Intelligent window ventilation control system and method

Abstract

The invention discloses an intelligent window ventilation control system and method, and relates to the technical field of window control, window position coordinate data, plant position coordinate data and plant information data are input into an indoor three-dimensional model, current indoor environment data are collected and input into a processing end, calculation is carried out according to the current indoor environment data, and a ventilation control result is obtained. According to the intelligent control system, the window is accurately controlled to be opened and closed according to plant requirements, it is ensured that plants obtain proper illumination and humidity, healthy growth of the plants is promoted, meanwhile, the living comfort and humanistic care are remarkably improved, energy waste is reduced through intelligent control, the indoor environment is optimized, and the intelligent control system is suitable for popularization and application. In addition, the system indicates that indoor environment regulation and control enter a new intelligent stage, convenient and efficient life experience is brought to residents, and the home intelligent level and the living quality are integrally improved.

Description

Technical Field

[0001] The present invention relates to the technical field of window control, and in particular to an intelligent window ventilation control system and method. Background Art

[0002] With the rapid development of smart home technology, people's demand for living environment is no longer limited to basic living functions, but pays more attention to comfort and intelligence. The smart window ventilation control system is developed based on this demand background, aiming to achieve precise control of the indoor environment through intelligent means.

[0003] At present, the Chinese patent application number CN202311106353.5 discloses a control system and window for intelligent windows, including: a control terminal, which is installed indoors and can display the status data of the window and control the opening and closing of the window, a drive component, which is arranged at both ends of the window and can control the opening angle of the window through two sets of motors to achieve mirror opening. The present invention belongs to the field of intelligent window control technology, and the purpose of this invention is to solve the problem of limitations of the intelligent window system in the prior art. The technical effect achieved is: to realize the intelligence of doors and windows, so that doors and windows can autonomously operate the window opening settings for anti-theft, gas leakage, wind direction and wind volume, and automatic window closing when it rains, without human intervention, thereby improving the convenience of door and window control.

[0004] The above technology makes it difficult to independently control windows according to the placement of indoor plants and the needs of plants, lacks humanistic care, and affects the actual use effect. Summary of the invention

[0005] The technical problem solved by the present invention is that it is difficult in the prior art to independently control windows according to the placement of indoor plants and plant needs, and this lacks humanistic care, thus affecting actual use effects.

[0006] In order to solve the above technical problems, the present invention provides the following technical solutions: An intelligent window ventilation control system includes a data input module, a data acquisition module, a data processing module and a mechanical adjustment module: The data input module is used to input window position coordinate data, plant position coordinate data and plant information data into the indoor three-dimensional model; The data acquisition module is used to collect current indoor environment data and input it to the processing end; The data processing module is used to perform calculations based on the current indoor environment data to obtain window opening and closing data; The mechanical adjustment module is used to control the window according to the window opening and closing data.

[0007] Preferably, the data input module includes a coordinate information input unit and a plant information input unit; The coordinate information input unit is used to input the window position coordinate data and the plant position coordinate data into the indoor three-dimensional model, divide the indoor three-dimensional model into a plurality of regions based on the window position coordinate data and number them, obtain the region number data, and establish a first corresponding relationship between the plant position coordinate data, the window position coordinate data and the region number data in the region; The plant information input unit is used to input plant information data and establish a second corresponding relationship between the plant information data and plant position coordinate data, wherein the plant information data includes plant required light intensity data, plant required humidity data and plant required temperature data.

[0008] Preferably, the data acquisition module includes a light data acquisition unit and a humidity data acquisition unit; The illumination data acquisition unit is used to collect and obtain current indoor illumination intensity data; The humidity data acquisition unit is used to collect and obtain current indoor humidity data, and combine current indoor light intensity data and current indoor humidity data to output as current indoor environment data.

[0009] Preferably, the data processing module includes a light level adjustment unit, a humidity level adjustment unit and a data sorting and output unit; The light intensity adjustment unit is used to calculate the single-leaf shutter opening and closing data according to the light intensity data required by the plant and the current indoor light intensity data. The mathematical expression of the single-leaf shutter opening and closing data is: ; in, The opening and closing ratio of a single shutter. is the current indoor light intensity data, The light intensity data required by plants, is the light adjustment coefficient obtained based on historical experimental data.

