A control method and system for a radiant fresh air conditioning system

Abstract

The present application discloses a control method and system for a radiation fresh air air conditioning system, which relates to the field of radiation fresh air air conditioning system control. The method and system comprise an environment detection module, a preliminary analysis module and an adjustment control module. The method detects indoor environment information and outdoor environment information, and comprehensively analyzes the information difference between the indoor environment information and the outdoor environment information to obtain an adjustment difficulty coefficient corresponding to a target indoor area, thereby providing a data basis for subsequent adjustment control and indirectly improving the accuracy and effectiveness of air conditioning control adjustment selection. The method comprehensively analyzes the energy consumption values ​​and noise influence coefficients corresponding to the fresh air control components and the radiation control components, and intelligently selects the air conditioning control adjustment mode. The method saves energy consumption and reduces the influence of noise as much as possible while meeting the adjustment requirements, thereby helping to ensure the normal use needs of indoor users and the healthy development of air conditioning technology.

Description

Technical Field

[0001] The present application relates to the field of radiation fresh air air conditioning system control, and in particular to a control method and system for a radiation fresh air air conditioning system. Background Art

[0002] With the development of science and technology, people's living standards are improving day by day. More and more indoor places are equipped with air conditioners. Air conditioning technology has also ushered in a great development, reflecting a large number of different types of air conditioning systems. For example, the radiation air conditioning system has the advantages of temperature regulation, the fresh air air conditioning system has the advantages of air circulation and humidity regulation, etc. More and more air conditioners will use different air conditioning technologies at the same time to solve different practical problems. The existing technology still has the following shortcomings;

[0003] The existing technology usually lacks a specific analysis of the indoor and outdoor environments when controlling and adjusting the radiation fresh air air conditioning system. The difference between the indoor and outdoor environments will affect the indoor environment adjustment time and the actual power consumption, which indirectly reduces the accuracy and effectiveness of the control of the radiation fresh air air conditioning system.

[0004] When controlling and adjusting the radiant fresh air air-conditioning system, the existing technology often only considers the adjustment speed, lacks the joint impact of energy consumption and noise during adjustment, which is not conducive to saving resources and the user experience of indoor users, and is not conducive to ensuring the healthy development of air-conditioning technology. Summary of the invention

[0005] The object of the present invention is to provide a control system for a radiant fresh air air conditioning system to solve the problems raised in the above-mentioned background technology.

[0006] To achieve the above object, the present invention provides the following technical solution: a control system for a radiant fresh air air conditioning system, comprising:

[0007] Environmental detection module: used to monitor indoor and outdoor environments and obtain indoor and outdoor environmental information;

[0008] Preliminary analysis module: used to perform data analysis based on indoor and outdoor environmental information to obtain the corresponding control task set of the air-conditioning system;

[0009] Adjustment control module: used to analyze the control task set corresponding to the air-conditioning system and obtain the control response set corresponding to the air-conditioning system.

[0010] In the preferred embodiment of this scheme, the specific implementation method of the environment detection module is as follows:

[0011] The outdoor environment information is obtained by real-time monitoring through the temperature sensor and humidity sensor installed outdoors, wherein the outdoor environment information includes the outdoor temperature and the outdoor humidity;

[0012] Real-time monitoring is performed through environmental sensors installed indoors to obtain indoor environmental information, where the indoor environmental information includes indoor temperature, indoor humidity, and indoor air quality parameter sets, where the indoor air quality parameter sets include harmful gas content, carbon dioxide content, oxygen content, and microbial content.

[0013] In the preferred embodiment of this scheme, the specific implementation method of the preliminary analysis module is as follows:

[0014] Establishing a data extraction relationship between the preliminary analysis module and the database, extracting a standard data set corresponding to each usage function stored in the database, wherein the standard data set includes a standard indoor temperature, a standard indoor humidity, a standard indoor air quality parameter set, and a standard microbial content;

