Microclimate self-adaptive system of efficient and energy-saving watertight and airtight window

Abstract

The invention discloses a microclimate adaptive system of a high-efficiency energy-saving watertight and airtight window, and relates to the technical field of microclimate regulation, the microclimate adaptive system comprises an environment monitoring module, the environment monitoring module comprises an environment monitoring unit and an environment analysis unit, the environment monitoring unit is used for monitoring indoor and outdoor temperature, humidity, illumination and wind speed data in real time, and the environment analysis unit is used for analyzing the indoor and outdoor temperature, humidity, illumination and wind speed data; the system has the advantages that detailed indoor and outdoor microclimate data are provided for a user by monitoring and analyzing microclimate parameters such as indoor and outdoor temperature, humidity, illumination and wind speed in real time, and the indoor and outdoor temperature, humidity, illumination, wind speed and the like are monitored and analyzed in real time; the energy-saving control module generates different levels of control instructions according to a preset standard environment interval, user preferences and future weather conditions, so that comfort and stability of indoor microclimate are ensured, and the health problem caused by microclimate fluctuation is prevented.

Description

Technical Field

[0001] The present invention relates to the technical field of microclimate regulation, and particularly to a microclimate adaptive system for highly energy-efficient, watertight and airtight windows. Background Art

[0002] With the rapid development of modern technology, people's requirements for living environments are getting higher and higher. Especially in terms of microclimate regulation, people increasingly focus on the comfort and stability of the indoor environment. However, traditional environmental regulation systems often lack real-time monitoring and analysis capabilities and cannot accurately adjust according to changes in indoor and outdoor environments and specific user needs, resulting in large fluctuations in indoor microclimate and prone to causing health problems. For this reason, we propose a microclimate adaptive system for highly energy-efficient, watertight and airtight windows. Summary of the Invention

[0003] The purpose of the present invention is to provide a microclimate adaptive system for highly energy-efficient, watertight and airtight windows.

[0004] To solve the problems raised in the above background art, the present invention provides the following technical solutions: A microclimate adaptive system for highly energy-efficient, watertight and airtight windows, including the following modules:

[0005] An environmental monitoring module, including an environmental monitoring unit and an environmental analysis unit. The environmental monitoring unit is used to real-time monitor the temperature, humidity, light and wind speed data inside and outside the room. The environmental analysis unit retrieves these data and calculates the temperature difference, humidity difference, light difference and wind speed difference between inside and outside the room.

[0006] An energy-saving control module, which presets a standard environmental range and has a hierarchical control function. According to the indoor and outdoor environmental data real-time monitored by the environmental monitoring module and the weather conditions in the next hour, it generates and sends a first-level control instruction. If the weather is stable in the next hour, according to the environmental range preferred by the user, it generates and sends a second-level control instruction. If the user does not set a preferred environmental range and the future weather is stable, it generates and sends a third-level control instruction.

[0007] An execution module, which is used to receive the control instructions from the energy-saving control module and control the environmental regulation equipment to execute the corresponding instructions. After the instructions are executed, it feeds back the instruction execution situation to the energy-saving control module. After the energy-saving control module recognizes that the environmental regulation is completed, it records the completion time and sends it to the energy consumption optimization module.

[0008] An energy consumption optimization module, which monitors the energy consumption situation of the environmental regulation equipment, records the energy consumption data of the environmental regulation equipment under different control instructions, and constructs a personal energy consumption plan library according to the recorded energy consumption data and the completion time sent by the energy-saving control module.

[0009] A user interaction module, which provides a visual interaction interface and allows users to set their preferred environmental range.

[0010] As a further solution of the present invention: the environmental monitoring module further includes an air quality monitoring unit and a noise monitoring unit. The air quality monitoring unit is used to monitor the air quality indoors, and the noise monitoring unit is used to monitor the indoor noise level in real time. When it is detected that the PM2.5 concentration exceeds the standard and the noise level is greater than 55 dB, the visual interaction interface triggers an air quality warning and a noise warning respectively, and feeds them back to the execution module to adjust the operation strategy of the environmental adjustment equipment.

[0011] As a further solution of the present invention: in the energy-saving control module, the standard environmental range is a temperature of 20°C - 26°C, a humidity of 40% - 60%, a light intensity of 100 lx - 300 lx, and a wind speed of 0.1 m / s - 0.3 m / s. The weather conditions for the next hour are obtained in real time by connecting to a weather forecast service system, and the weather forecast service system is a professional third-party weather forecast service provider.

