Fast-assembly full-automatic three-dimensional planting system capable of achieving digital management

Abstract

The invention provides a fast-assembly digitally manageable full-automatic three-dimensional planting system, and relates to the technical field of full-automatic three-dimensional planting, the fast-assembly digitally manageable full-automatic three-dimensional planting system comprises a group of outer frames, a group of planting plates are arranged in each outer frame, a frame is arranged on the surface of each outer frame, and two planting plates, two round rods and a group of connecting columns are fixedly connected in each outer frame; two first chains are arranged in each outer frame, a planting area can receive environmental factors such as illumination and air circulation in all directions, the uniformity of the crop growth environment is guaranteed, due to the design, operation is stable, stress is balanced, crop growth is facilitated, rapid assembly and disassembly are convenient, the flexibility and maintainability of the device are improved, and the device is suitable for popularization and application. A larger frame is provided for the planting modules by utilizing the connecting columns of the equipment outer frame, the newest greenhouse is arranged on the basis, meanwhile, the planting modules can be infinitely added according to the size of an actual site, and flexible expansion of the planting scale is achieved.

Description

Technical Field

[0001] The present invention belongs to the technical field of full-automatic three-dimensional planting, and more specifically, particularly relates to a quick-installation digitally manageable full-automatic three-dimensional planting system. Background Art

[0002] As a modern agricultural production facility, fully automatic three-dimensional planting equipment plays an important role in the agricultural field. It integrates a variety of advanced technologies and is committed to improving planting efficiency, optimizing the planting environment, and achieving high-yield and high-quality cultivation of crops. This planting equipment is widely used in vegetable planting, flower cultivation, fruit production and other fields. In actual applications, fully automatic three-dimensional planting equipment usually includes the following technologies:

[0003] 1. Planting rack structure: The planting rack is the main part that supports crops. For example, the design of a stable triangular bracket provides a solid support foundation for the planting module, ensuring that the equipment can withstand a certain weight and remain stable during operation, avoiding equipment damage or crop growth affected by structural instability.

[0004] 2. Rotation transmission system: The fully automatic transposition and 360° chain rotation design realizes the all-round rotation of the planting rack, so that the crops can evenly receive light, air and other environmental factors, ensure the consistency of the growth environment, and promote the growth and development of crops.

[0005] 3. Environmental control equipment: including control devices for environmental factors such as temperature and humidity. For example, radiators are used to adjust the temperature to prevent excessive temperature inside the equipment from causing damage to crops; dehumidifiers are used to control humidity to prevent excessive humidity from causing diseases and pests.

[0006] 4. Planting substrate and irrigation system: Choose appropriate planting substrate according to different crops, such as organic substrate, nutrient solution or hydroponics, and equip corresponding irrigation systems, such as spraying, drip irrigation, tidal immersion, etc., to ensure that crops get sufficient water and nutrients during the growth process.

[0007] At present, in order to achieve efficient three-dimensional planting, manufacturers have adopted a variety of equipment and methods. Some manufacturers focus on the innovation of planting rack structure and design planting racks with unique structures to improve space utilization and stability; some manufacturers increase their research and development efforts in environmental control and launch more precise temperature and humidity control equipment; some manufacturers are committed to optimizing irrigation systems to achieve efficient use of water resources.

[0008] However, the above-mentioned implementation methods still have the following problems: in terms of equipment operation coordination, traditional environmental control equipment such as radiators and dehumidifiers mostly adopt fixed installation positions, and cannot flexibly adjust their positions and working states according to the actual growth needs of crops. As a result, when temperature or humidity abnormalities occur in local areas, targeted regulation cannot be carried out in a timely and effective manner, affecting the uniformity and stability of the crop growth environment. In response to these problems, the present application proposes an innovative solution to design a fully automatic three-dimensional planting equipment in which the movement of the radiator drives the movement of the dehumidifier. The equipment can automatically adjust the positions of the radiator and dehumidifier according to crop growth conditions and environmental changes, to achieve accurate and efficient environmental control, while optimizing the internal space layout of the equipment, improving the utilization rate of the planting space, and further improving the performance and production efficiency of the fully automatic three-dimensional planting equipment.

[0009] In view of this, the existing structure and defects are studied and improved, and a quick-installation, digitally manageable, fully automatic three-dimensional implant system is provided to achieve a more practical purpose. Summary of the invention

[0010] In order to solve the above technical problems, the present invention provides a quick-installation, digitally manageable, fully automatic three-dimensional implantation system to solve the above problems.