[0015] Obtain the usage function corresponding to the target indoor area, filter and obtain the standard data set corresponding to the target indoor area; calculate the formula , calculate the adjustment difficulty coefficient corresponding to the target indoor area ,in , , , They are respectively represented as outdoor temperature, indoor temperature, outdoor humidity and indoor humidity. By performing difference calculation between the standard indoor temperature, standard indoor humidity, standard indoor air quality parameter set and standard microbial content in the standard data set corresponding to the target indoor area and the indoor temperature, indoor humidity, harmful gas content, carbon dioxide content, oxygen content and microbial content corresponding to the indoor environment information, the temperature difference to be controlled, the humidity difference to be controlled, the harmful gas content difference to be controlled, the carbon dioxide content difference to be controlled, the oxygen content difference to be controlled and the microbial content difference to be controlled corresponding to the target indoor area are obtained;

[0016] The humidity difference to be controlled, the harmful gas content difference to be controlled, the carbon dioxide content difference to be controlled, the oxygen content difference to be controlled, and the microbial content difference to be controlled corresponding to the target indoor area are recorded as the target control task of the fresh air control component of the air conditioning system, and the temperature difference to be controlled corresponding to the target indoor area is recorded as the target control task of the radiation control component of the air conditioning system;

[0017] The adjustment difficulty coefficient corresponding to the target indoor area, the target control task of the fresh air control component of the air-conditioning system, and the target control task of the radiation control component are recorded as the corresponding control task set of the air-conditioning system.

[0018] In a preferred embodiment of the present invention, the specific implementation method of the adjustment control module is as follows:

[0019] Establish a data extraction relationship between the adjustment control module and the database, extract the control response sets corresponding to various target control tasks of the fresh air control component and the control response sets corresponding to various target control tasks of the radiation control component stored in the database, and obtain the control response sets corresponding to the fresh air control component and the radiation control component according to the target control tasks of the fresh air control component and the target control tasks of the radiation control component of the air-conditioning system;

[0020] The control response set includes the curves of each working power changing with working time;

[0021] By calculating the formula , calculate and obtain the energy consumption value corresponding to the curve of each working power change with working time of the fresh air control component ; By calculating the formula , calculate and obtain the energy consumption value corresponding to the curve of each working power and working time of the radiation control component ,in , They are respectively expressed as the curve equation of the fresh air control component corresponding to the curve of each working power changing with the working time and the curve equation of the radiation control component corresponding to the curve of each working power changing with the working time, , It is represented by the start working time and end working time of each working power variation curve of the fresh air control component. , It is expressed as the starting working time and ending working time of each working power variation curve of the radiation control component. It is represented by the number of the curve of each working power changing with working time corresponding to the fresh air control component. The number of each working power variation curve corresponding to the radiation control component with the working time; obtain the noise loudness variation curve corresponding to the fresh air control component with the working power variation curve, obtain the noise loudness variation curve corresponding to the radiation control component with the working power variation curve, and analyze the data of each working power variation curve corresponding to the fresh air control component with the noise loudness variation curve corresponding to the fresh air control component with the working power variation curve to obtain the noise loudness variation curve corresponding to each working power variation curve with the working time of the fresh air control component, and analyze the data of each working power variation curve corresponding to the radiation control component with the noise loudness variation curve corresponding to the radiation control component with the working power variation curve to obtain the noise loudness variation curve corresponding to each working power variation curve with the working time of the radiation control component; extract information from the noise loudness variation curve corresponding to each working power variation curve with the working time of the fresh air control component to obtain the noise loudness peak value corresponding to each working power variation curve with the working time , average noise loudness and the average rate of change of noise loudness ; By extracting information from the noise loudness curve corresponding to each working power versus working time curve of the radiation control component, the noise loudness peak value corresponding to each working power versus working time curve is obtained , average noise loudness and the average rate of change of noise loudness ; By calculating the formula , calculate the noise impact coefficient of the fresh air control component corresponding to the curve of each working power changing with working time ; By calculating the formula , calculate the noise influence coefficient of the radiation control component corresponding to the curve of each working power changing with working time ; By calculating the formula , calculate and obtain the comprehensive efficiency coefficient of the fresh air control component corresponding to the curve of each working power changing with working time ; By calculating the formula , calculate and obtain the comprehensive efficiency coefficient of the radiation control component corresponding to the curve of each working power changing with working time ,in , It is expressed as the working time of each working power versus working time curve corresponding to the fresh air control component and the radiation control component, which is calculated from the start working time and the end working time corresponding to each working power versus working time curve; the comprehensive efficiency coefficient of each working power versus working time curve corresponding to the fresh air control component is screened to obtain the working power versus working time curve corresponding to the minimum comprehensive efficiency coefficient, and the working power versus working time curve corresponding to the minimum comprehensive efficiency coefficient is recorded as the working power control curve corresponding to the fresh air control component;