[0010] Preferably, the humidity adjustment unit is used to establish an air flow model and calculate the overall opening and closing angle data, and the air flow model is: The air velocity is proportional to the window opening angle: ; in, is the air velocity, is the proportional coefficient of air velocity, and is the window opening angle; The moisture transfer rate is inversely proportional to the air velocity and path length: ; in, is the humidity transmission rate, is the humidity transfer coefficient, is the air flow path length.

[0011] Preferably, the humidity adjustment unit collects the distance between any two windows A and B in the indoor three-dimensional model and the window opening and closing angles, and calculates the corresponding air flow rate. The mathematical expression of the air flow rate is: ; ; in, is the air velocity of window A, is the air velocity of window B, is the current opening and closing angle of window A, is the current opening and closing angle of window B; The humidity change rate of window A and window B is: ; ; in, is the humidity change rate of window A, is the humidity change rate of window B, is the distance between window A and window B; The total humidity change rate is calculated according to the humidity change rate of window A and the humidity change rate of window B. The mathematical expression of the total humidity change rate is: ; in, is the total humidity change rate, is the weight factor of window A, is the weight factor of window B; The target humidity difference is calculated according to the plant required humidity data and the current indoor humidity data. The mathematical expression of the target humidity difference is: ; in, is the target humidity difference, For plants requiring humidity data, is the current indoor humidity data; Calculate the overall opening and closing angle data of window A and window B. The mathematical expression of the overall opening and closing angle data is: ; ; in, is the overall opening and closing angle data of window A, is the overall opening and closing angle data of window B.

[0012] Preferably, the data sorting and output unit is used to establish a third corresponding relationship between the window position coordinate data, the area number data, the overall opening and closing angle data and the single-leaf blind opening and closing data.

[0013] Preferably, the mechanical adjustment module includes a louver angle control unit and an overall angle control unit; The shutter angle control unit is used to obtain the opening and closing data of a single shutter and output it to the shutter control terminal corresponding to the window position coordinate data and the area number data.

[0014] Preferably, the overall angle control unit is used to obtain the overall opening and closing angle data and output it to the overall control terminal corresponding to the window position coordinate data and the area number data.

[0015] An intelligent window ventilation control method comprises the following steps: Step S1, inputting window position coordinate data, plant position coordinate data and plant information data into an indoor three-dimensional model; Step S2, collecting current indoor environment data and inputting it to the processing end; Step S3, performing calculations based on current indoor environment data to obtain window opening and closing data; Step S4, controlling the window according to the window opening and closing data.

[0016] Beneficial effects of the present invention: The present invention accurately controls the opening and closing of windows according to the needs of plants, ensuring that the plants obtain appropriate light and humidity, promoting their healthy growth, while significantly improving living comfort and humanistic care, reducing energy waste through intelligent control, optimizing the indoor environment, and improving energy efficiency and environmental protection levels. In addition, it marks that indoor environment control has entered a new intelligent stage, bringing convenient and efficient life experience to residents, and overall improving the level of home intelligence and living quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 A basic flow chart of an intelligent window ventilation control system provided by one embodiment of the present invention; Figure 2 A flowchart of the steps of an intelligent window ventilation control method provided for one embodiment of the present invention. DETAILED DESCRIPTION

[0018] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the specific implementation methods of the present invention are described in detail below in conjunction with the drawings. It is obvious that the described embodiments are only part of the embodiments of the present invention, but not all of the embodiments.

[0019] Embodiment 1, refer to Figure 1 , provides an intelligent window ventilation control system, including a data input module, a data acquisition module, a data processing module and a mechanical adjustment module: The data input module is used to input window position coordinate data, plant position coordinate data and plant information data into the indoor three-dimensional model.

[0020] The data acquisition module is used to collect the current indoor environment data and input it to the processing end.

[0021] The data processing module is used to calculate according to the current indoor environment data and obtain the window opening and closing data.

[0022] The mechanical adjustment module is used to control the window according to the window opening and closing data.

[0023] The data input module includes a coordinate information input unit and a plant information input unit.

[0024] The coordinate information input unit is used to input the window position coordinate data and the plant position coordinate data into the indoor three-dimensional model, divide the indoor three-dimensional model into several areas based on the window position coordinate data and number them, obtain the area number data, and establish the first correspondence between the plant position coordinate data, the window position coordinate data and the area number data in the area.