[0011] A quick-install, digitally manageable, fully automatic three-dimensional planting system, comprising a group of outer frames, each of which is provided with a group of planting plates, each of which is provided with a frame on its surface, each of which is fixedly connected to two planting plates, two round rods and a group of connecting columns, each of which is provided with two chains, each of which is fixedly connected to two fixing rods, a motor is fixedly installed on the surface of the upper fixing rod in each pair of fixing rods, each pair of fixing rods is rotatably connected to a gear on its back, each of which is fixedly connected to a fixing frame on its surface, and each of which has a fixing frame on its rear surface. Two connecting plates are fixedly connected, and a cylinder is fixedly installed on the front surface of each connecting plate. Two limit rods are fixedly connected between each pair of connecting plates, and the front surface of each limit rod is rotatably connected with gear 2. Two radiators and two dehumidifiers are arranged in front of each outer frame, and the front surface of each pair of gear 2 is fixedly connected with a screw. The front surface of each fixed frame is fixedly connected with a baffle plate, and the front surface of each baffle plate is fixedly connected with a baffle strip. A group of card strips are fixedly connected to the surface of each planting board, and the fixed shafts on each pair of chains are respectively fixedly connected to each group of planting boards.

[0012] Preferably, each pair of the fixed rods are rotatably connected with a connecting rod, each of the annular side surfaces of the gear 1 is provided with a chain 2, each of the chain 2 is movably engaged with a connecting shaft, each pair of the connecting shafts is respectively fixedly connected to each connecting rod, a chain 3 is provided under each of the motors, each of the chain 3 is movably engaged with a transmission shaft, each of the motor output shafts is fixedly connected to the transmission shaft, and each of the connecting rods is respectively fixedly connected to the transmission shaft away from the motor side.

[0013] Preferably, each pair of opposite surfaces of the dehumidifiers are fixedly connected with a fixing bar, each pair of opposite surfaces of the fixing bars are fixedly connected with a slider, each of the screws is respectively threadedly sleeved with each slider, each pair of the screws is respectively rotatably connected with each blocking bar, and the rear surface of each blocking bar is fixedly connected with two concave plates, and each pair of the concave plates is respectively movably engaged with each pair of sliders.

[0014] Preferably, each pair of radiators has an L-shaped block fixedly connected to its rear surface, each L-shaped block has an annular block fixedly connected to its rear surface, each limit rod is fixedly connected to each cylinder piston, each radiator has an L-shaped bar fixedly connected to its rear surface, each L-shaped bar has a group of tooth blocks fixedly connected to its rear surface, and each group of tooth blocks is movably engaged with each gear 2.

[0015] Compared with the prior art, the present invention has the following beneficial effects:

[0016] In the present invention, the chain will drive a group of planting plates to rotate during its rotation, thereby realizing the fully automatic replacement function of the planting module, so that the planting area can receive environmental factors such as light and air circulation in all directions, ensuring the uniformity of the crop growth environment. This design runs smoothly and has balanced force, which is not only beneficial to crop growth, but also convenient and quick to assemble and disassemble, thereby improving the flexibility and maintainability of the equipment. The connecting columns of the equipment's external frame are used to provide a larger frame for the planting module, and on this basis, the latest greenhouse is equipped. At the same time, this design can add planting modules infinitely according to the size of the actual site, thereby realizing flexible expansion of the planting scale and meeting the needs of different production scales. The overall three-dimensional planting module design improves space utilization and increases planting yields.

[0017] In the present invention, the crops are arranged as a whole in the greenhouse. The temperature inside the greenhouse rises after being exposed to external sunlight. Through the up and down reciprocating movement of two radiators, cooperating with the 360° rotation of the planting plate, the radiator can continuously adjust the temperature of crops in different positions during the rotation of the planting plate. When the planting plate rotates, crops in different areas pass by the radiator in turn. According to the pre-set program, the cylinder will drive the radiator to adjust, change the relative position between the radiator and the crop, so that the heat can be evenly dissipated, avoid local overheating or overcooling, and improve the comprehensiveness and effectiveness of temperature regulation.