[0022] Screening the comprehensive efficiency coefficients of the radiation control components corresponding to the working power versus working time variation curves to obtain the working power versus working time variation curve corresponding to the minimum comprehensive efficiency coefficient, and recording the working power versus working time variation curve corresponding to the minimum comprehensive efficiency coefficient as the working power control curve corresponding to the radiation control component;

[0023] The working power control curve corresponding to the fresh air control component and the working power control curve corresponding to the radiation control component are recorded as the control response set corresponding to the air-conditioning system and executed by the air-conditioning system.

[0024] To achieve the above object, the present invention also provides the following technical solution: a control method for a radiant fresh air air conditioning system, comprising the following steps:

[0025] Monitor the indoor environment and the outdoor environment to obtain indoor environment information and outdoor environment information;

[0026] Perform data analysis based on indoor and outdoor environmental information to obtain a corresponding control task set for the air-conditioning system;

[0027] According to the control task set corresponding to the air-conditioning system, the control response set corresponding to the air-conditioning system is obtained.

[0028] Compared with the prior art, the present invention has the following beneficial effects:

[0029] The present invention detects indoor environmental information and outdoor environmental information, and comprehensively analyzes the information difference between the indoor environmental information and the outdoor environmental information to obtain the adjustment difficulty coefficient corresponding to the target indoor area, thereby providing a data basis for subsequent adjustment control and indirectly improving the accuracy and effectiveness of air conditioning control adjustment selection;

[0030] The present invention comprehensively analyzes the energy consumption values ​​and noise impact coefficients corresponding to the fresh air control components and the radiation control components, and intelligently selects the air conditioning control adjustment mode. It saves energy and reduces the impact of noise as much as possible while meeting the adjustment needs, which is beneficial to ensuring the normal use needs of indoor users and the healthy development of air conditioning technology. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] The present invention is further described using the accompanying drawings, but the embodiments in the accompanying drawings do not constitute any limitation to the present invention. A person skilled in the art can obtain other drawings based on the following drawings without creative work.

[0032] Figure 1 This is a schematic diagram of module connection according to an embodiment of the present invention.

[0033] Figure 2 It is a schematic diagram of the connection steps of an embodiment of the present invention. DETAILED DESCRIPTION

[0034] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0035] See also Figure 1 , the present invention provides a control system for a radiation fresh air air conditioning system, the system includes an environment detection module, a preliminary analysis module and an adjustment control module;

[0036] The environment detection module is connected to the preliminary analysis module, and the preliminary analysis module is connected to the regulation control module.

[0037] The environment detection module is used to monitor the indoor environment and the outdoor environment to obtain indoor environment information and outdoor environment information;

[0038] Furthermore, the specific implementation of the environment detection module is as follows:

[0039] The outdoor environment information is obtained by real-time monitoring through the temperature sensor and humidity sensor installed outdoors, wherein the outdoor environment information includes the outdoor temperature and the outdoor humidity;

[0040] Real-time monitoring is performed through environmental sensors installed indoors to obtain indoor environmental information, where the indoor environmental information includes indoor temperature, indoor humidity, and indoor air quality parameter sets, where the indoor air quality parameter sets include harmful gas content, carbon dioxide content, oxygen content, and microbial content.

[0041] The preliminary analysis module is used to perform data analysis based on indoor and outdoor environmental information to obtain the corresponding control task set of the air-conditioning system;

[0042] Furthermore, the specific execution method of the preliminary analysis module is as follows:

[0043] Establishing a data extraction relationship between the preliminary analysis module and the database, extracting a standard data set corresponding to each usage function stored in the database, wherein the standard data set includes a standard indoor temperature, a standard indoor humidity, a standard indoor air quality parameter set, and a standard microbial content;

