Industrial Internet of Things management system and method for traditional Chinese medicine planting management

Abstract

The invention relates to an industrial Internet of Things management system and method for traditional Chinese medicine planting management. The problems that in the prior art, intercommunication between links of a traditional Chinese medicinal material plant networking system is difficult to achieve, and the use efficiency is low are solved. The system comprises a planting management platform, the planting management platform is connected with a traditional Chinese medicinal material monitoring platform and a warehouse management platform, and the planting management platform comprises an Internet of Things sensing layer, a network transmission layer, a data processing layer and an application layer; the traditional Chinese medicinal material monitoring platform comprises a growth environment monitoring subsystem and a growth environment adjusting subsystem; the warehouse management platform comprises a material storage subsystem and a traditional Chinese medicine finished product management subsystem, the material storage subsystem is connected with the growth environment adjusting subsystem, and the traditional Chinese medicine finished product management subsystem is connected with the growth environment monitoring subsystem. The system has the advantages that interconnection and intercommunication among all links are achieved, the growth state and environment of traditional Chinese medicinal materials can be monitored in real time, remote adjustment can be achieved, the stability of the growth environment of the traditional Chinese medicinal materials can be guaranteed, and the use efficiency is high.

Description

Technical Field

[0001] The present invention relates to the technical field of medicinal material planting, and in particular to an industrial Internet of Things management system and method for traditional Chinese medicine planting management. Background Art

[0002] With the development of science and technology, the agricultural field has become more modernized. my country is a large agricultural country. The development of agricultural Internet of Things systems is of great significance to the construction of modern agriculture, the improvement of agricultural comprehensive production capacity and the guarantee of effective supply of agricultural products. However, the existing agricultural Internet of Things systems, especially those for Chinese medicinal materials planting, have complex equipment, high wiring requirements, low pertinence, and low efficiency in the management and collection of information on Internet of Things devices. In addition, it is difficult to achieve interconnection between the various links of the existing medicinal materials planting Internet of Things system, and the use efficiency is low.

[0003] In order to solve the shortcomings of the existing technology, people have conducted long-term exploration and proposed various solutions. For example, a Chinese patent document discloses a Chinese herbal medicine planting Internet of Things system [CN202022530479.3], which includes a main control module, a data storage module, a data acquisition module, a Chinese herbal medicine data display module, a data transmission module and a power module; the data storage module, the data acquisition module, the Chinese herbal medicine data display module and the data transmission module are all connected to the main control module; the main control module, the data storage module, the data acquisition module, the Chinese herbal medicine data display module and the data transmission module are all electrically connected to the power module.

[0004] The above scheme has solved the problems of the existing Chinese medicinal materials planting Internet of Things system, such as complex equipment, high wiring requirements and lack of pertinence, to a certain extent. However, the scheme still has many shortcomings, such as: it is difficult to achieve interconnection between various links and the utilization efficiency is low. Summary of the invention

[0005] The purpose of the present invention is to provide an industrial Internet of Things management system and method for traditional Chinese medicine planting management in view of the above problems.

[0006] To achieve the above-mentioned purpose, the present invention adopts the following technical solutions: an industrial Internet of Things management system for Chinese medicine planting management, including a planting management platform, the planting management platform is connected to a Chinese medicinal material monitoring platform and a warehousing management platform, the planting management platform includes an Internet of Things perception layer, a network transmission layer, a data processing layer and an application layer; the Chinese medicinal material monitoring platform includes a growth environment monitoring subsystem and a growth environment regulation subsystem; the warehousing management platform includes a material storage subsystem and a Chinese medicinal material finished product management subsystem, the material storage subsystem is connected to the growth environment regulation subsystem for material supply to Chinese medicinal materials, and the Chinese medicinal material finished product management subsystem is connected to the growth environment monitoring subsystem for growth data traceability.

[0007] In the above-mentioned industrial Internet of Things management system for Chinese medicine planting management, the Internet of Things perception layer includes a number of sensors for collecting planting environment information and a number of detectors for Chinese medicinal material growth data. The network transmission layer is wirelessly connected to the data processing layer and transmits planting data. The data processing layer is connected to the data storage unit for pre-storing the optimal planting environment data. The application layer is connected to the operation interaction center and the mobile monitoring center.