[0018] In the present invention, the overall linkage design makes the internal layout of the equipment more compact and reasonable. Without increasing the overall footprint of the equipment, the space is fully utilized, avoiding the space waste that may occur in the traditional fixed installation method. In addition, the linkage between the two helps to enhance the circulation and mixing of air in the equipment. The radiator will cause the surrounding air to flow when working, and the movement of the dehumidifier will further disrupt the air flow field, prompting the air to circulate better between different areas. This can avoid local air stagnation, make the temperature and humidity more evenly distributed in the entire planting space, reduce the temperature and humidity differences caused by poor air circulation, create more consistent environmental conditions for crop growth, and help improve the uniformity and quality of crop growth. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0020] Figure 2 It is a schematic diagram of the external frame structure of the present invention;

[0021] Figure 3 It is a schematic diagram of the planting board structure of the present invention;

[0022] Figure 4 It is a schematic diagram of the connecting column structure of the present invention;

[0023] Figure 5 It is a schematic diagram of the chain structure of the present invention;

[0024] Figure 6 It is a schematic diagram of the fixing rod structure of the present invention;

[0025] Figure 7 It is a schematic diagram of the structure of the fixing frame of the present invention;

[0026] Figure 8 It is a schematic diagram of the structure of the connecting plate of the present invention;

[0027] Fig. 9 It is a schematic diagram of the structure of the radiator of the present invention;

[0028] Fig.10 It is a schematic diagram of the structure of the dehumidifier of the present invention;

[0029] Fig.11 It is a schematic diagram of the cylinder structure of the present invention;

[0030] Fig.12 It is a schematic diagram of the L-shaped strip structure of the present invention;

[0031] Fig.13 The present invention Figure 4 A schematic diagram of the enlarged structure of point A;

[0032] Fig.14 The present invention Figure 5 Schematic diagram of the enlarged structure of point B.

[0033] In the figure, the correspondence between the structure names and the figure numbers is: 1. outer frame; 2. planting plate; 3. frame; 4. round rod; 5. clamping strip; 6. connecting column; 7. gear one; 8. chain one; 9. motor; 10. chain two; 11. connecting rod; 12. fixing rod; 13. chain three; 14. connecting shaft; 15. fixing frame; 16. connecting plate; 17. limiting rod; 18. cylinder; 19. radiator; 20. dehumidifier; 21. gear two; 22. concave plate; 23. screw; 24. slider; 25. fixing strip; 26. L-shaped block; 27. ring block; 28. L-shaped strip; 29. ​​tooth block; 30. blocking strip; 31. blocking plate. DETAILED DESCRIPTION

[0034] The following embodiments of the present invention are described in further detail in conjunction with the accompanying drawings and examples. The following examples are used to illustrate the present invention, but are not intended to limit the scope of the present invention.

[0035] Example 1

[0036] See also Figure 1 - Figure 6The present invention provides a fast-installation, digitally manageable, fully automatic three-dimensional planting system, comprising a group of external frames 1, each of which is provided with a group of planting boards 2, each of which is provided with a frame 3 on its surface, each of which is fixedly connected with two planting boards 2, two round rods 4 and a group of connecting columns 6, each of which is provided with two chains 8, each of which is fixedly connected with two fixing rods 12, a motor 9 is fixedly installed on the surface of the upper fixing rod 12 of each pair of fixing rods 12, each pair of fixing rods 12 is rotatably connected with a gear 7 on its back, and each of which is fixedly connected with a fixing rod 12 on its surface. A group of card bars 5, a fixed shaft on each pair of chains 8 is respectively fixedly connected to each group of planting plates 2, a connecting rod 11 is rotatably connected between each pair of fixed rods 12, a chain 2 10 is arranged on the annular side of each gear 7, a connecting shaft 14 is movably connected in each chain 2 10, each pair of connecting shafts 14 is respectively fixedly connected to each connecting rod 11, a chain 3 13 is arranged under each motor 9, a transmission shaft is movably connected in each chain 3 13, each motor 9 output shaft is fixedly connected to the transmission shaft, and each connecting rod 11 is respectively fixedly connected to the transmission shaft on the side away from the motor 9. This equipment adopts an outer frame 1 as The support structure of the single module provides a stable physical foundation for the entire planting module, ensuring that it will not shake or fall easily during operation, ensuring the safety and stability of the equipment operation. The chain 1 8 is designed to rotate 360 ​​degrees. By starting the motor 9, its output shaft will drive the transmission shaft to rotate. During the rotation of the transmission shaft, the chain 3 13 will be driven to rotate. The transmission shaft on the other side of the chain 3 13 will drive the connecting rod 11 to rotate, and then drive the two chains 1 8 to rotate. During the rotation of the chain 1 8, a group of planting plates 2 will be driven to rotate, thereby realizing the fully automatic transposition function of the planting module, so that the planting area It can accept environmental factors such as light and air circulation in all directions to ensure the uniformity of the crop growth environment. This design runs smoothly and has balanced force, which is not only conducive to crop growth, but also convenient and quick to assemble and disassemble, improving the flexibility and maintainability of the equipment. The connecting columns 6 of the equipment frame 1 are used to provide a larger frame 3 for the planting module, and on this basis, the latest greenhouse is equipped. At the same time, this design can add planting modules infinitely according to the size of the actual site, realize the flexible expansion of the planting scale, and meet the needs of different production scales. The overall three-dimensional planting module design improves space utilization and increases planting yields.