[0044] Obtain the usage function corresponding to the target indoor area, filter and obtain the standard data set corresponding to the target indoor area; calculate the formula , calculate the adjustment difficulty coefficient corresponding to the target indoor area ,in , , , They are respectively represented as outdoor temperature, indoor temperature, outdoor humidity and indoor humidity. By performing difference calculation between the standard indoor temperature, standard indoor humidity, standard indoor air quality parameter set and standard microbial content in the standard data set corresponding to the target indoor area and the indoor temperature, indoor humidity, harmful gas content, carbon dioxide content, oxygen content and microbial content corresponding to the indoor environment information, the temperature difference to be controlled, the humidity difference to be controlled, the harmful gas content difference to be controlled, the carbon dioxide content difference to be controlled, the oxygen content difference to be controlled and the microbial content difference to be controlled corresponding to the target indoor area are obtained;

[0045] The humidity difference to be controlled, the harmful gas content difference to be controlled, the carbon dioxide content difference to be controlled, the oxygen content difference to be controlled, and the microbial content difference to be controlled corresponding to the target indoor area are recorded as the target control task of the fresh air control component of the air conditioning system, and the temperature difference to be controlled corresponding to the target indoor area is recorded as the target control task of the radiation control component of the air conditioning system;

[0046] The adjustment difficulty coefficient corresponding to the target indoor area, the target control task of the fresh air control component of the air-conditioning system, and the target control task of the radiation control component are recorded as the corresponding control task set of the air-conditioning system.

[0047] The regulating control module is used to analyze the control task set corresponding to the air-conditioning system and obtain the control response set corresponding to the air-conditioning system.

[0048] Furthermore, the specific implementation of the adjustment control module is as follows:

[0049] Establish a data extraction relationship between the adjustment control module and the database, extract the control response sets corresponding to various target control tasks of the fresh air control component and the control response sets corresponding to various target control tasks of the radiation control component stored in the database, and obtain the control response sets corresponding to the fresh air control component and the radiation control component according to the target control tasks of the fresh air control component and the target control tasks of the radiation control component of the air-conditioning system;

[0050] The control response set includes the curves of each working power changing with working time; through the calculation formula , calculate and obtain the energy consumption value corresponding to the curve of each working power change with working time of the fresh air control component ; By calculating the formula , calculate and obtain the energy consumption value corresponding to the curve of each working power and working time of the radiation control component ,in , They are respectively expressed as the curve equation of the fresh air control component corresponding to the curve of each working power changing with the working time and the curve equation of the radiation control component corresponding to the curve of each working power changing with the working time, , It is represented by the start working time and end working time of each working power variation curve of the fresh air control component. , It is expressed as the starting working time and ending working time of each working power variation curve of the radiation control component. It is represented by the number of the curve of each working power changing with working time corresponding to the fresh air control component. The number of each working power variation curve corresponding to the radiation control component with the working time; obtain the noise loudness variation curve corresponding to the fresh air control component with the working power variation curve, obtain the noise loudness variation curve corresponding to the radiation control component with the working power variation curve, and analyze the data of each working power variation curve corresponding to the fresh air control component with the noise loudness variation curve corresponding to the fresh air control component with the working power variation curve to obtain the noise loudness variation curve corresponding to each working power variation curve with the working time of the fresh air control component, and analyze the data of each working power variation curve corresponding to the radiation control component with the noise loudness variation curve corresponding to the radiation control component with the working power variation curve to obtain the noise loudness variation curve corresponding to each working power variation curve with the working time of the radiation control component; extract information from the noise loudness variation curve corresponding to each working power variation curve with the working time of the fresh air control component to obtain the noise loudness peak value corresponding to each working power variation curve with the working time , average noise loudness and the average rate of change of noise loudness ; By extracting information from the noise loudness curve corresponding to each working power versus working time curve of the radiation control component, the noise loudness peak value corresponding to each working power versus working time curve is obtained , average noise loudness and the average rate of change of noise loudness ; By calculating the formula , calculate the noise impact coefficient of the fresh air control component corresponding to the working power versus working time curve ; By calculating the formula , calculate the noise influence coefficient of the radiation control component corresponding to the curve of each working power changing with working time ; By calculating the formula , calculate and obtain the comprehensive efficiency coefficient of the fresh air control component corresponding to the curve of each working power changing with working time ; By calculating the formula , calculate and obtain the comprehensive efficiency coefficient of the radiation control component corresponding to the curve of each working power changing with working time ,in , It is expressed as the working time of each working power versus working time curve corresponding to the fresh air control component and the radiation control component, which is calculated from the start working time and the end working time corresponding to each working power versus working time curve; the comprehensive efficiency coefficient of each working power versus working time curve corresponding to the fresh air control component is screened to obtain the working power versus working time curve corresponding to the minimum comprehensive efficiency coefficient, and the working power versus working time curve corresponding to the minimum comprehensive efficiency coefficient is recorded as the working power control curve corresponding to the fresh air control component;