[0008] In the above-mentioned industrial Internet of Things management system for Chinese medicine planting management, the growth environment monitoring subsystem includes soil moisture sensors, soil temperature sensors, soil pH sensors, air humidity sensors, air temperature sensor controllers and salt detection sensors that are arranged in zones at the roots of Chinese medicinal materials. The soil moisture sensors, soil temperature sensors, soil pH sensors, air humidity sensors, air temperature sensor controllers and soil salt detection sensors respectively transmit wireless monitoring information with the processor module through NB-IoT, and the soil moisture sensors, soil temperature sensors, soil pH sensors and soil salt detection sensors are set up in different depths and lengths into the soil to monitor data at different depths and positions in the region; the growth environment adjustment subsystem includes soil moisture regulators, soil temperature adjustment sensors, soil pH regulators, air humidity regulators, air temperature regulators and soil salt regulators, and the growth environment adjustment subsystem includes soil moisture regulators, soil temperature adjustment sensors, soil pH regulators and salt regulators that are set up in zones in the Chinese medicinal material planting area and are set up in different depths and lengths into the soil to adjust the growth environment of the Chinese medicinal materials at different depths and positions.

[0009] In the above-mentioned industrial Internet of Things management system for traditional Chinese medicine planting management, the material storage subsystem includes a material warehouse, the material warehouse is connected to the material management unit, and the material management unit is connected to the material replenishment platform; the traditional Chinese medicine finished product management subsystem includes a production management unit, a sales platform and a coding and traceability platform.

[0010] According to the above-mentioned industrial Internet of Things management system for Chinese medicine planting management, a management method of the industrial Internet of Things management system for Chinese medicine planting management is provided, and the method includes the following steps:

[0011] S1. Testing of the planting environment and selection of planting areas for Chinese medicinal materials;

[0012] S2. Plant Chinese medicinal materials in different areas and conduct growth environment testing and growth data monitoring;

[0013] S3, continuously adjust the planting environment according to the detected environmental data and growth data;

[0014] S4. Supervision and traceability of the entire industrial chain.

[0015] Step S1 specifically includes the following steps:

[0016] S11, pre-storing the optimal planting environment data and differentiation threshold of the current Chinese medicinal materials in the data storage unit;

[0017] S12, performing data detection on the planting environment of several selected planting areas through sensors and detectors of the IoT perception layer;

[0018] S13, the detected planting environment data is transmitted to the data processing layer through the network transmission layer;

[0019] S14, the data processing layer compares the currently received planting environment data with the optimal planting environment data pre-stored in the data storage unit and obtains differential data of each data;

[0020] S15. Select an area whose differential data is within a differential threshold of the optimal planting environment data as the optimal planting area.

[0021] Step S2 specifically includes the following steps:

[0022] S21. Plant Chinese medicinal materials in the selected sub-areas;

[0023] S22, using the growth environment monitoring subsystem to monitor the soil data and air data of the Chinese medicinal materials and transmit them to the processor module of the planting management platform in real time;

[0024] S23. Use a detector to detect the current growth status of the Chinese medicinal materials and send it to the planting management platform.

[0025] Soil data includes fixed-point data on soil moisture, pH, and temperature at different depths of Chinese medicinal materials, as well as average data for the planting area. Air data includes air humidity, temperature, and light duration in the current planting area.

[0026] Step S3 specifically includes the following steps:

[0027] S31, comparing the detection data with the preset standard growth data stored in the data storage unit;

[0028] S32, adjusting soil data, air data, and light data;

[0029] S33, periodically test soil and air and adjust data;

[0030] Among them, in the process of adjusting soil data and air data, the collected growth data of Chinese medicinal materials is used to establish a periodic adjustment model, and the adjusted data is used for periodic training. The optimal adjustment data is obtained by comparing the growth status of Chinese medicinal materials under various data. The optimal adjustment data is compared with the current growth environment data of Chinese medicinal materials to determine the project content and data volume of periodic adjustment.

[0031] Step S4 specifically includes the following steps:

[0032] S41, recording soil data and air data of the current planting area;

[0033] S42, periodically record the status of Chinese medicinal materials during their growth process;

[0034] S43, recording the periodically adjusted growth environment data;

[0035] S44. Record the production process and sales data of Chinese herbal medicines;

[0036] S45. Package the recorded data of the whole process, send it to the coding and traceability platform for coding, and feed it back to the planting management platform for data verification before coding and pasting.

[0037] Compared with the prior art, the advantages of the present invention are:

[0038] 1. Improved the quality of Chinese medicinal materials: Through intelligent monitoring and management, the actual planting environment can be compared and adjusted with the planting environment of authentic medicinal materials, making the quality of Chinese medicinal materials closer to authentic medicinal materials, which is conducive to the popularization of high-quality Chinese medicinal materials.

