Organic fertilizer mixing device for large-scale planting of tea leaves

Abstract

The utility model relates to an organic fertilizer mixing device for large-scale tea planting, and belongs to the technical field of tea planting. The device mainly comprises a base, a material mixing barrel, a driving assembly and a material mixing assembly, supporting plates are symmetrically arranged on the base, supporting beams are installed at the tops of the supporting plates, the material mixing barrel is installed on the supporting plates in a hinged mode, arc-shaped blocks are arranged on the two sides of the material mixing barrel and connected through connecting columns, and the driving assembly is installed at the tops of the supporting beams. The driving assembly comprises a driving motor, a rotating disc and a connecting piece, the driving motor is installed at the top of the supporting beam, the output end of a rotating shaft of the driving motor penetrates through the lower end of the supporting beam to be connected with the rotating disc, one end of the connecting piece is installed on the rotating disc, the other end of the connecting piece is slidably installed on the connecting column, and the mixing assembly is installed in the mixing cylinder; the fertilizer mixing device solves the problems that the existing fertilizer mixing device has a mixing dead angle due to a single mechanical movement mode, and the caking or layering phenomenon of the fertilizer is difficult to thoroughly break.

Description

Technical Field

[0001] This utility model belongs to the field of tea planting technology, specifically relating to an organic fertilizer mixing device for large-scale tea planting. Background Technology

[0002] Tea, as an important economic crop, is widely cultivated globally. With the improvement of people's living standards, the demand for tea quality and safety is also increasing. Organic tea, due to its natural and pollution-free characteristics, is favored by consumers, and large-scale organic tea cultivation has become an industry trend. In the process of organic tea cultivation, the use of organic fertilizers is crucial. It not only provides comprehensive nutrition for the tea trees but also improves soil structure and maintains soil ecological balance.

[0003] Traditional organic fertilizers in small-scale tea cultivation often rely on manual mixing or general-purpose fertilizer mixing devices. Manual mixing makes it difficult to ensure uniform distribution of fertilizer components in large-scale batch operations, easily leading to uneven tea tree growth and consequently affecting tea yield and quality stability. While existing fertilizer mixing devices can improve mixing efficiency, their single mechanical movement mode (such as unidirectional rotation) still has mixing dead zones, making it difficult to completely break up fertilizer clumps or stratification. Therefore, there is an urgent need for an organic fertilizer mixing device for large-scale tea cultivation to solve these problems. Summary of the Invention

[0004] In order to overcome the problem that existing fertilizer mixing devices in the background art still have mixing dead zones during mixing due to their single mechanical motion mode (such as unidirectional rotation), making it difficult to completely break up fertilizer caking or stratification, this utility model provides an organic fertilizer mixing device for large-scale tea planting. It breaks up material stratification and fertilizer caking through a compound mixing mode, thereby reducing mixing dead zones at the bottom and side walls.

[0005] To achieve the above objectives, this utility model is implemented through the following technical solution: An organic fertilizer mixing device for large-scale tea planting mainly includes a base, a mixing cylinder, a drive assembly, and a mixing component. The base is symmetrically equipped with support plates, and a support beam is installed on the top of the support plates. The mixing cylinder is hinged to the support plates, and arc-shaped blocks are provided on both sides of the mixing cylinder, connected by connecting columns. The drive assembly is installed on the top of the support beam and includes a drive motor, a rotating disk, and a connecting component. The drive motor is installed on the top of the support beam, and the output end of the drive motor shaft extends through to the lower end of the support beam and connects to the rotating disk. One end of the connecting component is installed on the rotating disk, and the other end is slidably installed on the connecting column. The connecting component slides back and forth on the support column as the rotating disk rotates. The mixing component is installed inside the mixing cylinder.

[0006] Furthermore, the mixing assembly includes a rotary motor, a rotary shaft, and a stirring component. The rotary shaft is installed inside the mixing cylinder and extends to the bottom to connect to the rotary motor. The stirring component is fixedly installed on the rotary shaft.