[0012] As a further solution of the present invention: in the energy-saving control module, when it is obtained that there is bad weather in the next hour, a first-level control instruction is generated and sent. The first-level control instruction is to close the window. The second-level control instruction is to generate a control instruction for the environmental adjustment equipment to adjust the indoor environment according to the preferred environmental range set by the user through the user interaction module when the weather is stable in the next hour. The third-level instruction is to generate a control instruction for the environmental adjustment equipment to make the indoor environment reach and maintain within the preset standard environmental range when the user does not set a preferred environmental range and the future weather is stable.

[0013] As a further solution of the present invention: the execution module further includes a status monitoring unit. The status monitoring unit is used to monitor the operation status of the environmental adjustment unit in real time. The operation status includes the working status, working mode, working parameters of the equipment, and the fault status. When equipment anomalies and faults are detected, the status monitoring unit immediately generates and sends an alarm signal to the energy consumption optimization module and the user interaction module.

[0014] As a further solution of the present invention: after receiving the alarm signal, the energy consumption optimization module selects a solution that does not include the faulty equipment from the personal energy consumption solution library and transfers the solution to the energy-saving control module to regenerate the control instruction. After receiving the alarm signal, the user interaction module emits an alarm flash on the visual interaction interface and notifies the user by text message.

[0015] As a further solution of the present invention: the environmental adjustment equipment includes electric blinds, an air conditioner, and a humidifier. The electric blinds are used to adjust the indoor wind speed and light, the air conditioner is used to adjust the indoor temperature, and the humidifier is used to adjust the indoor humidity.

[0016] As a further solution of the present invention: the energy consumption optimization module further includes a solution scoring unit, which is used to score the solutions in the personal energy consumption solution library. The specific formula is as follows:

[0017]

[0018] Among them, S represents the solution score, E represents the total energy consumption of the solution, with the unit of kWh, T represents the solution completion time, with the unit of h, α and β respectively represent the weight coefficients of the total energy consumption and the completion time of the solution, α + β = 1, and α and β are initially set to 7:3.

[0019] As a further solution of the present invention: the user interaction module further includes a solution sharing unit, which allows users to upload their own energy consumption optimization solutions and is connected to the energy consumption optimization module. When the energy consumption optimization module identifies that the energy consumption of the energy consumption optimization solution in the solution sharing unit is lower than that of the solution in the personal energy consumption solution library under the same conditions, the energy consumption optimization module marks the identified solution. When the same environment is encountered next time, the user is informed by text message. If the user agrees to execute the marked solution, the actual energy consumption of the marked solution is recorded. If the actual energy consumption is lower than that of the solution in the personal energy consumption solution library, the energy consumption solution library is updated.

[0020] Adopting the above technical solutions, compared with the prior art, the beneficial effects of the present invention are as follows:

[0021] 1. The present invention provides detailed indoor and outdoor microclimate data for users by real-time monitoring and analyzing microclimate parameters such as indoor and outdoor temperature, humidity, light, and wind speed. Through the energy-saving control module, different levels of control instructions are generated based on the preset standard environmental range, user preferences, and future weather conditions, ensuring the comfort and stability of the indoor microclimate and preventing health problems caused by microclimate fluctuations;

[0022] 2. The present invention monitors the energy consumption of environmental control equipment through the energy consumption optimization module, constructs a personal energy consumption solution library, and scores and optimizes the solutions according to the actual operation effect, improving the energy-saving effect of the system. In addition, combined with the solution sharing unit of the user interaction module, it can further compare and absorb excellent energy consumption optimization solutions of other users, continuously update and improve the personal energy consumption solution library, and further improve the energy-saving effect of the system;

[0023] 3. The state monitoring unit in the execution module of the present invention monitors the operating state of the environmental conditioning equipment in real time. Once equipment anomalies and faults are detected, alarm signals can be immediately generated and sent to the energy consumption optimization module and the user interaction module. The energy consumption optimization module can quickly select a solution that does not involve faulty equipment and transmit it to the energy-saving control module to regenerate control instructions, ensuring the continuous operation of the environmental conditioning system. At the same time, the user interaction module alarms and notifies the user through visual interface flashing and text messages, facilitating the user to take timely measures to repair the equipment, avoiding environmental out-of-control and energy waste caused by equipment failures, and ensuring the stability and reliability of the entire system. Brief Description of the Drawings

[0024] Figure 1 It is a schematic flowchart of the microclimate adaptive system in the embodiment of the present invention. Detailed Embodiments

[0025] The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0026] Embodiment 1:

[0027] Please refer to the attached Figure 1 , the microclimate adaptive system of the highly energy-efficient, watertight and airtight window of the present invention includes the following modules:

[0028] The environmental monitoring module includes an environmental monitoring unit and an environmental analysis unit. The environmental monitoring unit is used to monitor the temperature, humidity, light, and wind speed data inside and outside the room in real time. The environmental analysis unit retrieves these data and calculates the temperature difference, humidity difference, light difference, and wind speed difference between inside and outside the room.

