Solar-driven grass seed sowing device for desertified grassland

Abstract

The invention relates to the field of grass seed sowing devices, in particular to a solar-driven grass seed sowing device for desertification grassland, which comprises a main support with a pair of wheels, and a plurality of evenly distributed sowing structures are mounted on the main support; the sowing structure comprises a grass seed box, the grass seed box comprises a conical shell hinged to the main support, a main seed box is fixedly connected to the top end of the conical shell, and an auxiliary seed box is arranged at the lower end of the main seed box; a sowing pipe is arranged on the lower side of the grass seed box and comprises a wide-mouth cone installed on the guide wheel support, a connecting cover and a long straight pipe are installed at the upper end and the lower end of the wide-mouth cone respectively, and a material mixing structure is connected between the connecting cover and the output end of the conical shell; the material mixing structure comprises a rectangular shell communicated with the conical shell, and a guide wheel is rotationally connected into the rectangular shell; a plurality of auxiliary material tanks matched with the grass seed boxes in position are connected to the main bracket, so that the functions of seeding, mixing, auxiliary material application and terrain adaptation are integrated, and the working efficiency of desertification grassland treatment and the survival rate of grass seeds are easy to improve.

Description

Technical Field

[0001] The present invention relates to a grass seed sowing device, in particular to a solar-powered grass seed sowing device for desertified grasslands applied in the field of grass seed sowing devices. Background Art

[0002] Existing grass seed sowing devices for desertified grasslands mainly aim at problems such as grassland degradation and land desertification, and are designed to restore vegetation and improve the ecological environment by mechanically sowing grass seeds. These devices generally include sowing machinery, seed storage systems, sowing control systems, etc. The sowing machinery mostly uses tractors or special sowing vehicles, which can adapt to different terrains and climatic conditions. The seed storage system is designed to ensure the uniformity and viability of seeds during sowing, while the sowing control system ensures uniform coverage of the target area by precisely controlling the sowing amount and sowing speed.

[0003] However, there are some limitations in the existing technologies, such as insufficient sowing uniformity, poor adaptability to complex terrains, low sowing efficiency, etc. In addition, some devices do not have enough protection measures for grass seeds during sowing, resulting in low survival rates of seeds in harsh environments. Therefore, it is of great significance to develop more efficient, more adaptable, and better sowing-uniform grass seed sowing devices for improving desertified grasslands and promoting ecological restoration.

[0004] The specification of Chinese invention patent CN107580834B discloses an orchard inter-row grass seed sowing machine, which relates to the field of agricultural machinery equipment. This invention is convenient to use. The walking mode will not damage the orchard ground, and it walks stably. Even in the case of grass seed replanting in the later stage, it will not damage the areas that have been sown in the early stage. During the moving process, the seeding mechanism can complete seeding synchronously, and the device can be driven by only one motor to achieve uniform seeding.

[0005] The specification of Chinese invention patent CN117598072B discloses a device for grassland ecological restoration and reseeding, which relates to the field of aircraft seeding technology. It includes a grass seed accommodation housing, a sheet metal frame, and a seeding structure. The seeding structure includes: a number of fan-shaped holes annularly distributed at the bottom of the grass seed accommodation housing, and fan-shaped blocking plates that block the fan-shaped holes and can rotate in two directions, forward and reverse. The fan-shaped blocking plates rotate alternately in two directions, and each fan-shaped hole can form two seed-dropping areas, making the seeding more uniform. Since it uses the method of dropping seeds in a surface area, it can well control the sowing surface.

[0006] The existing single seed storage box of sowing equipment has uneven mixing, and it is not easy to add auxiliary materials during sowing, and it is not easy to adjust the grass seed mixture and the auxiliary materials during sowing according to the adaptability of the desertified grassland environment. Summary of the Invention

[0007] In view of the above-mentioned prior art, the technical problem to be solved by the present invention is that the single seed storage box of the existing sowing equipment has uneven mixing, and it is not easy to add auxiliary materials during the sowing process, and it is not easy to adjust the grass seed mixture and the auxiliary materials during sowing according to the adaptability of the desertified grassland environment.