[0051] Screening the comprehensive efficiency coefficients of the radiation control components corresponding to the working power versus working time variation curves to obtain the working power versus working time variation curve corresponding to the minimum comprehensive efficiency coefficient, and recording the working power versus working time variation curve corresponding to the minimum comprehensive efficiency coefficient as the working power control curve corresponding to the radiation control component;

[0052] The working power control curve corresponding to the fresh air control component and the working power control curve corresponding to the radiation control component are recorded as the control response set corresponding to the air-conditioning system and executed by the air-conditioning system.

[0053] See also Figure 2 To achieve the above object, the present invention also provides the following technical solution: a control method for a radiation fresh air air conditioning system, comprising the following steps:

[0054] Monitor the indoor environment and the outdoor environment to obtain indoor environment information and outdoor environment information;

[0055] Perform data analysis based on indoor and outdoor environmental information to obtain a corresponding control task set for the air-conditioning system;

[0056] According to the control task set corresponding to the air-conditioning system, the control response set corresponding to the air-conditioning system is obtained.

[0057] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A control system for a radiant fresh air air conditioning system, characterized in that: include: Environmental detection module: used to monitor indoor and outdoor environments and obtain indoor and outdoor environmental information; Preliminary analysis module: used to perform data analysis based on indoor and outdoor environmental information to obtain the corresponding control task set of the air-conditioning system; The specific implementation method of the preliminary analysis module is as follows: Establishing a data extraction relationship between the preliminary analysis module and the database, extracting a standard data set corresponding to each usage function stored in the database, wherein the standard data set includes a standard indoor temperature, a standard indoor humidity, a standard indoor air quality parameter set, and a standard microbial content; Obtain the usage function corresponding to the target indoor area, and filter and obtain the standard data set corresponding to the target indoor area; By calculating the formula , calculate the adjustment difficulty coefficient corresponding to the target indoor area ,in , , , They are respectively represented as outdoor temperature, indoor temperature, outdoor humidity and indoor humidity. Expressed as a natural constant; By performing difference calculation between the standard indoor temperature, standard indoor humidity, standard indoor air quality parameter set and standard microbial content in the standard data set corresponding to the target indoor area and the indoor temperature, indoor humidity, harmful gas content, carbon dioxide content, oxygen content and microbial content corresponding to the indoor environment information, the temperature difference to be controlled, the humidity difference to be controlled, the harmful gas content difference to be controlled, the carbon dioxide content difference to be controlled, the oxygen content difference to be controlled and the microbial content difference to be controlled corresponding to the target indoor area are obtained; The humidity difference to be controlled, the harmful gas content difference to be controlled, the carbon dioxide content difference to be controlled, the oxygen content difference to be controlled, and the microbial content difference to be controlled corresponding to the target indoor area are recorded as the target control task of the fresh air control component of the air conditioning system, and the temperature difference to be controlled corresponding to the target indoor area is recorded as the target control task of the radiation control component of the air conditioning system; The adjustment difficulty coefficient corresponding to the target indoor area, the target control task of the fresh air control component of the air conditioning system, and the target control task of the radiation control component are recorded as the corresponding control task set of the air conditioning system; Adjustment control module: used to analyze the control task set corresponding to the air-conditioning system and obtain the control response set corresponding to the air-conditioning system.

2. The control system of a radiation fresh air air conditioning system according to claim 1, characterized in that: The specific implementation method of the environment detection module is as follows: The outdoor environment information is obtained by real-time monitoring through the temperature sensor and humidity sensor installed outdoors, wherein the outdoor environment information includes the outdoor temperature and the outdoor humidity; Real-time monitoring is performed through environmental sensors installed indoors to obtain indoor environmental information, where the indoor environmental information includes indoor temperature, indoor humidity, and indoor air quality parameter sets, where the indoor air quality parameter sets include harmful gas content, carbon dioxide content, oxygen content, and microbial content.