[0007] Furthermore, the stirring element is an asymmetrical arc-shaped column, with the stirring element on one side of the rotating shaft protruding downwards and the other side protruding upwards.

[0008] The beneficial effects of this utility model are:

[0009] This invention hinges a mixing cylinder to a support plate, drives a motor to rotate a rotating disk, and converts the circular motion into the periodic oscillation or tilting of the mixing cylinder by the reciprocating sliding of the connecting parts on the connecting column, forming a "tumbling + stirring" composite mixing mode. This enhances material convection and diffusion. The oscillation of the mixing cylinder, combined with the rotation of the internal mixing components, generates multi-directional shearing force, breaking up material stratification and covering the edge area of ​​the mixing cylinder, reducing mixing dead zones at the bottom and side walls. The mechanical linkage achieves the synergistic effect of the mixing cylinder's oscillation and internal stirring. Combined with a modular design, it balances mixing efficiency, ease of operation, and equipment durability, making it suitable for the large-scale production of easily agglomerated and high-viscosity materials such as organic fertilizers. Attached Figure Description

[0010] Figure 1 This is a three-dimensional schematic diagram of the present invention.

[0011] Figure 2 This is a partial structural schematic diagram of the present invention;

[0012] Figure 3 This is a schematic diagram of the internal structure of the mixing cylinder.

[0013] In the diagram: 1. Base; 2. Mixing cylinder; 3. Drive assembly; 301. Drive motor; 302. Rotary disc; 303. Connecting component; 4. Mixing assembly; 401. Rotary motor; 402. Rotary shaft; 403. Agitator; 5. Support plate; 6. Support beam; 7. Connecting column. Detailed Implementation

[0014] To make the objectives, technical solutions, and beneficial effects of this utility model clearer, the preferred embodiments of this utility model will be described in detail below with reference to the accompanying drawings, so as to facilitate the understanding of those skilled in the art.

[0015] This utility model discloses an organic fertilizer mixing device for large-scale tea cultivation. The device mainly includes a base 1, a mixing cylinder 2, a drive assembly 3, and a mixing component 4. The base 1 has symmetrically arranged support plates 5, and a support beam 6 is installed on the top of the support plates 5. The mixing cylinder 2 is hinged to the support plates 5, and arc-shaped blocks are provided on both sides of the mixing cylinder 2, connected by connecting columns 7. The drive assembly 3 is installed on the top of the support beam 6 and includes a drive motor 301, a rotating disk 302, and a connecting member 303. The drive motor 301 is installed on the top of the support beam 6, and its shaft output end extends through to the lower end of the support beam 6 and connects to the rotating disk 302. One end of the connecting member 303 is installed on the rotating disk 302, and the other end is slidably installed on the connecting column 7. As the rotating disk 302 rotates, the mixing component 4 slides back and forth on the support column. The mixing component 4 is installed inside the mixing cylinder 2. This utility model hinges the mixing cylinder 2 to the support plate 5. The drive motor 301 drives the rotating disk 302 to rotate. The reciprocating sliding of the connecting piece 303 on the connecting column 7 transforms the circumferential motion into the periodic oscillation or tilting of the mixing cylinder 2, forming a "rolling + stirring" composite mixing mode, which enhances material convection and diffusion. The oscillation of the mixing cylinder 2, combined with the rotation of the internal mixing component 4, forms a multi-directional shearing force, breaks up the material stratification and covers the edge area of ​​the mixing cylinder 2, reducing the mixing dead corners at the bottom and side walls. The mechanical linkage realizes the synergistic effect of the oscillation of the mixing cylinder 2 and the internal stirring. Combined with the modular design, it takes into account the mixing efficiency, ease of operation and equipment durability. It is suitable for the large-scale production of easily agglomerated and high-viscosity materials such as organic fertilizers.