[0029] The energy-saving control module presets a standard environmental range and has a hierarchical control function. According to the indoor and outdoor environmental data monitored in real time by the environmental monitoring module and the weather conditions in the next hour, it generates and sends a first-level control instruction. If the weather is stable in the next hour, according to the environmental range preferred by the user, it generates and sends a second-level control instruction. If the user does not set a preferred environmental range and the future weather is stable, it generates and sends a third-level control instruction.

[0030] The execution module is used to receive the control instructions from the energy-saving control module and control the environmental conditioning equipment to execute the corresponding instructions. After the instructions are executed, the execution status is fed back to the energy-saving control module. After the energy-saving control module recognizes that the environmental conditioning is completed, it records the completion time and sends it to the energy consumption optimization module.

[0031] The energy consumption optimization module monitors the energy consumption of the environmental control equipment, records the energy consumption data of the environmental control equipment under different control instructions, and constructs a personal energy consumption plan library based on the recorded energy consumption data and the completion time sent by the energy-saving control module;

[0032] The user interaction module provides a visual interaction interface that allows users to set their preferred environmental range;

[0033] The environmental monitoring module also includes an air quality monitoring unit and a noise monitoring unit. The air quality monitoring unit is used to monitor the indoor air quality, and the noise monitoring unit is used to monitor the indoor noise level in real time. When the monitored PM2.5 concentration exceeds the standard and the noise level is greater than 55 dB, the visual interaction interface triggers an air quality warning and a noise warning respectively, and feeds them back to the execution module to adjust the operation strategy of the environmental control equipment.

[0034] Specific working process: In a high-rise residence located in the city center, a family of three lives. On a summer day, the outdoor temperature is as high as 35 °C, the humidity is 70%, the light intensity reaches 800 lx, and the wind speed is 2 m / s. The microclimate adaptive system of the highly energy-efficient water-tight and air-tight window of the present invention starts to work. The temperature sensor, humidity sensor, light sensor, and wind speed sensor in the environmental monitoring module collect outdoor data in real time and compare and analyze it with the indoor data. The indoor temperature is 28 °C, the humidity is 60%, the light intensity is 200 lx (due to the sunshade effect of the window), and the wind speed is 0.1 m / s. The energy-saving control module determines that environmental adjustment is needed based on the preset standard environmental range (temperature 24 °C - 26 °C, humidity 40% - 60%, light intensity 100 lx - 300 lx, wind speed 0.1 m / s - 0.3 m / s) and the weather conditions in the next hour (the weather forecast shows that the temperature will continue to rise, there is no precipitation, and the wind will weaken);

[0035] The system first sends a first-level control instruction to the execution module. The electric blinds automatically adjust the angle to reduce the direct sunlight outdoors, reducing the indoor light intensity to about 250 lx. At the same time, the air conditioner starts the cooling mode, gradually reducing the temperature to 25 °C, the humidity also stabilizes at about 50%, and the wind speed remains at 0.2 m / s. Through such precise adjustment, the indoor microclimate is always in a comfortable and stable state, effectively preventing health problems such as heat stroke and skin allergies that may be caused by microclimate fluctuations such as high temperature, high humidity, and strong light, and providing a comfortable and healthy indoor environment for the occupants.

[0036] Furthermore, by monitoring and analyzing microclimate parameters such as indoor and outdoor temperature, humidity, light, and wind speed in real time, detailed indoor and outdoor microclimate data is provided to the user. Based on the preset standard environmental range, user preferences, and future weather conditions, the energy-saving control module generates control instructions at different levels, ensuring the comfort and stability of the indoor microclimate and preventing health problems caused by microclimate fluctuations.

[0037] Embodiment 2:

[0038] Based on Embodiment 1, in the energy-saving control module, the standard environmental range is a temperature of 20°C - 26°C, a humidity of 40% - 60%, a light intensity of 100 lx - 300 lx, and a wind speed of 0.1 m / s - 0.3 m / s. The future one-hour weather conditions are obtained in real time by connecting to a weather forecast service system, and the weather forecast service system is a professional third-party weather forecast service provider.