[0039] 2. Realized precision planting: It can monitor the growth conditions and growth environment of Chinese medicinal materials in real time, remotely control the growth conditions according to changes in the external environment, ensure the stability of the growth environment of Chinese medicinal materials, achieve intensive cultivation, and ensure product quality.

[0040] 4. Realized the supervision of the entire industrial chain: By establishing an information support system covering the entire industrial chain, the traceability of the industrial chain is achieved, meeting the high requirements of users for the supervision and monitoring system of the Chinese medicinal materials industry.

[0041] 5. Promoted the modernization of the traditional Chinese medicine industry: The intelligent traditional Chinese medicine planting system combines sensor technology, data analysis technology and remote monitoring technology to promote the development of traditional Chinese medicine planting in the direction of modernization and intelligence. BRIEF DESCRIPTION OF THE DRAWINGS

[0042] Figure 1 It is the overall structural connection block diagram of the present invention;

[0043] Figure 2It is a schematic diagram of the arrangement of the growth environment monitoring subsystem of the present invention at the root of the medicinal material;

[0044] Figure 3 is a flow chart of the method in the present invention;

[0045] In the figure: planting management platform 1, Internet of Things perception layer 11, network transmission layer 12 data processing layer 13, application layer 14, Chinese medicinal materials monitoring platform 2, growth environment monitoring subsystem 21, growth environment adjustment subsystem 22, warehouse management platform 3, material storage subsystem 31, material warehouse 311, material management unit 312, material replenishment platform 313, Chinese medicine finished product management subsystem 32, production management unit 321, sales platform 322, coding traceability platform 323. DETAILED DESCRIPTION

[0046] The present invention is further described in detail below with reference to the accompanying drawings and specific embodiments.

[0047] like Figure 1-2 As shown, an industrial Internet of Things management system for Chinese medicine planting management includes a planting management platform 1, which is connected to a Chinese medicinal material monitoring platform 2 and a warehouse management platform 3. The planting management platform 1 includes an Internet of Things perception layer 11, a network transmission layer 12, a data processing layer 13 and an application layer 14; the Chinese medicinal material monitoring platform 2 includes a growth environment monitoring subsystem 21 and a growth environment regulation subsystem 22; the warehouse management platform 3 includes a material storage subsystem 31 and a Chinese medicinal material finished product management subsystem 32, the material storage subsystem 31 is connected to the growth environment regulation subsystem 22 for material supply to Chinese medicinal materials, and the Chinese medicinal material finished product management subsystem 32 is connected to the growth environment monitoring subsystem 21 for growth data traceability.

[0048] Among them, the IoT perception layer 11 includes several sensors for collecting planting environment information and several detectors for Chinese medicinal material growth data, the network transmission layer 12 is wirelessly connected to the data processing layer 13 and performs planting data transmission, the data processing layer 13 is connected to the data storage unit 14 for pre-storing the optimal planting environment data, and the application layer 14 is connected to the operation interaction center and the mobile monitoring center. The operation interaction center and the mobile monitoring center are mainly used to monitor the growth status of medicinal materials in real time, and remotely adjust the growth environment through the operation interaction center.

[0049] In detail, the growth environment monitoring subsystem 21 includes soil moisture sensors, soil temperature sensors, soil pH sensors, air humidity sensors, air temperature sensor controllers and salt detection sensors which are arranged in zones at the roots of Chinese medicinal materials. The soil moisture sensors, soil temperature sensors, soil pH sensors, air humidity sensors, air temperature sensor controllers and soil salt detection sensors respectively transmit wireless monitoring information to the processor module through NB-IoT, and the soil moisture sensors, soil temperature sensors, soil pH sensors and soil salt detection sensors are arranged in a manner of extending into the soil at different depths and lengths to monitor data at different depths and positions in the region; the growth environment regulating subsystem 22 includes a soil moisture regulator, a soil temperature regulating sensor, a soil pH regulator, an air humidity regulator, an air temperature regulator and a soil salt regulator, and the growth environment regulating subsystem 22 includes a soil moisture regulator, a soil temperature regulating sensor, a soil pH regulator and a salt regulator which are arranged in zones in the Chinese medicinal materials planting area and are arranged in a manner of extending into the soil at different depths and lengths to regulate the growth environment of the Chinese medicinal materials at different depths and positions.

