Intelligent regulation and control system for monitoring environmental parameters in sheep house

Abstract

The invention relates to an intelligent regulation and control system for monitoring environmental parameters in a sheep house, which belongs to the technical field of sheep house breeding and comprises environmental parameter acquisition modules arranged at different positions in the sheep house and used for acquiring various environmental parameters in the sheep house in real time; the data processing and analyzing module is in communication connection with the environmental parameter acquisition module and is used for receiving the digital signals transmitted by the environmental parameter acquisition module and processing and analyzing the received environmental parameter data; and the intelligent regulation and control module is in communication connection with the data processing and analysis module and is used for controlling environment equipment in the sheep house according to the judgment result and the regulation and control instruction of the data processing and analysis module. According to the intelligent regulation and control system for monitoring the environmental parameters in the sheep house, various types of sensors are distributed at different positions and height layers in the sheep house, and various environmental parameters such as the temperature, the humidity, the ammonia concentration, the carbon dioxide concentration and the illumination intensity in the sheep house can be accurately collected in real time.

Description

Technical Field

[0001] This invention relates to the field of sheepfold farming technology, specifically to an intelligent control system for monitoring environmental parameters within sheepfolds. Background Technology

[0002] In traditional sheep pen farming, the monitoring and control of environmental parameters within the sheep pen mainly rely on manual experience. Farmers periodically enter the sheep pen and use their senses (such as touch, observation, and smell) to roughly judge whether environmental parameters such as temperature, humidity, air quality (ammonia and carbon dioxide concentration), and light intensity are suitable for sheep growth.

[0003] However, this method has many drawbacks. Firstly, human judgment is highly subjective and uncertain. Different farmers may have different assessments of environmental suitability, and human senses are not precise or timely enough to detect subtle environmental changes. For example, when ammonia concentration in the sheepfold gradually increases but hasn't reached a level noticeable to humans, the sheep may already be negatively affected, and manual monitoring often fails to detect and address these issues promptly. Secondly, manual monitoring cannot achieve real-time, continuous monitoring of environmental parameters. Farmers cannot stay in the sheepfold constantly to observe, which means that during non-monitoring periods, environmental changes detrimental to sheep growth may occur without timely intervention. For instance, if the temperature in the sheepfold suddenly rises or falls at night or when farmers are away, or if ammonia concentration rises sharply, the sheep may become ill or even die due to environmental discomfort, resulting in economic losses.

[0004] While some automated systems for monitoring and controlling livestock and poultry housing environments exist on the market, most suffer from limitations such as limited functionality and low levels of intelligence. Some systems can only monitor a few environmental parameters, failing to comprehensively and accurately reflect the actual environmental conditions within the sheepfold. For example, some systems only monitor temperature and humidity, neglecting equally important parameters for sheep growth, such as ammonia, carbon dioxide concentration, and light intensity. Furthermore, some systems employ fixed control strategies, lacking flexibility and adaptability. They typically operate within preset parameter ranges, unable to dynamically adjust their strategies based on the sheep's actual growth needs and environmental changes. For instance, the suitable range of environmental parameters within the sheepfold varies across different seasons and sheep growth stages, but existing systems often fail to automatically identify these changes and make corresponding adjustments, resulting in unsatisfactory control effects.

[0005] Furthermore, existing systems suffer from poor user experience, complex operation, and are inconvenient for farmers. Some systems have unfriendly interfaces and unintuitive data display, making it difficult for farmers to quickly obtain the necessary information and perform effective operations. Moreover, some systems lack remote monitoring and management functions, preventing farmers from understanding the environmental conditions and equipment operating status within the sheepfold anytime, anywhere, thus limiting the efficiency and convenience of livestock management. Therefore, this application proposes an intelligent control system for monitoring environmental parameters within sheepfolds to address the aforementioned problems. Summary of the Invention

[0006] To address the shortcomings of existing technologies, this invention provides an intelligent control system for monitoring environmental parameters in sheep pens. This system offers advantages such as accurate and comprehensive environmental monitoring, intelligent and efficient environmental control, intelligent learning and strategy optimization, and convenient user interaction and remote management, thus solving the problems mentioned in the background technology.