[0037] Example 2

[0038] See also Figure 1 - Fig.14The present invention provides a fast-installation, digitally manageable, fully automatic three-dimensional implantation system, comprising a group of outer frames 1, each outer frame 1 is provided with a group of implantation plates 2, each outer frame 1 is provided with a frame 3 on its surface, each outer frame 1 is fixedly connected with two implantation plates 2, two round rods 4 and a group of connecting columns 6, each outer frame 1 is provided with two chains 8, each outer frame 1 is fixedly connected with two fixed rods 12, a motor 9 is fixedly installed on the surface of the upper fixed rod 12 in each pair of fixed rods 12, each pair of fixed rods 12 is rotatably connected with a gear 7 on its back, each outer frame 1 is fixedly connected with a fixed frame 15 on its surface, and each fixed frame 1 5, two connecting plates 16 are fixedly connected to the rear surface, and a cylinder 18 is fixedly installed on the front surface of each connecting plate 16. Two limit rods 17 are fixedly connected between each pair of connecting plates 16, and the front surface of each limit rod 17 is rotatably connected to a gear 21. Two radiators 19 and two dehumidifiers 20 are arranged in front of each outer frame 1, and a screw 23 is fixedly connected to the front surface of each pair of gears 21. A baffle plate 31 is fixedly connected to the front surface of each fixed frame 15, and a baffle bar 30 is fixedly connected to the front surface of each baffle plate 31. A group of card strips 5 are fixedly connected to the surface of each planting board 2, and the fixed shafts on each pair of chains 8 are respectively connected to each The planting board 2 is fixedly connected. The equipment adopts the outer frame 1 as the supporting structure of a single module to provide a stable physical foundation for the entire planting module, ensuring that it will not shake or tip over easily during operation, thereby ensuring the safety and stability of the equipment operation. The chain 1 8 is designed to rotate 360°. By starting the motor 9, its output shaft will drive the transmission shaft to rotate. During the rotation of the transmission shaft, the chain 3 13 will be driven to rotate. The transmission shaft on the other side of the chain 3 13 will drive the connecting rod 11 to rotate, and then drive the two chains 1 8 to rotate. During the rotation of the chain 1 8, a group of planting boards 2 will be driven to rotate, thereby realizing the full automation of the planting module. The transposition function enables the planting area to receive environmental factors such as light and air circulation in all directions, ensuring the uniformity of the crop growth environment. This design runs smoothly and has balanced force, which is not only conducive to crop growth, but also convenient and quick to assemble and disassemble, improving the flexibility and maintainability of the equipment. The connecting columns 6 of the equipment frame 1 are used to provide a larger frame 3 for the planting module, and on this basis, the latest greenhouse is equipped. At the same time, this design can add planting modules infinitely according to the size of the actual site, realize flexible expansion of the planting scale, and meet the needs of different production scales. The overall three-dimensional planting module design improves space utilization and increases planting yields.