3. The control system of a radiation fresh air air conditioning system according to claim 1, characterized in that: The specific implementation method of the adjustment control module is as follows: Establish a data extraction relationship between the adjustment control module and the database, extract the control response sets corresponding to various target control tasks of the fresh air control component and the control response sets corresponding to various target control tasks of the radiation control component stored in the database, and obtain the control response sets corresponding to the fresh air control component and the radiation control component according to the target control tasks of the fresh air control component and the target control tasks of the radiation control component of the air-conditioning system; The control response set includes the curves of each working power changing with working time; through the calculation formula , calculate and obtain the energy consumption value corresponding to the curve of each working power change with working time of the fresh air control component ; By calculating the formula , calculate and obtain the energy consumption value corresponding to the curve of each working power and working time of the radiation control component ,in , They are respectively expressed as the curve equation of the fresh air control component corresponding to the curve of each working power changing with the working time and the curve equation of the radiation control component corresponding to the curve of each working power changing with the working time, , It is represented by the start working time and end working time of each working power variation curve of the fresh air control component. , It is expressed as the starting working time and ending working time of each working power variation curve of the radiation control component. It is represented by the number of the curve of each working power changing with working time corresponding to the fresh air control component. The number of each working power variation curve corresponding to the radiation control component with the working time; obtain the noise loudness variation curve corresponding to the fresh air control component with the working power variation curve, obtain the noise loudness variation curve corresponding to the radiation control component with the working power variation curve, and analyze the data of each working power variation curve corresponding to the fresh air control component with the noise loudness variation curve corresponding to the fresh air control component with the working power variation curve to obtain the noise loudness variation curve corresponding to each working power variation curve with the working time of the fresh air control component, and analyze the data of each working power variation curve corresponding to the radiation control component with the noise loudness variation curve corresponding to the radiation control component with the working power variation curve to obtain the noise loudness variation curve corresponding to each working power variation curve with the working time of the radiation control component; extract information from the noise loudness variation curve corresponding to each working power variation curve with the working time of the fresh air control component to obtain the noise loudness peak value corresponding to each working power variation curve with the working time , average noise loudness and the average rate of change of noise loudness ; By extracting information from the noise loudness variation curve corresponding to each working power variation curve of the radiation control component, the noise loudness peak value corresponding to each working power variation curve of the working time is obtained. , average noise loudness and the average rate of change of noise loudness ; By calculating the formula , calculate the noise impact coefficient of the fresh air control component corresponding to the curve of each working power changing with working time ; By calculating the formula , calculate the noise influence coefficient of the radiation control component corresponding to the curve of each working power changing with working time ; By calculating the formula , calculate and obtain the comprehensive efficiency coefficient of the fresh air control component corresponding to the curve of each working power changing with working time ; By calculating the formula , calculate and obtain the comprehensive efficiency coefficient of the radiation control component corresponding to the curve of each working power changing with working time ,in , It is expressed as the working time of each working power versus working time curve corresponding to the fresh air control component and the radiation control component, which is calculated from the start working time and the end working time corresponding to each working power versus working time curve; the comprehensive efficiency coefficient of each working power versus working time curve corresponding to the fresh air control component is screened to obtain the working power versus working time curve corresponding to the minimum comprehensive efficiency coefficient, and the working power versus working time curve corresponding to the minimum comprehensive efficiency coefficient is recorded as the working power control curve corresponding to the fresh air control component; Screening the comprehensive efficiency coefficients of the radiation control components corresponding to the working power versus working time variation curves to obtain the working power versus working time variation curve corresponding to the minimum comprehensive efficiency coefficient, and recording the working power versus working time variation curve corresponding to the minimum comprehensive efficiency coefficient as the working power control curve corresponding to the radiation control component; The working power control curve corresponding to the fresh air control component and the working power control curve corresponding to the radiation control component are recorded as the control response set corresponding to the air-conditioning system and executed by the air-conditioning system.

4. A control method for a radiant fresh air air conditioning system, applied to a control system of a radiant fresh air air conditioning system according to any one of claims 1 to 3, characterized in that: include: Monitor the indoor environment and the outdoor environment to obtain indoor environment information and outdoor environment information; Perform data analysis based on indoor and outdoor environmental information to obtain a corresponding control task set for the air-conditioning system; According to the control task set corresponding to the air-conditioning system, the control response set corresponding to the air-conditioning system is obtained.

Images