[0025] The coordinate information input unit accurately enters the position coordinates of windows and plants, providing key data for the construction of indoor three-dimensional models. It intelligently divides indoor areas based on window positions and numbers them to facilitate subsequent data management and regional control, establishes a corresponding relationship between windows, plants and areas, and provides a spatial basis for precise regulation.

[0026] The plant information input unit is used to input plant information data and establish a second corresponding relationship between the plant information data and the plant position coordinate data. The plant information data includes plant required light intensity data, plant required humidity data and plant required temperature data.

[0027] The plant information input unit comprehensively records the plant's light, humidity and temperature requirements, provides the system with key parameters for plant growth, establishes a correspondence between plant information and position coordinates, ensures that the system can accurately identify and respond to the specific needs of plants, and provides detailed plant demand data for subsequent data processing modules to support intelligent environmental control decisions.

[0028] The data input module effectively integrates the spatial information of the indoor environment and the specific needs of plants, providing a solid foundation for subsequent data processing and mechanical adjustment. Through the coordinated work of the coordinate information input unit and the plant information input unit, it is possible to fully understand the indoor layout and plant needs and realize intelligent environmental control.

[0029] The data acquisition module includes a light data acquisition unit and a humidity data acquisition unit.

[0030] The light data acquisition unit is used to collect and obtain the current indoor light intensity data.

[0031] The light data acquisition unit measures and collects the current indoor light intensity data in real time and accurately. The high-precision acquisition of light data helps the system to accurately judge the indoor lighting environment and provide suitable lighting conditions for plants. It supports continuous data collection and dynamic updating, ensuring that the system can respond to changes in the light environment in real time.

[0032] The humidity data acquisition unit is used to collect and obtain the current indoor humidity data, and combine the current indoor light intensity data and the current indoor humidity data to output as the current indoor environment data.

[0033] The humidity data acquisition unit measures and collects the current indoor humidity data in real time and accurately. The precise collection of humidity data helps the system evaluate the indoor humidity environment and ensure that plants grow under suitable humidity conditions. It works together with the light data acquisition unit to jointly output the current indoor environment data and provide comprehensive environmental perception capabilities.

[0034] The data acquisition module efficiently and accurately collects the current indoor light and humidity data, providing a real-time and reliable information basis for subsequent intelligent environmental control. Through the collaborative work of the light data acquisition unit and the humidity data acquisition unit, it can fully perceive the changes in the indoor environment and ensure the accuracy and timeliness of environmental control.

[0035] The data processing module includes a light level adjustment unit, a humidity level adjustment unit and a data sorting and output unit.

[0036] The light intensity adjustment unit is used to calculate the single-leaf shutter opening and closing data according to the light intensity data required by the plant and the current indoor light intensity data. The mathematical expression of the single-leaf shutter opening and closing data is: ; in, The opening and closing ratio of a single shutter. is the current indoor light intensity data, The light intensity data required by plants, is the light adjustment coefficient obtained based on historical experimental data.

[0037] The light intensity adjustment unit intelligently calculates and outputs the opening and closing data of a single blind based on the comparison between the light intensity required by the plants and the current indoor light intensity, accurately adjusts the opening and closing degree of the blinds, ensures that the plants obtain suitable light conditions and promotes photosynthesis while avoiding overexposure or insufficient light. It responds to changes in the light environment in real time, dynamically adjusts the opening and closing status of the blinds, and maintains the stability and suitability of the indoor lighting environment.

[0038] The humidity adjustment unit is used to establish an air flow model and calculate the overall opening and closing angle data. The air flow model is: The air velocity is proportional to the window opening angle: ; in, is the air velocity, is the proportional coefficient of air velocity, The window opening angle.

[0039] The moisture transfer rate is inversely proportional to the air velocity and path length: ; in, is the humidity transmission rate, is the humidity transfer coefficient, is the air flow path length.

[0040] The humidity adjustment unit collects the distance between any two windows A and B in the indoor three-dimensional model and the window opening angle, and calculates the corresponding air flow rate. The mathematical expression of the air flow rate is: ; ; in, is the air velocity of window A, is the air velocity of window B, is the current opening and closing angle of window A, is the current opening and closing angle of window B.