[0008] To solve the above problems, the present invention provides a solar-powered grass seed sowing device for desertified grasslands, which includes a main bracket with a pair of wheels, and a plurality of evenly distributed sowing structures are installed on the main bracket; the sowing structure includes a grass seed box, and the grass seed box includes a conical shell hinged to the main bracket, and the top of the conical shell is fixedly connected with a main seed box, and a secondary seed box is arranged at the lower end of the main seed box;

[0009] A sowing pipe is arranged below the grass seed box, and the sowing pipe includes a wide-mouth cone installed on a guide wheel bracket, and a connecting cover and a long straight pipe are respectively installed at the upper and lower ends of the wide-mouth cone, and a mixing structure is connected between the connecting cover and the output end of the conical shell;

[0010] The mixing structure includes a rectangular shell communicated with the conical shell, a guiding wheel is rotatably connected in the rectangular shell, and a feeding hose is connected between the rectangular shell and the connecting cover; an elastic guiding piece is installed at the output end of the conical shell, and the bottom end of the elastic guiding piece is attached to the surface of the guiding wheel, and a magnetic shunt block matching the elastic guiding piece is arranged in the conical shell;

[0011] A plurality of auxiliary material tanks matching the position of the grass seed box are connected to the main bracket, a conveying pump is arranged in the auxiliary material tank, a diversion pipe is connected between the output end of the auxiliary material tank and the connecting cover, and an atomizing nozzle communicated with the diversion pipe is installed at the bottom end of the long straight pipe.

[0012] In the above-mentioned solar-powered grass seed sowing device for desertified grasslands, the functions of sowing, mixing, applying auxiliary materials and adapting to the terrain are integrated, which is easy to improve the operation efficiency and the survival rate of grass seeds in the treatment of desertified grasslands.

[0013] As a further improvement of the present application, the magnetic shunt block includes a shunt cone body, and an electromagnet is installed at the lower end of the shunt cone body; the elastic guiding piece includes a fixed end fixedly connected with the conical shell, an elastic part is connected to the bottom of the fixed end, the elastic part includes an elastic spring piece, a brake pad is laid at one end of the elastic spring piece close to the guiding wheel, and a magnetic layer is laid at the other end.

[0014] As a further improvement of the present application, an auxiliary adjustment structure is installed on the main bracket, and the auxiliary adjustment structure includes an auxiliary bracket with an auxiliary motor, a rotating shaft and a connecting shaft are respectively installed at the upper and lower ends of the auxiliary bracket, the rotating shaft passes through a plurality of rectangular shells and is fixedly connected with a plurality of guiding wheels, and the rotating shaft is connected to the power output end of the motor, and the connecting shaft is fixedly connected with a plurality of magnetic shunt blocks.

[0015] As a further improvement of the present application, a solar panel is installed on the top of the grass seed box, and the solar panel is used to power the sowing structure and the conveying pump; a plurality of evenly distributed power connection units are installed on the connecting shaft, and cables matching the plurality of power connection units are passed through the connecting shaft.

[0016] As another improvement of the present application, the guide wheel bracket includes a mobile chassis, a connecting arm for fixing the sowing pipe is hinged between the mobile chassis and the main bracket, an extension arm for connecting to the conical shell is installed on the main bracket, and a buffer is connected between the extension arm and the connecting arm.

[0017] As another improved supplement of the present application, the material delivery hose includes a corrugated conduit, and the corrugated conduit is sealed and connected to the connection between the rectangular shell and the connection cover.

[0018] As another improved supplement of the present application, the output ends of the auxiliary seed box and the main seed box are both equipped with screw feeders, the material output end of the main seed box is located directly above the magnetic diversion block, and the output end in the auxiliary seed box is close to the inner wall of the conical shell. After the material in the auxiliary seed box is output, it falls along the inner wall of the conical shell, and the materials output by the auxiliary seed box and the main seed box are mixed at the mixing structure.

[0019] As another improvement of the present application, an auxiliary spreading system is also included, the auxiliary spreading system includes a single chip microcomputer installed on the main bracket, and the single chip microcomputer is connected to a control module, a power supply management module, a monitoring module and a data processing module;

[0020] The control module is used to control the spreading structure and the auxiliary motor to work according to the instructions of the data processing module;

[0021] The power supply management module is used to manage the power supply distribution of the solar panels;

[0022] The monitoring module is used to collect the working status data of the sowing mechanism; weight sensors are installed in the main seed box, auxiliary seed box and auxiliary material tank;

[0023] The data processing module is used to process and analyze monitoring data and adjust the operation of designated equipment according to the analysis results.