[0039] Each pair of fixed rods 12 is rotatably connected with a connecting rod 11, each gear 1 is provided with a chain 2 10 on the annular side surface, each chain 2 10 is movably connected with a connecting shaft 14, each pair of connecting shafts 14 is respectively fixedly connected with each connecting rod 11, a chain 3 13 is provided under each motor 9, each chain 3 13 is movably connected with a transmission shaft, each motor 9 output shaft is fixedly connected with the transmission shaft, each connecting rod 11 is respectively fixedly connected with the transmission shaft away from the motor 9 side. During use, by starting the cylinder 18, its piston will drive the annular block 27 fixed thereto to move, and the annular block 27 will drive the L-shaped block 26 fixed thereto to move during the movement, and the L-shaped block 26 will drive the fixed radiator 19 to move during the movement, and the fixed frame 15 is provided with a chain 3 13. Two radiators 19 are provided, and the two radiators 19 are driven by two cylinders 18 and move in opposite directions. The radiators 19 are started to cool the crops. The crops are arranged in the greenhouse as a whole. The temperature inside the crops rises after being exposed to sunlight from the outside. The two radiators 19 move back and forth up and down, cooperating with the 360° rotation of the planting plate 2. The radiators 19 can continuously adjust the temperature of crops in different positions during the rotation of the planting plate 2. When the planting plate 2 rotates, crops in different areas pass by the radiator 19 in turn. According to the pre-set program, the cylinder 18 will drive the radiator 19 to adjust, change the relative position between the radiator 19 and the crops, so that the heat can be evenly dissipated, avoid local overheating or overcooling, and improve the comprehensiveness and effectiveness of temperature regulation.

[0040] Each pair of dehumidifiers 20 has a fixed bar 25 on its opposite surface, each pair of fixed bars 25 has a slider 24 on its opposite surface, each screw 23 is threadedly sleeved with each slider 24, each pair of screws 23 is rotatably connected with each blocking bar 30, each blocking bar 30 has two concave plates 22 fixedly connected to its rear surface, each pair of concave plates 22 is movably engaged with each pair of sliders 24, each pair of radiators 19 has an L-shaped block 26 fixedly connected to its rear surface, each L-shaped block 26 has an annular block 27 fixedly connected to its rear surface, each limit rod 17 is fixedly connected to each cylinder 18 piston, and each radiator 19 has an L-shaped bar 26 fixedly connected to its rear surface. 28, a group of tooth blocks 29 are fixedly connected to the rear surface of each L-shaped bar 28, and each group of tooth blocks 29 are respectively engaged with each gear 21. When the radiator 19 moves, it will drive the L-shaped bar 28 fixed thereon to move together. When the L-shaped bar 28 moves, a group of tooth blocks 29 fixed thereon will also move accordingly. When a group of tooth blocks 29 moves up and down, it will drive the engaged gear 21 to rotate together. When the gear 21 rotates, it will drive the screw rod 23 fixed thereon to rotate. When the screw rod 23 rotates, the slider 24 sleeved thereon will also move accordingly due to the action of the thread. When the slider 24 moves, it will drive the fixed bar 25 to rotate. The fixed bar 25 is fixedly connected to the dehumidifier 20, and the slider 24 is movably connected to the concave plate 22 to ensure the stability of the position during the movement. The dehumidifier 20 starts to dehumidify, and the compressor in the dehumidifier 20 runs. The high-temperature and high-pressure gas is discharged from the exhaust port, enters the condenser to cool and become low-temperature and high-pressure gas, and is intercepted by the capillary to become a low-temperature and low-pressure liquid. After evaporation and heat absorption in the evaporator, it returns to the compressor to become a low-temperature and low-pressure gas. This cycle is repeated to ensure the appropriate humidity in the crop. As the radiator 19 moves back and forth in a straight line, it will drive the dehumidifier 20 to move horizontally. The overall linkage design makes the internal layout of the equipment more compact and reasonable. Without increasing the overall footprint of the equipment, the space is fully utilized, avoiding the space waste that may occur in the traditional fixed installation method. In addition, the linkage between the two helps to enhance the circulation and mixing of air in the equipment. The radiator 19 will cause the surrounding air to flow when working, and the movement of the dehumidifier 20 will further disrupt the air flow field, prompting the air to circulate better between different areas. This can avoid local air stagnation, make the temperature and humidity more evenly distributed in the entire planting space, reduce the temperature and humidity differences caused by poor air circulation, create more consistent environmental conditions for crop growth, and help improve the uniformity and quality of crop growth.