[0007] To achieve the above objectives, the present invention provides the following technical solution: An intelligent control system for monitoring environmental parameters inside sheep pens, comprising: Environmental parameter acquisition module: Set in different locations within the sheepfold, it is used to collect various environmental parameters in the sheepfold in real time, including temperature, humidity, ammonia concentration, carbon dioxide concentration, and light intensity. The environmental parameter acquisition module contains multiple different types of sensors, namely temperature sensor, humidity sensor, ammonia sensor, carbon dioxide sensor, and light intensity sensor. Each sensor converts the collected analog signals into digital signals for transmission. Data processing and analysis module: Communicatively connected to the environmental parameter acquisition module, used to receive digital signals transmitted by the environmental parameter acquisition module, process and analyze the received environmental parameter data, including data filtering and noise reduction, outlier removal, and determine whether the current sheepfold environment is suitable for sheep growth based on the preset suitable range of environmental parameters; if there are unsuitable environmental parameters, determine the environmental parameters that need to be adjusted and the corresponding adjustment direction; Intelligent control module: Communicatively connected to the data processing and analysis module, it controls the environmental equipment within the sheepfold based on the judgment results and control commands from the data processing and analysis module. The environmental equipment includes ventilation equipment, heating equipment, cooling equipment, humidification equipment, dehumidification equipment, and lighting equipment. When the temperature exceeds a preset upper limit, the cooling and ventilation equipment are activated; when the temperature falls below a preset lower limit, the heating equipment is activated; when the humidity exceeds a preset upper limit, the dehumidification and ventilation equipment are activated; when the humidity falls below a preset lower limit, the humidification equipment is activated; when the ammonia or carbon dioxide concentration exceeds a preset upper limit, the ventilation equipment is activated; when the light intensity falls below a preset lower limit, the lighting equipment is activated. Communication module: used to realize data transmission between the environmental parameter acquisition module, the data processing and analysis module and the intelligent control module, supporting at least one of wired and wireless communication methods; the wireless communication method includes Wi-Fi, ZigBee or Bluetooth; User interaction module: Connected to the data processing and analysis module, it is used to display real-time environmental parameter data, historical environmental parameter data curves, and environmental control records in the sheepfold to the user; at the same time, it allows the user to manually input preset ranges of environmental parameters and manually control environmental equipment.

[0008] Furthermore, the sensors in the environmental parameter acquisition module are arranged in a distributed manner, with a set of sensors set at the entrance, middle and exit of the sheepfold, and sensors also set at different heights inside the sheepfold, so as to comprehensively acquire environmental parameters in different areas and at different heights inside the sheepfold.

[0009] Furthermore, the data processing and analysis module also includes a data storage unit for storing collected environmental parameter data, processing and analysis results, and environmental control records. The storage method is classified and stored in chronological order, and it supports quick retrieval and querying by date, parameter type, and other conditions. The data processing and analysis module also includes an environmental prediction unit, which uses machine learning algorithms (such as time series analysis, regression models or neural networks) to predict the changing trend of sheepfold environmental parameters over a future period based on historical environmental parameter data and real-time data. The intelligent control module starts or adjusts the operation of environmental equipment in advance according to the prediction results, for example, starting the cooling equipment in advance before the temperature is predicted to rise, or increasing ventilation before the ammonia concentration accumulates, so as to achieve forward-looking control.

[0010] Furthermore, after receiving the control command from the data processing and analysis module, the intelligent control module first detects the current operating status of the environmental equipment. If the environmental equipment is in a fault state, it issues a fault alarm and notifies the user through the user interaction module, while recording the time of the fault, the equipment type, and the fault phenomenon.

[0011] Furthermore, the user interaction module includes a display unit and an input unit. The display unit is an LCD screen or a touch screen, used to intuitively display various data and information, and has a multi-page switching function, which can display different content such as real-time data, historical data, and device status. The input unit is a button or touch operation area, which facilitates users to set parameters and control devices.

[0012] Furthermore, it also includes a remote monitoring module, which is connected to the data processing and analysis module via the Internet. Users can remotely access the system via mobile terminal or computer to view the environmental parameters and equipment operating status in the sheepfold, and perform remote control and parameter adjustment. The remote monitoring module has data encryption function to ensure the security of data transmission. The remote monitoring module also has an access control function, allowing different users to perform different operations based on their access levels. Ordinary users can only view data, while advanced users can perform parameter settings and device control operations.

[0013] Furthermore, the intelligent control module has an intelligent learning function, which can automatically optimize the control strategy based on historical environmental parameter data and control records. For example, it can adjust the preset range of environmental parameters and the timing of control according to the environmental needs of different seasons and different growth stages of sheep.