[0050] Based on the IoT node hardware platform and software system, multi-point, dynamic, and irregular periodic monitoring can be achieved to regulate the crop growth environment and improve crop yield and quality.

[0051] The growth environment monitoring subsystem 21 monitors soil environmental parameters and uses the hierarchical analysis method, K-means clustering algorithm and generalized regression neural network algorithm for comprehensive evaluation, and adopts an integrated ground-air monitoring solution: combining satellites, UAV remote sensing, and ground monitoring networks to build an agricultural monitoring system and an "agricultural big data +" integrated production service platform to solve the problems of asset inventory and crop growth monitoring, and improve the level of management refinement and comprehensive management level.

[0052] In addition, the growth environment monitoring subsystem 21 uses Beidou satellite navigation, Internet of Things, cloud computing technology, combined with geographic information system, to monitor the planting, growth, and management of Chinese medicinal materials. The overall design includes the collection and transmission layer, business support layer, data resource management layer, comprehensive business application layer, information security system, and operation and maintenance system. The growth environment monitoring subsystem 21 also includes a distribution area display system, a Chinese medicinal material planting monitoring system, a Chinese medicinal material management system, and a Chinese medicinal material yield estimation system, and intuitively displays the distribution of Chinese medicinal material planting areas through data maps.

[0053] The growth environment regulating subsystem 22 is used to regulate the soil environment and the air environment, control the relevant regulators, ensure that the growth environment of the medicinal materials is suitable, and realize semi-automatic management.

[0054] Preferably, the material storage subsystem 31 includes a material warehouse 311, the material warehouse 311 is connected to a material management unit 312, and the material management unit 312 is connected to a material replenishment platform 313; the Chinese medicine finished product management subsystem 32 includes a production management unit 321, a sales platform 322 and a coding traceability platform 323.

[0055] The material storage subsystem 31 coordinates, manages and records people, things and objects in a unified manner, realizing the standardization and process-based management of agricultural warehouses.

[0056] The Chinese medicine finished product management subsystem 32 builds a traceability solution to track and record each link in the entire process of medicinal material growth, production, and sales, providing medicinal material safety assurance.

[0057] like Figure 3 As shown, a management method of an industrial Internet of Things management system for traditional Chinese medicine planting management includes the following steps:

[0058] S1. Testing of the planting environment and selection of planting areas for Chinese medicinal materials;

[0059] S2. Plant Chinese medicinal materials in different areas and conduct growth environment testing and growth data monitoring;

[0060] S3, continuously adjust the planting environment according to the detected environmental data and growth data;

[0061] S4. Supervision and traceability of the entire industrial chain.

[0062] Step S1 specifically includes the following steps:

[0063] S11, pre-storing the optimal planting environment data and differentiation threshold of the current Chinese medicinal materials in the data storage unit 14;

[0064] S12, performing data detection on the planting environment of the selected planting areas through sensors and detectors of the Internet of Things perception layer 11;

[0065] S13, the detected planting environment data is transmitted to the data processing layer 13 through the network transmission layer 12;

[0066] S14, the data processing layer 13 compares the currently received planting environment data with the optimal planting environment data pre-stored in the data storage unit 14 and obtains differential data of each data;

[0067] S15. Select an area whose differential data is within a differential threshold of the optimal planting environment data as the optimal planting area.

[0068] Step S2 specifically includes the following steps:

[0069] S21. Plant Chinese medicinal materials in the selected sub-areas;

[0070] S22, using the growth environment monitoring subsystem 21 to monitor the soil data and air data of the Chinese medicinal materials and transmit them to the processor module of the planting management platform 1 in real time;

[0071] S23, using a detector to detect the current growth status of the Chinese medicinal materials and sending it to the planting management platform 1.

[0072] Soil data includes fixed-point data on soil moisture, pH, and temperature at different depths of Chinese medicinal materials, as well as average data for the planting area. Air data includes air humidity, temperature, and light duration in the current planting area.

[0073] Step S3 specifically includes the following steps:

[0074] S31, comparing the detection data with the preset standard growth data stored in the data storage unit 14;

[0075] S32, adjusting soil data, air data, and light data;

[0076] S33, periodically test soil and air and adjust data;

[0077] In the process of adjusting soil data and air data, the collected growth data of Chinese medicinal materials is used to establish a periodic adjustment model, and the adjusted data is used for periodic training. The optimal adjustment data is obtained by comparing the growth status of Chinese medicinal materials under various data. The optimal adjustment data is compared with the current growth environment data of Chinese medicinal materials to determine the project content and data volume of the periodic adjustment.