[0024] In summary, through the functional modules of multi-level grass seed storage, dynamic mixing, auxiliary material synchronous spraying and intelligent control, efficient and precise grass seed sowing in desertified grasslands is achieved. The device is driven by green energy, has a compact structure and strong adaptability, and is easy to improve the operating efficiency and grass seed survival rate of desertified grassland management. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 A three-dimensional diagram of the spreading device according to the first and second embodiments of the present application;

[0026] Figure 2 for Figure 1 The structure diagram at A in the middle;

[0027] Figure 3 Cross-sectional view at the grass seed box for the first and second embodiments of the present application;

[0028] Figure 4 is Figure 3 Structural schematic at position B in

[0029] Figure 5 is Figure 3 Structural schematic at position C in

[0030] Figure 6 Schematic diagram of the working process of grass seed conveying for the first and second embodiments of the present application;

[0031] Figure 7 System block diagram for the third embodiment of the present application.

[0032] Description of the reference numerals in the figure:

[0033] 1. Main support; 2. Grass seed box; 21. Conical shell; 22. Main seed box; 23. Sub-seed box; 24. Elastic guide piece; 25. Magnetic shunt block; 3. Sowing pipe; 31. Wide-mouth cone; 32. Connection cover; 33. Long straight pipe; 4. Mixing structure; 41. Rectangular shell; 42. Guide wheel; 43. Feeding hose; 5. Auxiliary material tank; 51. Diversion pipe; 52. Atomizing nozzle; 6. Auxiliary adjustment structure; 61. Auxiliary frame; 62. Rotating shaft; 63. Connecting shaft. Specific embodiments

[0034] The following will describe the three embodiments of the present application in detail with reference to the accompanying drawings.

[0035] The first embodiment:

[0036] Figures 1-6 As shown, a grass seed sowing device for desertified grasslands driven by solar energy includes a main support 1 with a pair of wheels, and a plurality of evenly distributed sowing structures are installed on the main support 1;

[0037] The sowing structure includes a grass seed box 2, and the grass seed box 2 includes a conical shell 21 hinged to the main support 1. The top end of the conical shell 21 is fixedly connected with a main seed box 22, and a sub-seed box 23 is arranged at the lower end of the main seed box 22;

[0038] A sowing pipe 3 is arranged on the lower side of the grass seed box 2. The sowing pipe 3 includes a wide-mouth cone 31 installed on a guide wheel bracket. A connection cover 32 and a long straight pipe 33 are respectively installed at the upper and lower ends of the wide-mouth cone 31, and a mixing structure 4 is connected between the connection cover 32 and the output end of the conical shell 21;

[0039] The mixing structure 4 includes a rectangular shell 41 communicating with the conical shell 21. A guiding wheel 42 is rotatably connected inside the rectangular shell 41. A feeding hose 43 is connected between the rectangular shell 41 and the connecting cover 32.

[0040] A plurality of auxiliary material tanks 5 matching the position of the grass seed box 2 are connected to the main support 1. The auxiliary material tanks 5 are used for storing and conveying auxiliary materials. The auxiliary materials include liquid fertilizer or water retention agent. A conveying pump is built in the auxiliary material tank 5. A diversion pipe 51 is connected between the output end of the auxiliary material tank 5 and the connecting cover 32. An atomizing nozzle 52 communicating with the diversion pipe 51 is installed at the bottom end of the long straight pipe 33. The auxiliary materials are conveyed to the atomizing nozzle 52 through the action of the conveying pump and the diversion pipe 51 and atomized and sprayed out.

[0041] The guide wheel support includes a moving chassis. A connecting arm for fixing the sowing pipe 3 is hinged between the moving chassis and the main support 1. An extension arm for connecting with the conical shell 21 is installed on the main support 1. A buffer is connected between the extension arm and the connecting arm. The feeding hose 43 includes a corrugated conduit, and the corrugated conduit is hermetically connected to the joints of the rectangular shell 41 and the connecting cover 32. When one-sided wheels sink, the buffer releases elastic potential energy to push the connecting arm to lift the sowing pipe to avoid damage caused by touching the ground. The guide wheel support system composed of the connecting arm and the buffer dynamically adjusts the angle and height of the sowing pipe to adapt to the undulating environment of the desertified ground surface.