[0014] Furthermore, the sensors in the environmental parameter acquisition module have a self-calibration function, which automatically calibrates the measurement accuracy of the sensors periodically to ensure that the collected environmental parameter data is accurate and reliable, and promptly issues an alarm message when the sensor's measurement deviation exceeds the allowable range.

[0015] Furthermore, it also includes an alarm module. When the environmental parameters in the sheepfold exceed the preset safety range and the intelligent control module cannot control them in a timely and effective manner, or when the environmental equipment malfunctions, the alarm module will send an emergency alarm message to the user through sound, text message, or other means to remind the user to deal with it in time.

[0016] Furthermore, it also includes a health status analysis module, which is connected to the environmental parameter acquisition module and external health monitoring devices (such as cameras, scales, and feed intake sensors) to collect sheep behavior and health data; the data processing and analysis module uses multimodal data fusion technology to analyze the correlation between environmental parameters and sheep health status, and automatically adjusts the preset range and control strategy of environmental parameters. For example, when it detects that sheep activity has decreased or feed intake has decreased, it optimizes temperature, humidity and ventilation parameters to improve comfort.

[0017] Compared with existing technologies, the present invention provides an intelligent control system for monitoring environmental parameters in sheep sheds, which has the following beneficial effects: 1. This intelligent control system for monitoring environmental parameters inside sheep sheds uses various types of sensors distributed across different locations and heights within the shed to collect real-time and accurate data on multiple environmental parameters, including temperature, humidity, ammonia concentration, carbon dioxide concentration, and light intensity. This comprehensive monitoring method accurately reflects the environmental conditions in different areas and at different heights within the sheep shed, avoiding the inaccuracy caused by single monitoring points. For example, by placing sensors at the entrance, middle, and exit of the sheep shed, as well as at different heights, changes in the local environment can be detected promptly, providing a reliable basis for subsequent precise control.

[0018] 2. This intelligent control system for monitoring environmental parameters inside sheep pens features a data processing and analysis module that can thoroughly process and analyze collected environmental parameter data. Based on preset suitable environmental parameter ranges, it accurately determines whether the current sheep pen environment is suitable for sheep growth and identifies the environmental parameters requiring adjustment and the corresponding control direction. The intelligent control module then automatically and precisely controls the ventilation, heating, cooling, humidification, dehumidification, and lighting equipment in the sheep pen based on the analysis results. For example, when the temperature exceeds a preset upper limit, the system automatically activates cooling and ventilation equipment to quickly lower the temperature inside the sheep pen; when the ammonia concentration exceeds a preset upper limit, it promptly activates ventilation equipment to improve air quality. This intelligent control method can promptly and effectively improve the sheep pen environment, creating a suitable growth environment for sheep and improving their growth rate and health.

[0019] 3. This intelligent control system for monitoring environmental parameters within sheep pens features a learning module that automatically optimizes control strategies based on historical environmental parameter data and control records. The system dynamically adjusts preset ranges and timing of environmental parameters according to the environmental needs of different seasons and sheep growth stages. For example, during the hot summer months, the system automatically lowers the preset upper limit of temperature and activates cooling equipment in advance; during the fattening stage, ventilation and lighting parameters are adjusted based on the specific environmental needs of the sheep to improve feed conversion rate and farming efficiency. This intelligent learning function enables the system to continuously adapt to changes in the sheep pen environment and the growth needs of the sheep, improving the accuracy and effectiveness of control.

[0020] 4. This intelligent control system for monitoring environmental parameters in sheep sheds features an intuitive and user-friendly interface. Farmers can easily view real-time environmental parameter data, historical data curves, and environmental control records via an LCD screen or touchscreen. It also allows users to manually input preset ranges for environmental parameters and manually control environmental equipment, meeting the personalized needs of different farming scenarios. Furthermore, the system includes a remote monitoring module, allowing users to access the system anytime, anywhere via mobile devices or computers to view environmental parameters and equipment operating status, and to remotely control and adjust parameters. The remote monitoring module features data encryption to ensure data transmission security. This convenient user interaction and remote management functionality significantly improves the efficiency and convenience of farming management, reducing the workload of farmers.

[0021] 5. This intelligent control system for monitoring environmental parameters inside sheep sheds uses an environmental prediction unit based on machine learning algorithms to predict future environmental changes, enabling proactive control and avoiding drastic fluctuations in environmental parameters. This improves the timeliness and energy efficiency of control. For example, activating cooling equipment before the temperature rises reduces the risk of heat stress in sheep and also lowers the energy consumption of the equipment.