[0078] Step S4 specifically includes the following steps:

[0079] S41, recording soil data and air data of the current planting area;

[0080] S42, periodically record the status of Chinese medicinal materials during their growth process;

[0081] S43, recording the periodically adjusted growth environment data;

[0082] S44. Record the production process and sales data of Chinese herbal medicines;

[0083] S45. Pack the recorded data of the whole process, send it to the coding and traceability platform 323 for coding, and feed it back to the planting management platform 1 for data verification and then affixing the code.

[0084] In summary, the principle of this embodiment is to select the best planting area and adjust the planting environment of the planting area. After the medicinal materials are planted, the growth state and growth environment of the medicinal materials are monitored throughout the process through the growth environment adjustment subsystem 22, and the growth environment adjustment subsystem 22 is used to periodically adjust the growth environment parameters to ensure that the Chinese medicinal materials are in the best growth state. Secondly, the data adjustment of the best growth environment is achieved through periodic model training. Finally, the full record and traceability of the normal, production, and sales of medicinal materials is achieved through the coding traceability platform 323 to ensure the safety of the medicinal materials. The interconnection between each link realizes the full monitoring and management of the planting and growth of Chinese medicinal materials, and can monitor the growth and growth environment of Chinese medicinal materials in real time. The growth conditions are remotely controlled according to changes in the external environment to ensure the stability of the growth environment of Chinese medicine, achieve intensive cultivation, and ensure the quality of medicinal materials.

[0085] The specific embodiments described herein are merely examples of the spirit of the present invention. Those skilled in the art may make various modifications or additions to the specific embodiments described or replace them in similar ways, but they will not deviate from the spirit of the present invention or exceed the scope defined by the appended claims.

[0086] Although this article uses more terms such as planting management platform 1, Internet of Things perception layer 11, network transmission layer 12 data processing layer 13, application layer 14, Chinese medicinal material monitoring platform 2, growth environment monitoring subsystem 21, growth environment adjustment subsystem 22, warehouse management platform 3, material storage subsystem 31, material warehouse 311, material management unit 312, material replenishment platform 313, Chinese medicine finished product management subsystem 32, production management unit 321, sales platform 322, coding and tracing platform 323, etc., it does not exclude the possibility of using other terms. These terms are used only to more conveniently describe and explain the essence of the present invention; interpreting them as any additional restrictions is contrary to the spirit of the present invention.

Claims

1. An industrial Internet of Things management system for Chinese medicine planting management, comprising a planting management platform (1), wherein the planting management platform (1) is connected to a Chinese medicine monitoring platform (2) and a storage management platform (3), characterized in that: The planting management platform (1) comprises an Internet of Things perception layer (11), a network transmission layer (12), a data processing layer (13) and an application layer (14); the Chinese medicinal material monitoring platform (2) comprises a growth environment monitoring subsystem (21) and a growth environment regulating subsystem (22); the storage management platform (3) comprises a material storage subsystem (31) and a Chinese medicinal material finished product management subsystem (32); the material storage subsystem (31) is connected to the growth environment regulating subsystem (22) to supply materials to the Chinese medicinal materials, and the Chinese medicinal material finished product management subsystem (32) is connected to the growth environment monitoring subsystem (21) to trace the growth data.

2. According to claim 1, an industrial Internet of Things management system for traditional Chinese medicine planting management is characterized in that: The Internet of Things perception layer (11) includes a plurality of sensors for collecting planting environment information and a plurality of detectors for Chinese medicinal material growth data; the network transmission layer (12) is wirelessly connected to the data processing layer (13) and performs planting data transmission; the data processing layer (13) is connected to a data storage unit (14) for pre-storing optimal planting environment data; and the application layer (14) is connected to an operation interaction center and a mobile monitoring center.