[0041] Working principle:

[0042] In the first step, the equipment uses an external frame 1 as the supporting structure of a single module to provide a stable physical foundation for the entire planting module, ensuring that it will not shake or tip over easily during operation, ensuring the safety and stability of the equipment operation. The chain 1 8 is designed to rotate 360 ​​degrees. By starting the motor 9, its output shaft will drive the transmission shaft to rotate. During the rotation of the transmission shaft, the chain 3 13 will be driven to rotate. The transmission shaft on the other side of the chain 3 13 will drive the connecting rod 11 to rotate, and then drive the two chains 1 8 to rotate. During the rotation of the chain 1 8, a group of planting plates 2 will be driven to rotate, thereby realizing the fully automatic transposition function of the planting module. The design can make the planting area receive environmental factors such as light and air circulation in all directions, ensuring the uniformity of the crop growth environment. This design runs smoothly and has balanced force, which is not only conducive to crop growth, but also convenient and quick to assemble and disassemble, improving the flexibility and maintainability of the equipment. The connecting columns 6 of the equipment frame 1 are used to provide a larger frame 3 for the planting module, and the latest greenhouse is equipped on this basis. At the same time, this design can add planting modules infinitely according to the size of the actual site, realize the flexible expansion of the planting scale, and meet the needs of different production scales. The overall three-dimensional planting module design improves space utilization and increases planting yields.

[0043] In the second step, during use, by starting the cylinder 18, its piston will drive the annular block 27 fixed thereto to move, and during the movement of the annular block 27, it will drive the L-shaped block 26 fixed thereto to move together, and during the movement of the L-shaped block 26, the fixed radiator 19 will be driven to move. Two radiators 19 are arranged in the fixed frame 15, and the two radiators 19 are driven by two cylinders 18 and move in opposite directions. The radiator 19 is started to cool the crops. The crops are arranged in the greenhouse as a whole. After being irradiated by external sunlight, the temperature inside the crops rises. Through the up and down reciprocating movement of the two radiators 19, in coordination with the 360° rotation of the planting plate 2, the radiator 19 can continuously adjust the temperature of crops in different positions during the rotation of the planting plate 2. When the planting plate 2 rotates, crops in different areas pass by the radiator 19 in turn. According to the pre-set program, the cylinder 18 will drive the radiator 19 to adjust, change the relative position between the radiator 19 and the crops, so that the heat can be evenly dissipated, avoid local overheating or overcooling, and improve the comprehensiveness and effectiveness of temperature regulation.

[0044] In the third step, the radiator 19 will drive the L-shaped bar 28 fixed thereon to move during the movement process, and the group of tooth blocks 29 fixed thereon will also move accordingly during the movement of the L-shaped bar 28. The group of tooth blocks 29 will drive the connected gear 21 to rotate together during the up and down movement. The gear 21 will drive the screw 23 fixed thereon to rotate during the rotation process. The slider 24 sleeved thereon will also move accordingly due to the action of the thread during the rotation of the screw 23. The fixed bar 25 will be driven to move during the movement of the slider 24. The fixed bar 25 is fixedly connected to the dehumidifier 20. The slider 24 is movably connected to the concave plate 22 to ensure the stability of the position during the movement. The dehumidifier 20 starts to dehumidify, and the compressor in the dehumidifier 20 runs. The high-temperature and high-pressure gas is discharged from the exhaust port, enters the condenser to be cooled and becomes low-temperature and high-pressure gas, and is intercepted by the capillary to become a low-temperature and low-pressure liquid, and evaporates through the evaporator The heat is absorbed and returned to the compressor to become a low-temperature and low-pressure gas, and this cycle is repeated to ensure the appropriate humidity in the crops. As the radiator 19 moves back and forth in a straight line, it will drive the dehumidifier 20 to move horizontally. The overall linkage design makes the internal layout of the equipment more compact and reasonable. Without increasing the overall footprint of the equipment, the space is fully utilized, avoiding the space waste that may occur in the traditional fixed installation method. In addition, the linkage between the two helps to enhance the circulation and mixing of air in the equipment. The radiator 19 will cause the surrounding air to flow when working, and the movement of the dehumidifier 20 will further disrupt the air flow field, prompting the air to circulate better between different areas. This can avoid local air stagnation, make the temperature and humidity more evenly distributed in the entire planting space, reduce the temperature and humidity differences caused by poor air circulation, create more consistent environmental conditions for crop growth, and help improve the uniformity and quality of crop growth.

[0045] The examples of the present invention are given for the purpose of illustration and description, and are not intended to be exhaustive or to limit the invention to the disclosed forms. Many modifications and variations will be apparent to those of ordinary skill in the art. The embodiments are selected and described in order to better illustrate the principles and practical applications of the present invention and to enable those of ordinary skill in the art to understand the present invention and to design various embodiments with various modifications suitable for specific uses.