[0022] 6. This intelligent control system for monitoring environmental parameters in sheep sheds integrates environmental and sheep health data through a health status analysis module, establishes a multimodal correlation model, and enables the system to dynamically adjust environmental parameters according to the actual needs of sheep. This not only improves the health level and growth efficiency of sheep, but also provides data support for precision farming. Attached Figure Description

[0023] Figure 1 This is a system block diagram of an intelligent control system for monitoring environmental parameters inside a sheepfold, according to the present invention. Figure 2 This is a system human-computer interaction and extended function block diagram of an intelligent control system for monitoring environmental parameters in a sheepfold according to the present invention. Figure 3 This is a block diagram of the health status analysis module of an intelligent control system for monitoring environmental parameters inside a sheepfold, according to the present invention. Detailed Implementation

[0024] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0025] Please see Figures 1 to 3 This embodiment of an intelligent control system for monitoring environmental parameters inside a sheepfold includes: Environmental parameter acquisition module: Set up in different locations inside the sheepfold, it is used to collect various environmental parameters in the sheepfold in real time, including temperature, humidity, ammonia concentration, carbon dioxide concentration and light intensity. The environmental parameter acquisition module contains multiple different types of sensors, namely temperature sensor, humidity sensor, ammonia sensor, carbon dioxide sensor and light sensor. Each sensor converts the collected analog signals into digital signals and then transmits them. Data processing and analysis module: Communicates with the environmental parameter acquisition module to receive digital signals transmitted by the environmental parameter acquisition module, processes and analyzes the received environmental parameter data, including data filtering and noise reduction, outlier removal, and determines whether the current sheepfold environment is suitable for sheep growth based on the preset suitable range of environmental parameters; if there are unsuitable environmental parameters, it determines the environmental parameters that need to be adjusted and the corresponding adjustment direction. Intelligent control module: Communicates with the data processing and analysis module, and controls the environmental equipment in the sheepfold based on the judgment results and control commands from the data processing and analysis module. The environmental equipment includes ventilation equipment, heating equipment, cooling equipment, humidification equipment, dehumidification equipment, and lighting equipment. When the temperature exceeds the preset upper limit, the cooling and ventilation equipment are activated; when the temperature falls below the preset lower limit, the heating equipment is activated; when the humidity exceeds the preset upper limit, the dehumidification and ventilation equipment are activated; when the humidity falls below the preset lower limit, the humidification equipment is activated; when the ammonia or carbon dioxide concentration exceeds the preset upper limit, the ventilation equipment is activated; when the light intensity falls below the preset lower limit, the lighting equipment is activated. Communication module: Used to realize data transmission between the environmental parameter acquisition module, data processing and analysis module and intelligent control module, supporting at least one of wired and wireless communication methods; wireless communication methods include Wi-Fi, ZigBee or Bluetooth; User interaction module: Connected to the data processing and analysis module, it is used to display real-time environmental parameter data, historical environmental parameter data curves, and environmental control records in the sheepfold to users; at the same time, it allows users to manually input preset ranges of environmental parameters and manually control environmental equipment.

[0026] Specifically, the sensors in the environmental parameter acquisition module are distributed, with a set of sensors set at the entrance, middle and exit of the sheepfold, and sensors also set at different heights inside the sheepfold to comprehensively acquire environmental parameters in different areas and at different heights inside the sheepfold.

[0027] Specifically, the data processing and analysis module also includes a data storage unit for storing collected environmental parameter data, processing and analysis results, and environmental control records. The storage method is to classify and store data in chronological order, and it supports quick retrieval and querying based on conditions such as date and parameter type.

[0028] Specifically, the data processing and analysis module also includes an environmental prediction unit. This unit uses collected historical environmental parameter data (such as temperature, humidity, and ammonia concentration) and real-time data to train a machine learning model, predicting changes in environmental parameters over the next 1-24 hours. For example, in the summer afternoon, if the system predicts a rapid temperature rise, it will activate cooling and ventilation equipment in advance to prevent temperatures from exceeding limits. At night, based on predicted ammonia concentration trends, it will adjust ventilation strategies in advance to reduce the accumulation of harmful gases. This predictive control not only improves environmental stability but also reduces energy consumption from frequent equipment start-ups and shutdowns.