[0042] Spiral conveyors are installed at the output ends of both the secondary seed box 23 and the main seed box 22. The material output end of the main seed box 22 is directly above the magnetic shunt block 25. The output end in the secondary seed box 23 is close to the inner wall of the conical shell 21. The materials output from the secondary seed box 23 fall along the inner wall of the conical shell 21. The materials output from the secondary seed box 23 and the main seed box 22 are mixed at the mixing structure 4.

[0043] This device is driven by solar energy, combined with the functions of multi-stage grass seed storage, dynamic mixing and synchronous spraying of auxiliary materials, to achieve efficient grass seed sowing in desertified grasslands.

[0044] The main seed box 22 and the secondary seed box 23 are filled with different grass seeds or seeds at different treatment stages, and the feeding rate can be controlled. The grass seeds output from the grass seed box 2 collide and mix in the mixing structure 4, and then combine with the liquid auxiliary materials such as water retention agent or fertilizer provided by the auxiliary material tank 5 at the wide-mouth cone 31 of the sowing pipe 3 to form a "grass seed - auxiliary material" mixed material for sowing.

[0045] The mixed material is guided by the sowing pipe 3 through the long straight pipe 33 and sown onto the ground surface, and the atomized auxiliary materials cover the surface of the grass seeds. This device integrates the functions of seeding, mixing, applying auxiliary materials and adapting to terrain through modular design, which is easy to improve the operation efficiency and grass seed survival rate of desertified grassland treatment.

[0046] The second implementation mode:

[0047] Figures 5-6As shown, an elastic guide sheet 24 is installed at the output end of the conical shell 21, and the bottom end of the elastic guide sheet 24 is in contact with the surface of the guide wheel 42. A magnetic shunt block 25 matching the elastic guide sheet 24 is arranged in the conical shell 21, and the magnetic shunt block 25 is fixedly connected to the connecting shaft 63. The magnetic shunt block 25 includes a shunt cone body, and an electromagnet is installed at the lower end of the shunt cone body; the elastic guide sheet 24 includes a fixed end fixedly connected to the conical shell 21, and an elastic part is connected to the bottom of the fixed end, and the elastic part includes an elastic spring sheet, and a brake pad is laid on one end of the elastic spring sheet close to the guide wheel 42, and a magnetic layer is laid on the other end. When the electromagnet is working, it attracts or repels the elastic part;

[0048] However, when the electromagnet repels the elastic part, the elastic guide sheet 24 pressurizes the guide wheel 42, thereby preventing the guide wheel 42 from accidentally rotating, avoiding vibration and other unexpected situations that cause the guide wheel 42 to rotate inactively, and avoiding the accidental discharge of grass seeds caused by the accidental rotation of the guide wheel 42.

[0049] However, when the electromagnet and the elastic part are attracted to each other, the elastic part quickly tilts up, so that part of the grass seeds on the elastic part are thrown to one side of the guide wheel 42, and at the same time, part of the mixed grass seeds can be discharged through the gap between the elastic part and the guide wheel 42, which on the one hand assists the mixing of the grass seeds, and on the other hand assists the blockage of the upper side of the input guide wheel 42;

[0050] An auxiliary adjustment structure 6 is installed on the main bracket 1, and the auxiliary adjustment structure 6 includes an auxiliary frame 61 with an auxiliary motor. A rotating shaft 62 and a connecting shaft 63 are respectively installed at the upper and lower ends of the auxiliary frame 61. The rotating shaft 62 passes through multiple rectangular shells 41 and is fixedly connected to multiple guide wheels 42. The rotating shaft 62 is connected to the power output end of the motor, and the connecting shaft 63 is fixedly connected to multiple magnetic shunt blocks 25.