Claims

1. A quick-install, digitally manageable, fully automatic three-dimensional implantation system, comprising a set of external frames (1), characterized in that: A group of planting plates (2) are arranged in each of the outer frames (1), a frame (3) is arranged on the surface of each of the outer frames (1), two planting plates (2), two round rods (4) and a group of connecting columns (6) are fixedly connected in each of the outer frames (1), two chains (8) are arranged in each of the outer frames (1), two fixed rods (12) are fixedly connected in each of the outer frames (1), a motor (9) is fixedly installed on the surface of the upper fixed rod (12) in each pair of the fixed rods (12), and the back surfaces of each pair of the fixed rods (12) are rotatably connected with a gear (7); Each of the outer frames (1) is fixedly connected to a fixed frame (15) on its surface, two connecting plates (16) are fixedly connected to the rear surface of each of the fixing frames (15), a cylinder (18) is fixedly installed on the front surface of each of the connecting plates (16), two limiting rods (17) are fixedly connected between each pair of connecting plates (16), the front surface of each limiting rod (17) is rotatably connected to a gear 2 (21), two radiators (19) and two dehumidifiers (20) are arranged in front of each of the outer frames (1), the front surface of each pair of gear 2 (21) is fixedly connected to a screw (23), the front surface of each of the fixing frames (15) is fixedly connected to a baffle plate (31), and the front surface of each of the baffle plates (31) is fixedly connected to a baffle bar (30).

2. A quick-install, digitally manageable, fully automatic three-dimensional implantation system as claimed in claim 1, characterized in that: A group of clips (5) are fixedly connected to the surface of each planting board (2); Wherein, the fixed shafts on each pair of chains (8) are respectively fixedly connected to each group of planting plates (2).

3. A quick-install, digitally manageable, fully automatic three-dimensional implantation system as claimed in claim 2, characterized in that: Each pair of the fixing rods (12) is rotatably connected with a connecting rod (11).

4. A quick-install digitally manageable fully automatic three-dimensional implantation system as claimed in claim 3, characterized in that: Each of the annular side surfaces of the gear 1 (7) is provided with a chain 2 (10), and each of the chain 2 (10) is movably engaged with a connecting shaft (14); Wherein, each pair of connecting shafts (14) is fixedly connected to each connecting rod (11) respectively.

5. A quick-install digitally manageable fully automatic three-dimensional implantation system as claimed in claim 4, characterized in that: A chain three (13) is arranged below each of the motors (9); Wherein, each of the chain links (13) is movably connected with a transmission shaft, each of the output shafts of the motor (9) is fixedly connected to the transmission shaft, and each of the connecting rods (11) is fixedly connected to the transmission shaft on the side away from the motor (9).

6. A quick-install digitally manageable fully automatic three-dimensional implantation system as claimed in claim 1, characterized in that: Each pair of opposite surfaces of the dehumidifiers (20) is fixedly connected with a fixing strip (25); Wherein, the opposing surfaces of each pair of the fixing bars (25) are fixedly connected with a sliding block (24).

7. A quick-install digitally manageable fully automatic three-dimensional implantation system as claimed in claim 6, characterized in that: Each of the screw rods (23) is respectively threadedly sleeved with each of the sliders (24); Wherein, each pair of the screw rods (23) is rotationally connected to each blocking bar (30) respectively.

8. A quick-install digitally manageable fully automatic three-dimensional implantation system as claimed in claim 7, characterized in that: The rear surface of each blocking strip (30) is fixedly connected to two concave plates (22); Wherein, each pair of the concave plates (22) is movably engaged with each pair of slide blocks (24).

9. A quick-install digitally manageable fully automatic three-dimensional implantation system as claimed in claim 8, characterized in that: The rear surface of each pair of the radiators (19) is fixedly connected to an L-shaped block (26), and the rear surface of each L-shaped block (26) is fixedly connected to an annular block (27); Wherein, each of the limiting rods (17) is fixedly connected to the piston of each cylinder (18).

10. A quick-install, digitally manageable, fully automatic three-dimensional implantation system as claimed in claim 9, characterized in that: The rear surface of each radiator (19) is fixedly connected to an L-shaped bar (28), and the rear surface of each L-shaped bar (28) is fixedly connected to a group of tooth blocks (29); Wherein, each group of the tooth blocks (29) is movably engaged with each gear 2 (21) respectively.

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