[0029] Specifically, after receiving the control instructions from the data processing and analysis module, the intelligent control module first detects the current operating status of the environmental equipment. If the environmental equipment is in a fault state, it issues a fault alarm and notifies the user through the user interaction module. At the same time, it records the time of the fault, the equipment type, and the fault phenomenon.

[0030] Specifically, the user interaction module includes a display unit and an input unit. The display unit is an LCD screen or a touch screen, used to intuitively display various data and information, and has a multi-page switching function, which can display different content such as real-time data, historical data, and device status. The input unit is a button or touch operation area, which facilitates users to set parameters and control devices.

[0031] This embodiment also includes a remote monitoring module, which is connected to the data processing and analysis module via the Internet. Users can remotely access the system via mobile terminal or computer to view environmental parameters and equipment operating status in the sheepfold, and perform remote control and parameter adjustment. The remote monitoring module has data encryption function to ensure the security of data transmission.

[0032] Specifically, the remote monitoring module also has an access control function, allowing different users to perform different operations based on their access levels. Ordinary users can only view data, while advanced users can perform parameter settings and device control operations.

[0033] Specifically, the intelligent control module has an intelligent learning function, which can automatically optimize the control strategy based on historical environmental parameter data and control records. For example, it can adjust the preset range of environmental parameters and the timing of control according to the environmental needs of different seasons and different growth stages of sheep.

[0034] Specifically, the sensors in the environmental parameter acquisition module have a self-calibration function, which automatically calibrates the measurement accuracy of the sensors periodically to ensure that the collected environmental parameter data is accurate and reliable, and promptly issues an alarm message when the sensor measurement deviation exceeds the allowable range.

[0035] In this embodiment, an alarm module is also included. When the environmental parameters in the sheepfold exceed the preset safety range and the intelligent control module cannot control them in a timely and effective manner, or when the environmental equipment malfunctions, the alarm module sends an emergency alarm message to the user through sound, text message, or other means to remind the user to handle the situation in a timely manner.

[0036] This embodiment also includes a health status analysis module. This module captures images of sheep activity via cameras and analyzes sheep behavior (such as lying down, standing, and feeding frequency) using image recognition technology. It also combines data from feed intake sensors and weight monitoring devices to comprehensively assess the sheep's health status. The data processing and analysis module uses data fusion algorithms (such as Kalman filtering or deep learning models) to establish a correlation model between environmental parameters and health indicators. For example, when the system detects a decrease in sheep feed intake and high ammonia concentration, it automatically increases ventilation and adjusts the temperature. During the sheep fattening stage, it dynamically adjusts lighting and ventilation strategies based on weight gain data to improve feed conversion rate. This intelligent regulation based on health status effectively improves the sheep's production performance and welfare.

[0037] It should be noted that, in this document, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such a process, method, article, or apparatus. Without further limitation, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the process, method, article, or apparatus that includes said element.

[0038] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An intelligent control system for monitoring environmental parameters inside a sheepfold, characterized in that, include: Environmental parameter acquisition module: Set in different locations within the sheepfold, it is used to collect various environmental parameters in the sheepfold in real time, including temperature, humidity, ammonia concentration, carbon dioxide concentration, and light intensity. The environmental parameter acquisition module contains multiple different types of sensors, namely temperature sensor, humidity sensor, ammonia sensor, carbon dioxide sensor, and light intensity sensor. Each sensor converts the collected analog signals into digital signals for transmission. Data processing and analysis module: Communicatively connected to the environmental parameter acquisition module, used to receive digital signals transmitted by the environmental parameter acquisition module, process and analyze the received environmental parameter data, including data filtering and noise reduction, outlier removal, and determine whether the current sheepfold environment is suitable for sheep growth based on the preset suitable range of environmental parameters; if there are unsuitable environmental parameters, determine the environmental parameters that need to be adjusted and the corresponding adjustment direction; Intelligent control module: Communicatively connected to the data processing and analysis module, it controls the environmental equipment within the sheepfold based on the judgment results and control commands of the data processing and analysis module. The environmental equipment includes ventilation equipment, heating equipment, cooling equipment, humidification equipment, dehumidification equipment, and lighting equipment. When the temperature exceeds a preset upper limit, the cooling and ventilation equipment are activated; when the temperature falls below a preset lower limit, the heating equipment is activated; when the humidity exceeds a preset upper limit, the dehumidification and ventilation equipment are activated; when the humidity falls below a preset lower limit, the humidification equipment is activated; when the ammonia or carbon dioxide concentration exceeds a preset upper limit, the ventilation equipment is activated. The lighting equipment will be activated when the light intensity is below the preset lower limit. Communication module: used to realize data transmission between the environmental parameter acquisition module, the data processing and analysis module and the intelligent control module, supporting at least one of wired and wireless communication methods; the wireless communication method includes Wi-Fi, ZigBee or Bluetooth; User interaction module: Connected to the data processing and analysis module, it is used to display real-time environmental parameter data, historical environmental parameter data curves, and environmental control records in the sheepfold to the user; at the same time, it allows the user to manually input preset ranges of environmental parameters and manually control environmental equipment.