[0051] When the auxiliary motor is working, the rotating shaft 62 drives the plurality of guide wheels 42 to rotate, and then the guide wheels 42 guide the grass seeds in the rectangular shell 41 to be discharged;

[0052] This embodiment effectively prevents the inactive rotation of the guide wheel 42 by adding the elastic guide sheet 24 and the magnetic diverter block 25, avoids the accidental discharge of the grass seeds, and assists in the mixing and unblocking of the grass seeds. The setting of the auxiliary adjustment structure enables the guide wheel 42 to be driven stably to ensure the orderly discharge of the grass seeds;

[0053] This embodiment makes it easy to quickly stop and continue the grass seed sowing, and avoids the accidental discharge of a large amount of grass seeds retained in the sowing structure after the sowing work is temporarily stopped during the grass seed sowing process; in particular, no valve is used for shut-off, which is easy to get stuck compared to conventional valve control: this embodiment uses an elastic guide plate 24 + electromagnet linkage design to replace the mechanical valve, and the guide wheel 42 is locked by the magnetic repulsion force and the brake pad is pressurized. The magnetic attraction force quickly clears the blockage, which is easy to reduce the mechanical failure rate compared to the traditional shut-off valve.

[0054] The third implementation method:

[0055] Figure 7 As shown, a solar panel is installed on the top of the grass seed box 2, and the solar panel is used to power the sowing structure and the delivery pump; a plurality of evenly distributed power connection units are installed on the connecting shaft 63, and cables matching the plurality of power connection units are passed through the connecting shaft 63; the energy storage battery used for solar panel power generation and storage is integrated into the main bracket or deployed independently to convert light energy into electrical energy, which is stored in the vehicle battery to power the drive motor, the vibrating discharger, the screw feeder and the delivery pump. The introduction of solar panels not only realizes the green energy drive of the device, but also ensures the stable power supply of the sowing structure and the delivery pump.

[0056] It also includes an auxiliary spreading system, which includes a single chip microcomputer installed on the main bracket 1, and the single chip microcomputer is connected to a control module, a power supply management module, a monitoring module and a data processing module;

[0057] The control module is used to control the spreading structure and the auxiliary motor to work according to the instructions of the data processing module;

[0058] The power supply management module is used to manage the power supply distribution of the solar panels;

[0059] The monitoring module is used to collect the working status data of the sowing mechanism; the main seed box 22, the auxiliary seed box 23 and the auxiliary material tank 5 are all equipped with weight sensors; when the weight sensor detects that the grass seeds or auxiliary materials in the main seed box 22, the auxiliary seed box 23 or the auxiliary material tank 5 are insufficient, the data processing module will send a command to the control module, and the control module will command the sowing mechanism to suspend work and send an alarm to remind the operator to add grass seeds or auxiliary materials;

[0060] The data processing module is used to process and analyze the monitoring data, and adjust the operation of the designated equipment according to the analysis results, for example, adjusting the feeding of the grass seed box 2 in the sowing structure and the operation of the auxiliary motor in the auxiliary adjustment structure 6;

[0061] This embodiment realizes efficient energy utilization and intelligent control of the spreading device by using solar panels to supply power and combining with an intelligent auxiliary spreading system. The device can monitor the weight of materials in real time, issue warnings in time and adjust the working status to ensure the continuity and accuracy of the spreading operation.

[0062] In summary, this solution achieves efficient and precise grass seed sowing in desertified grasslands through functional modules such as multi-level grass seed storage, dynamic mixing, synchronous spraying of auxiliary materials and intelligent control. The device is driven by green energy, has a compact structure and strong adaptability, and is easy to improve the operating efficiency and grass seed survival rate of desertified grassland management.

[0063] Combined with the current actual requirements, the above-mentioned implementation manner adopted in this application, the protection scope is not limited thereto. Within the scope of knowledge possessed by those skilled in the art, various changes made without departing from the concept of this application still fall within the protection scope of the present invention.

Claims

1. A solar-powered grass seed spreading device for desertified grasslands, comprising a main support (1) with a pair of wheels, characterized in that: The main support (1) is provided with a plurality of evenly distributed sowing structures; the sowing structure comprises a grass seed box (2), the grass seed box (2) comprises a conical shell (21) hinged to the main support (1), the top end of the conical shell (21) is fixedly connected to a main seed box (22), and the lower end of the main seed box (22) is provided with a secondary seed box (23); A sowing pipe (3) is provided on the lower side of the grass seed box (2), and the sowing pipe (3) comprises a wide-mouth cone (31) mounted on a guide wheel bracket, and a connecting cover (32) and a long straight pipe (33) are respectively installed at the upper and lower ends of the wide-mouth cone (31), and a mixing structure (4) is connected between the connecting cover (32) and the output end of the conical shell (21); The mixing structure (4) comprises a rectangular shell (41) connected to the conical shell (21), a guide wheel (42) being rotatably connected inside the rectangular shell (41), and a material delivery hose (43) being connected between the rectangular shell (41) and the connection cover (32); an elastic guide sheet (24) is installed at the output end of the conical shell (21), the bottom end of the elastic guide sheet (24) is in contact with the surface of the guide wheel (42), and a magnetic shunt block (25) matching the elastic guide sheet (24) is arranged inside the conical shell (21); The main support (1) is connected to a plurality of auxiliary material tanks (5) whose positions match those of the grass seed box (2); the auxiliary material tanks (5) are equipped with a delivery pump; a flow guide tube (51) is connected between the output end of the auxiliary material tank (5) and the connection cover (32); and an atomizing nozzle (52) in communication with the flow guide tube (51) is installed at the bottom end of the long straight tube (33).