[0041] The humidity change rate of window A and window B is: ; ; Where, is the humidity change rate of window A, is the humidity change rate of window B, is the distance between window A and window B.

[0042] The total humidity change rate is calculated based on the humidity change rate of window A and the humidity change rate of window B. The mathematical expression of the total humidity change rate is: ; in, is the total humidity change rate, is the weight factor of window A, is the weight factor of window B.

[0043] The target humidity difference is calculated based on the plant required humidity data and the current indoor humidity data. The mathematical expression of the target humidity difference is: ; in, is the target humidity difference, is the humidity data required by the plant, It is the current indoor humidity data.

[0044] Calculate the overall opening and closing angle data of window A and window B. The mathematical expression of the overall opening and closing angle data is: ; ; in, is the overall opening and closing angle data of window A, is the overall opening and closing angle data of window B.

[0045] The humidity level adjustment unit uses an air flow model and comprehensively considers factors such as window opening and closing angles, air flow rate, path length and humidity transfer rate to accurately calculate and output the overall opening and closing angle data of the window. By collecting and analyzing the distance and opening and closing angles between windows in the indoor three-dimensional model, it accurately evaluates the impact of air flow on humidity distribution. According to the difference between the humidity required by the plants and the current indoor humidity, the window opening and closing angle is intelligently adjusted to achieve precise control of indoor humidity. By comprehensively considering the synergistic effect of multiple windows, the overall opening and closing angle is optimized to ensure the uniformity and stability of the indoor humidity environment.

[0046] The data sorting and output unit is used to establish a third corresponding relationship among the window position coordinate data, the area number data, the overall opening and closing angle data and the single shutter opening and closing data.

[0047] The data sorting and output unit establishes the correspondence between the window position coordinate data, area number data, overall opening and closing angle data, and single shutter opening and closing data, and provides clear and accurate instruction information for the mechanical adjustment module. It integrates and outputs all necessary control data to ensure that the mechanical adjustment module can accurately execute instructions and realize intelligent control of the indoor environment. It provides data backup and recovery functions to ensure the integrity and security of the control data.

[0048] The data processing module is the core of the intelligent window ventilation control system. Based on the real-time collected environmental data and plant needs, it uses complex algorithm calculations to accurately output window and blind adjustment instructions to achieve intelligent control of the indoor environment. This module not only improves the accuracy of environmental control, but also ensures that plants thrive in the best growth conditions.

[0049] The mechanical adjustment module includes a shutter angle control unit and an overall angle control unit.

[0050] The shutter angle control unit is used to obtain the opening and closing data of a single shutter and output it to the shutter control terminal corresponding to the window position coordinate data and the area number data.

[0051] The blinds angle control unit accurately receives and analyzes the opening and closing data of a single blind to ensure the accuracy and completeness of the data. It accurately identifies and locates the blinds that need to be adjusted based on the window position coordinate data and area number data, outputs the opening and closing data to the corresponding blinds control terminal, drives the blinds to perform precise opening and closing actions, and provides real-time feedback on the opening and closing status of the blinds, ensuring that the system can accurately sense and respond to the actual status of the blinds.

[0052] The overall angle control unit is used to obtain the overall opening and closing angle data and output it to the overall control terminal corresponding to the window position coordinate data and the area number data.

[0053] The overall angle control unit accurately receives and analyzes the overall opening and closing angle data to ensure the accuracy and completeness of the data. According to the window position coordinate data and area number data, it accurately identifies and locates the windows that need to be adjusted, and outputs the opening and closing data to the corresponding overall control end, driving the windows to perform precise overall opening and closing actions, and providing real-time feedback on the opening and closing status of the windows to ensure that the system can accurately perceive and respond to the actual status of the windows. By collaboratively controlling the opening and closing angles of multiple windows, it can achieve overall regulation of the indoor environment and ensure that plants thrive under optimal growth conditions.

[0054] The mechanical adjustment module is the actuator of the intelligent window ventilation control system. It accurately controls the shutters and overall opening and closing angles of the windows according to the precise instructions output by the data processing module, thereby realizing intelligent control of indoor light and humidity. The efficient operation of this module ensures the accurate execution of the control instructions and provides the best growth environment for plants.