2. The intelligent control system for monitoring environmental parameters inside a sheepfold according to claim 1, characterized in that: The sensors in the environmental parameter acquisition module are distributed, with a set of sensors set at the entrance, middle and exit of the sheepfold, and sensors also set at different heights inside the sheepfold to comprehensively acquire environmental parameters in different areas and at different heights inside the sheepfold.

3. The intelligent control system for monitoring environmental parameters inside a sheepfold according to claim 1, characterized in that: The data processing and analysis module also includes a data storage unit for storing collected environmental parameter data, processing and analysis results, and environmental control records. The storage method is classified and stored in chronological order, and supports quick retrieval and querying by date, parameter type, and other conditions. The data processing and analysis module also includes an environmental prediction unit, which uses machine learning algorithms to predict future trends in environmental parameter changes based on historical and real-time environmental parameter data; the intelligent control module adjusts the operation of environmental equipment in advance according to the prediction results.

4. The intelligent control system for monitoring environmental parameters in a sheepfold according to claim 1, characterized in that: After receiving the control command from the data processing and analysis module, the intelligent control module first detects the current operating status of the environmental equipment. If the environmental equipment is in a fault state, it issues a fault alarm and notifies the user through the user interaction module. At the same time, it records the time of the fault, the equipment type, and the fault phenomenon.

5. The intelligent control system for monitoring environmental parameters inside a sheepfold according to claim 1, characterized in that: The user interaction module includes a display unit and an input unit. The display unit is an LCD screen or a touch screen, used to intuitively display various data and information, and has a multi-page switching function, which can display different content such as real-time data, historical data, and device status. The input unit is a button or touch operation area, which facilitates users to set parameters and control devices.

6. The intelligent control system for monitoring environmental parameters inside a sheepfold according to claim 1, characterized in that: It also includes a remote monitoring module, which is connected to the data processing and analysis module via the Internet. Users can remotely access the system via mobile terminal or computer to view the environmental parameters and equipment operating status in the sheepfold, and remotely control and adjust the parameters. The remote monitoring module has data encryption function to ensure the security of data transmission. The remote monitoring module also has an access control function, allowing different users to perform different operations based on their access levels. Ordinary users can only view data, while advanced users can perform parameter settings and device control operations.

7. The intelligent control system for monitoring environmental parameters inside a sheepfold according to claim 1, characterized in that: The intelligent control module has an intelligent learning function, which can automatically optimize the control strategy based on historical environmental parameter data and control records. For example, it can adjust the preset range of environmental parameters and the timing of control according to the environmental needs of different seasons and different growth stages of sheep.

8. The intelligent control system for monitoring environmental parameters in a sheepfold according to claim 1, characterized in that: The sensors in the environmental parameter acquisition module have a self-calibration function, which automatically calibrates the measurement accuracy of the sensors periodically to ensure that the collected environmental parameter data is accurate and reliable. Furthermore, when the sensor's measurement deviation exceeds the allowable range, it will promptly issue an alarm message.

9. The intelligent control system for monitoring environmental parameters inside a sheepfold according to claim 1, characterized in that: It also includes an alarm module. When the environmental parameters in the sheepfold exceed the preset safety range and the intelligent control module cannot control them in a timely and effective manner, or when the environmental equipment malfunctions, the alarm module will send an emergency alarm message to the user through sound, text message and other means to remind the user to deal with it in time.

10. The intelligent control system for monitoring environmental parameters in a sheepfold according to claim 1, characterized in that: It also includes a health status analysis module for collecting sheep behavior and health data; the data processing and analysis module uses multimodal data fusion technology to analyze the correlation between environmental parameters and sheep health status, and automatically adjusts the preset range and control strategy of environmental parameters.

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