2. A solar-powered grass seed spreading device for desertified grasslands according to claim 1, characterized in that: The magnetic shunt block (25) comprises a shunt cone body, and an electromagnet is installed at the lower end of the shunt cone body; the elastic guide sheet (24) comprises a fixed end fixedly connected to the conical shell (21), the bottom of the fixed end is connected to an elastic part, the elastic part comprises an elastic spring sheet, and a brake pad is laid on one end of the elastic spring sheet close to the guide wheel (42), and a magnetic layer is laid on the other end.

3. A solar-powered grass seed spreading device for desertified grasslands according to claim 2, characterized in that: An auxiliary adjustment structure (6) is installed on the main support (1), and the auxiliary adjustment structure (6) comprises an auxiliary frame (61) with an auxiliary motor. A rotating shaft (62) and a connecting shaft (63) are respectively installed at the upper and lower ends of the auxiliary frame (61). The rotating shaft (62) passes through a plurality of rectangular shells (41) and is fixedly connected to a plurality of guide wheels (42). The rotating shaft (62) is connected to a power output end of the motor, and the connecting shaft (63) is fixedly connected to a plurality of magnetic shunt blocks (25).

4. A solar-powered grass seed spreading device for desertified grasslands according to claim 3, characterized in that: A solar panel is installed on the top of the grass seed box (2), and the solar panel is used to power the sowing structure and the delivery pump; a plurality of evenly distributed power connection units are installed on the connecting shaft (63), and cables matching the plurality of power connection units are passed through the connecting shaft (63).

5. The solar-powered grass seed spreading device for desertified grassland according to claim 1, characterized in that: The guide wheel bracket comprises a mobile chassis, a connecting arm for fixing the sowing pipe (3) is hinged between the mobile chassis and the main bracket (1), an extension arm for connecting to the conical shell (21) is installed on the main bracket (1), and a buffer is connected between the extension arm and the connecting arm.

6. The solar-powered grass seed spreading device for desertified grassland according to claim 1, characterized in that: The material delivery hose (43) comprises a corrugated conduit, and the corrugated conduit is sealed and connected to the connection point between the rectangular shell (41) and the connection cover (32).

7. The solar-powered grass seed spreading device for desertified grassland according to claim 2, characterized in that: The output ends of the auxiliary seed box (23) and the main seed box (22) are both equipped with screw feeders. The material output end of the main seed box (22) is located directly above the magnetic diverter block (25). The output end of the auxiliary seed box (23) is close to the inner wall of the conical shell (21). After the material in the auxiliary seed box (23) is output, it falls along the inner wall of the conical shell (21). The materials output from the auxiliary seed box (23) and the main seed box (22) are mixed at the mixing structure (4).

8. A solar-powered grass seed spreading device for desertified grasslands according to any one of claims 1 to 7, characterized in that: It also includes an auxiliary spreading system, the auxiliary spreading system including a single chip microcomputer installed on the main support (1), the single chip microcomputer being connected to a control module, a power supply management module, a monitoring module and a data processing module; The control module is used to control the spreading structure and the auxiliary motor to work according to the instructions of the data processing module; The power supply management module is used to manage the power supply distribution of the solar panel; The monitoring module is used to collect working status data of the sowing mechanism; weight sensors are installed in the main seed box (22), the auxiliary seed box (23) and the auxiliary material tank (5); The data processing module is used to process and analyze monitoring data, and adjust the operation of designated equipment according to the analysis results.

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