[0016] The mixing assembly 4 includes a rotary motor 401, a rotary shaft 402, and a stirring component 403. The rotary shaft 402 is installed inside the mixing cylinder 2 and extends to the bottom to connect with the rotary motor 401. The stirring component 403 is fixedly installed on the rotary shaft 402. The mixing assembly 4 installed inside the mixing cylinder 2 can enhance the mixing effect of the device, reduce mixing dead zones, and ensure that the organic fertilizer is fully mixed.

[0017] The stirring component 403 is an asymmetrical arc-shaped column. The stirring component 403 on one side of the rotating shaft 402 protrudes downward and on the other side protrudes upward. The asymmetrical curvature difference of the arc-shaped column will generate radial shear forces of different intensities, further breaking up material stratification, reducing stirring dead angles, and enhancing the lateral mixing effect.

[0018] Work process:

[0019] In practical use, organic fertilizer is poured into mixing cylinder 2, and drive motor 301 is started. Drive motor 301 drives rotating disk 302 to rotate. Connector 303 converts the circular motion of rotating disk 302 into periodic oscillation or tilting of mixing cylinder 2. By adjusting the speed of drive motor 301, the oscillation frequency of mixing cylinder 2 can be changed to flexibly adapt to the mixing requirements of high-viscosity fertilizer or easily agglomerated materials. At the same time, rotary motor 401 is started, and rotary motor 401 drives rotating shaft 402 and stirring component 403 to stir in mixing cylinder 2, thus forming a "rolling + stirring" composite mixing mode. This utility model solves the problem that the single mechanical motion mode (such as unidirectional rotation) of existing fertilizer mixing devices still has mixing dead zones during mixing, making it difficult to completely break up fertilizer agglomeration or stratification. It is suitable for the large-scale production of easily agglomerated and high-viscosity materials such as organic fertilizer.

[0020] Finally, it should be noted that the above preferred embodiments are only used to illustrate the technical solution of this utility model and are not intended to limit it. Although the utility model has been described in detail through the above preferred embodiments, those skilled in the art should understand that various changes can be made to it in form and detail without departing from the scope defined by the claims of this utility model.

Claims

1. An organic fertilizer mixing device for large-scale tea cultivation, characterized in that: The aforementioned organic fertilizer mixing device for large-scale tea cultivation includes a base (1), a mixing cylinder (2), a drive assembly (3), and a mixing component (4). The base (1) is symmetrically provided with support plates (5), and a support beam (6) is installed on the top of the support plates (5). The mixing cylinder (2) is hinged to the support plates (5), and arc-shaped blocks are provided on both sides of the mixing cylinder (2). The arc-shaped blocks are connected by connecting columns (7). The drive assembly (3) is installed on the top of the support beam (6), and the drive assembly (3) includes a drive... The motor (301), rotating disk (302), and connector (303) are installed on the top of the support beam (6). The output end of the rotating shaft of the motor (301) passes through to the lower end of the support beam (6) and connects to the rotating disk (302). One end of the connector (303) is installed on the rotating disk (302), and the other end is slidably installed on the connecting column (7). The connector (303) slides back and forth on the support column as the rotating disk (302) rotates. The mixing assembly (4) is installed inside the mixing cylinder (2).

2. The organic fertilizer mixing device for large-scale tea cultivation as described in claim 1, characterized in that: The mixing assembly (4) includes a rotary motor (401), a rotary shaft (402), and a stirring component (403). The rotary shaft (402) is installed inside the mixing cylinder (2) and extends to the bottom to connect with the rotary motor (401). The stirring component (403) is fixedly installed on the rotary shaft (402).

3. The organic fertilizer mixing device for large-scale tea cultivation as described in claim 2, characterized in that: The stirring component (403) is an asymmetrical arc-shaped column, with the stirring component (403) on one side of the rotating shaft (402) protruding downwards and the other side protruding upwards.

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