[0055] This system can independently control the windows according to the light intensity, humidity and temperature data required by the plants, combined with the actual environmental data of the current room. By accurately calculating the opening and closing angles of the windows and the opening and closing degree of the blinds, the system can ensure that the plants obtain the required light and humidity conditions, thereby promoting the healthy growth of the plants. This system not only pays attention to the growth needs of the plants, but also reflects the humanistic care for the residents. Through intelligent regulation, the system can create a more comfortable and livable indoor environment. Residents can flexibly adjust the opening and closing status of the windows according to the placement and needs of the plants, which not only meets the growth needs of the plants, but also improves the quality and comfort of living. This system can accurately control the opening and closing of the windows according to actual needs, avoiding unnecessary energy waste. At the same time, by optimizing the indoor environment, the system can also improve the photosynthesis efficiency of plants and reduce indoor air pollution, thereby achieving energy-saving and environmental protection effects.

[0056] The introduction of this system marks a new stage of intelligent indoor environment control. By integrating multiple modules and advanced algorithms, the system can achieve comprehensive perception and intelligent control of the indoor environment, providing residents with a more convenient and efficient living experience.

[0057] Example 2, refer to Figure 2 , provides an intelligent window ventilation control method, comprising the following steps: Step S1, inputting window position coordinate data, plant position coordinate data and plant information data into an indoor three-dimensional model.

[0058] Step S2, collecting current indoor environment data and inputting it to the processing end.

[0059] Step S3, performing calculations based on current indoor environment data to obtain window opening and closing data.

[0060] Step S4, controlling the window according to the window opening and closing data.

[0061] By inputting the position coordinates of windows and plants and plant information data into the indoor three-dimensional model, combined with the real-time collected indoor environmental data, this method can accurately calculate the opening and closing needs of windows, and realize intelligent and refined regulation of indoor environmental factors such as light and humidity. This method dynamically adjusts the opening and closing status of windows according to the actual needs of plants and environmental changes, avoiding unnecessary energy waste and improving energy utilization efficiency. At the same time, it also reduces the adverse effects of excessive ventilation or insufficient light on plant growth. By accurately controlling the opening and closing of windows, this method provides plants with suitable light and humidity conditions, which helps promote the healthy growth of plants and improves the growth rate and quality of plants. This method not only pays attention to the growth needs of plants, but also improves the comfort and quality of life of residents by optimizing the indoor environment, creating a more livable indoor space. This method realizes the intelligence and automation of window control, reduces the frequency and difficulty of manual intervention, and improves management efficiency and convenience.

[0062] It should be understood by those skilled in the art that the embodiments of the present invention may be provided as methods, systems or computer program products. Therefore, the present invention may take the form of a complete hardware embodiment, a complete software embodiment or an embodiment combining software and hardware aspects. Moreover, the present invention may take the form of a computer program product implemented on one or more computer-usable storage media containing computer-usable program codes. Among them, the storage medium may be implemented by any type of volatile or non-volatile storage device or a combination thereof, such as static random access memory (Static Random Access Memory, referred to as SRAM), electrically erasable programmable read-only memory (Electrically Erasable Programmable Read-Only Memory, referred to as EEPROM), erasable programmable read-only memory (Erasable Programmable Read Only Memory, referred to as EPROM), programmable read-only memory (Programmable Read-Only Memory, referred to as PROM), read-only memory (Read-Only Memory, referred to as ROM), magnetic memory, flash memory, magnetic disk or optical disk. These computer program instructions may also be stored in a computer-readable memory capable of directing a computer or other programmable data processing device to operate in a specific manner, so that the instructions stored in the computer-readable memory produce an article of manufacture comprising an instruction device, which implements the process Figure 1 A process or multiple processes and / or boxes Figure 1 A function specified in one or more boxes.

[0063] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, which should all be included in the scope of the claims of the present invention.

Claims

1. An intelligent window ventilation control system, characterized in that: Including data input module, data acquisition module, data processing module and mechanical adjustment module: The data input module is used to input window position coordinate data, plant position coordinate data and plant information data into the indoor three-dimensional model; The data acquisition module is used to collect current indoor environment data and input it to the processing end; The data processing module is used to perform calculations based on the current indoor environment data to obtain window opening and closing data; The mechanical adjustment module is used to control the window according to the window opening and closing data.