3. The industrial Internet of Things management system for Chinese medicine planting management according to claim 2 is characterized in that: The growth environment monitoring subsystem (21) includes a soil moisture sensor, a soil temperature sensor, a soil pH sensor, an air humidity sensor, an air temperature sensor controller and a salt detection sensor which are arranged in zones at the roots of the Chinese medicinal materials. The soil moisture sensor, the soil temperature sensor, the soil pH sensor, the air humidity sensor, the air temperature sensor controller and the soil salt detection sensor respectively transmit wireless monitoring information to the processor module via NB-IoT, and the soil moisture sensor, the soil temperature sensor, the soil pH sensor and the soil salt detection sensor are arranged in a manner of extending into the soil at different depths and lengths to monitor data at different depths and positions in the region; the growth environment regulating subsystem (22) includes a soil moisture regulator, a soil temperature regulating sensor, a soil pH regulator, an air humidity regulator, an air temperature regulator and a soil salt regulator, and the growth environment regulating subsystem (22) includes a soil moisture regulator, a soil temperature regulating sensor, a soil pH regulator and a salt regulator which are arranged in zones in the Chinese medicinal materials planting area and are arranged in a manner of extending into the soil at different depths and lengths to regulate the growth environment of the Chinese medicinal materials at different depths and positions.

4. The industrial Internet of Things management system for Chinese medicine planting management according to claim 2 is characterized in that: The material storage subsystem (31) includes a material warehouse (311), the material warehouse (311) is connected to a material management unit (312), and the material management unit (312) is connected to a material replenishment platform (313); the Chinese medicine finished product management subsystem (32) includes a production management unit (321), a sales platform (322) and a coding traceability platform (323).

5. A management method for an industrial Internet of Things management system for traditional Chinese medicine planting management according to any one of claims 1 to 4, characterized in that: The method comprises the following steps: S1. Testing of the planting environment and selection of planting areas for Chinese medicinal materials; S2. Plant Chinese medicinal materials in different areas and conduct growth environment testing and growth data monitoring; S3, continuously adjust the planting environment according to the detected environmental data and growth data; S4. Supervision and traceability of the entire industrial chain.

6. The management method of an industrial Internet of Things management system for traditional Chinese medicine planting management according to claim 5 is characterized in that: Step S1 specifically includes the following steps: S11, pre-storing the optimal planting environment data and differentiation threshold of the current Chinese medicinal materials in the data storage unit (14); S12, performing data detection on the planting environment of the selected planting areas through sensors and detectors of the Internet of Things perception layer (11); S13, the detected planting environment data is transmitted to the data processing layer (13) through the network transmission layer (12); S14, the data processing layer (13) compares the currently received planting environment data with the optimal planting environment data pre-stored in the data storage unit (14) and obtains differential data of each item of data; S15. Select an area whose differential data is within a differential threshold of the optimal planting environment data as the optimal planting area.

7. The management method of an industrial Internet of Things management system for traditional Chinese medicine planting management according to claim 6 is characterized in that: Step S2 specifically includes the following steps: S21. Plant Chinese medicinal materials in the selected sub-areas; S22, using the growth environment monitoring subsystem (21) to monitor the soil data and air data of the Chinese medicinal materials and transmit them to the processor module of the planting management platform (1) in real time; S23, using a detector to detect the current growth status of the Chinese medicinal materials and sending it to the planting management platform (1). The soil data includes fixed-point data of soil humidity, pH, and temperature at different depths of Chinese medicinal materials and mean data of the planting area, and the air data includes air humidity, temperature, and light duration in the current planting area.

8. The management method of an industrial Internet of Things management system for traditional Chinese medicine planting management according to claim 7 is characterized in that: Step S3 specifically includes the following steps: S31, comparing the detection data with the preset standard growth data stored in the data storage unit (14); S32, adjusting soil data, air data, and light data; S33. Conduct periodic testing of soil and air and perform data adjustments.

9. The management method of an industrial Internet of Things management system for traditional Chinese medicine planting management according to claim 8 is characterized in that: In the process of adjusting soil data and air data, the collected growth data of Chinese medicinal materials is used to establish a periodic adjustment model, and the adjusted data is used for periodic training. The optimal adjustment data is obtained by comparing the growth status of Chinese medicinal materials under various data. The optimal adjustment data is compared with the current growth environment data of Chinese medicinal materials to determine the project content and data volume of periodic adjustment.

10. The management method of an industrial Internet of Things management system for traditional Chinese medicine planting management according to claim 8, characterized in that: Step S4 specifically includes the following steps: S41, recording soil data and air data of the current planting area; S42, periodically record the status of Chinese medicinal materials during their growth process; S43, recording the periodically adjusted growth environment data; S44. Record the production process and sales data of Chinese herbal medicines; S45. Pack the recorded data of the whole process, send it to the coding and traceability platform (323) for coding, and feed it back to the planting management platform (1) for data verification and then affixing the code.

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