, the number of which is the same as the number of bottom limiting blocks. The edge of the limiting tray has multiple top passage grooves formed in a ring at equal intervals, the number of which is the same as the number of top limiting blocks.

6. A cultivation tank module for cultivating plant growth according to claim 5, characterized in that: The top of the germinating barrel is formed with an annular groove for inserting another germinating barrel. The annular groove is located on the top of the top limiting block, and two adjacent germinating barrels are inserted and stacked through the annular groove.

7. A cultivation tank module for cultivating plant growth according to claim 1, characterized in that: The bottom outer ring wall of the germination bucket is formed with a stop ring, and the outer diameter of the stop ring is larger than the inner diameter of the fixing hole of the fixing plate.

8. A cultivation tank module for cultivating plant growth according to claim 1, characterized in that: A locking structure is provided between the barrel stacks. The locking structure is set at the first height of the barrel stack. The locking structure includes a latching block and a latching seat set on the outer wall of the barrel stack. The latching block can swing laterally. Two adjacent barrel stacks are connected by the latching block and the latching seat.

9. A cultivation tank module for cultivating plant growth according to claim 8, characterized in that: The first height is one of the germination buckets, and the angle between the buckle block and the buckle seat is 180° or 90°.

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