2. An intelligent window ventilation control system as claimed in claim 1, characterized in that: The data input module includes a coordinate information input unit and a plant information input unit; The coordinate information input unit is used to input the window position coordinate data and the plant position coordinate data into the indoor three-dimensional model, divide the indoor three-dimensional model into a plurality of regions based on the window position coordinate data and number them, obtain the region number data, and establish a first corresponding relationship between the plant position coordinate data, the window position coordinate data and the region number data in the region; The plant information input unit is used to input plant information data and establish a second corresponding relationship between the plant information data and plant position coordinate data, wherein the plant information data includes plant required light intensity data, plant required humidity data and plant required temperature data.

3. An intelligent window ventilation control system as claimed in claim 2, characterized in that: The data acquisition module includes a light data acquisition unit and a humidity data acquisition unit; The illumination data acquisition unit is used to collect and obtain current indoor illumination intensity data; The humidity data acquisition unit is used to collect and obtain current indoor humidity data, and combine current indoor light intensity data and current indoor humidity data to output as current indoor environment data.

4. An intelligent window ventilation control system as claimed in claim 3, characterized in that: The data processing module includes a light level adjustment unit, a humidity level adjustment unit and a data sorting and output unit; The light intensity adjustment unit is used to calculate the single-leaf shutter opening and closing data according to the light intensity data required by the plant and the current indoor light intensity data. The mathematical expression of the single-leaf shutter opening and closing data is: ； in, The opening and closing ratio of a single shutter. is the current indoor light intensity data, The light intensity data required by plants, is the light adjustment coefficient obtained based on historical experimental data.

5. An intelligent window ventilation control system as claimed in claim 4, characterized in that: The humidity adjustment unit is used to establish an air flow model and calculate the overall opening and closing angle data. The air flow model is: The air velocity is proportional to the window opening angle: ； in, is the air velocity, is the proportional coefficient of air velocity, The window opening angle; The moisture transfer rate is inversely proportional to the air velocity and path length: ； in, is the humidity transmission rate, is the humidity transfer coefficient, is the air flow path length.

6. An intelligent window ventilation control system as claimed in claim 5, characterized in that: The humidity adjustment unit collects the distance between any two windows A and B in the indoor three-dimensional model and the window opening angle, and calculates the corresponding air flow rate. The mathematical expression of the air flow rate is: ； ； in, is the air velocity of window A, is the air velocity of window B, is the current opening and closing angle of window A, is the current opening and closing angle of window B; The humidity change rate of window A and window B is: ； ； in, is the humidity change rate of window A, is the humidity change rate of window B, is the distance between window A and window B; The total humidity change rate is calculated according to the humidity change rate of window A and the humidity change rate of window B. The mathematical expression of the total humidity change rate is: ； in, is the total humidity change rate, is the weight factor of window A, is the weight factor of window B; The target humidity difference is calculated according to the plant required humidity data and the current indoor humidity data. The mathematical expression of the target humidity difference is: ； in, is the target humidity difference, For plants requiring humidity data, is the current indoor humidity data; Calculate the overall opening and closing angle data of window A and window B. The mathematical expression of the overall opening and closing angle data is: ； ； in, is the overall opening and closing angle data of window A, is the overall opening and closing angle data of window B.

7. The intelligent window ventilation control system according to claim 5, characterized in that: The data sorting and output unit is used to establish a third corresponding relationship between the window position coordinate data, the area number data, the overall opening and closing angle data and the single-leaf blind opening and closing data.

8. An intelligent window ventilation control system as claimed in claim 7, characterized in that: The mechanical adjustment module includes a shutter angle control unit and an overall angle control unit; The shutter angle control unit is used to obtain the opening and closing data of a single shutter and output it to the shutter control terminal corresponding to the window position coordinate data and the area number data.

9. An intelligent window ventilation control system as claimed in claim 8, characterized in that: The overall angle control unit is used to obtain the overall opening and closing angle data and output it to the overall control terminal corresponding to the window position coordinate data and the area number data.

10. An intelligent window ventilation control method, applied to an intelligent window ventilation control system as claimed in any one of claims 1 to 9, characterized in that: The following steps are involved: Step S1, inputting window position coordinate data, plant position coordinate data and plant information data into an indoor three-dimensional model; Step S2, collecting current indoor environment data and inputting it to the processing end; Step S3, performing calculations based on current indoor environment data to obtain window opening and closing data; Step S4, controlling the window according to the window opening and closing data.

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