[0039] In the energy-saving control module, when it is obtained that there is severe weather in the next hour, a first-level control instruction is generated and sent. The first-level control instruction is to close the window. The second-level control instruction is to generate an environmental adjustment device control instruction for adjusting the indoor environment according to the preferred environmental range set by the user through the user interaction module when the weather is stable in the next hour. The third-level instruction is to generate an environmental adjustment device control instruction to make the indoor environment reach and maintain within the preset standard environmental range when the user does not set a preferred environmental range and the future weather is stable.

[0040] The execution module also includes a status monitoring unit. The status monitoring unit is used to monitor the operating status of the environmental adjustment unit in real time. The operating status includes the working status, working mode, working parameters, and fault status of the device. When an abnormality and fault of the device are detected, the status monitoring unit immediately generates and sends an alarm signal to the energy consumption optimization module and the user interaction module.

[0041] After receiving the alarm signal, the energy consumption optimization module selects a plan that does not include the faulty device from the personal energy consumption plan library and transfers the plan to the energy-saving control module to regenerate the control instruction. After receiving the alarm signal, the user interaction module emits an alarm flash on the visual interaction interface and notifies the user by text message.

[0042] Specific work process: In a small office space equipped with the window microclimate adaptive system of the present invention, during the working hours of a week, the energy consumption optimization module detailedly recorded the energy consumption of the environmental conditioning equipment. On Monday, since the outdoor temperature was relatively low (15°C), the humidity was 50%, the light was moderate, and the wind speed was small, according to the preset standard environmental range and weather conditions, the system mainly maintained the indoor environment through natural ventilation and a small amount of light adjustment. The air-conditioning energy consumption on that day was 2 kWh, the energy consumption of the electric blinds was 0.5 kWh, and the total energy consumption was 2.5 kWh. The completion time of the environmental conditioning task was 8 hours;

[0043] As the temperature gradually increased, the outdoor temperature reached 28°C on Wednesday, the humidity was 65%, the light became stronger, and the system increased the intensity of air-conditioning refrigeration and sunshade adjustment. The air-conditioning energy consumption on that day rose to 8 kWh, the energy consumption of the electric blinds was 1 kWh, and the energy consumption of the humidifier was 0.5 kWh (due to dry indoor air). The total energy consumption was 9.5 kWh, and the completion time was 10 hours. Through the scheme scoring unit of the energy consumption optimization module and calculated according to the formula, the scheme score on Monday was 34.5, and the scheme score on Wednesday was 10.8;

[0044] During subsequent operations, the energy consumption optimization module found that there were energy consumption optimization schemes for other similar office spaces in the scheme sharing unit of the user interaction module. Under the same weather conditions, their total energy consumption was 10% lower than the average energy consumption of this site. After comparison and verification, the system absorbed this scheme and adopted it when encountering similar weather next time. After a period of operation, the average monthly energy cost of this office space was reduced by 15%, effectively improving the energy-saving effect of the system and reducing the operating cost.

[0045] Furthermore, by monitoring the energy consumption of the environmental conditioning equipment through the energy consumption optimization module, constructing a personal energy consumption scheme library, and scoring and optimizing the scheme according to the actual operation effect, the energy-saving effect of the system is improved. In addition, combined with the scheme sharing unit of the user interaction module, it can further compare and absorb excellent energy consumption optimization schemes of other users, continuously update and improve the personal energy consumption scheme library, and further improve the energy-saving effect of the system.

[0046] Embodiment 3:

[0047] Based on Embodiment 2, the environmental conditioning equipment includes electric blinds, an air conditioner, and a humidifier. The electric blinds are used to adjust the wind speed and light in the room, the air conditioner is used to adjust the temperature in the room, and the humidifier is used to adjust the humidity in the room;

[0048] The energy consumption optimization module further includes a scheme scoring unit, which is used to score the schemes in the personal energy consumption scheme library. The specific formula is as follows:

[0049]

[0050] Among them, S represents the scheme score, E represents the total energy consumption of the scheme, with the unit of kWh, T represents the scheme completion time, with the unit of h, α and β respectively represent the weight coefficients of the total energy consumption and completion time of the scheme, α + β = 1, and α and β are initially set to 7:3;

[0051] The user interaction module also includes a scheme sharing unit. The scheme sharing unit allows users to upload their own energy consumption optimization schemes and is connected to the energy consumption optimization module. When the energy consumption optimization module identifies that the energy consumption of the energy consumption optimization scheme in the scheme sharing unit under the same conditions is lower than that of the scheme in the personal energy consumption scheme library, the energy consumption optimization module marks the identified scheme. The next time the same environment is encountered, it will send a text message to inform the user. If the user agrees to execute the marked scheme, the actual energy consumption of the marked scheme will be recorded. If the actual energy consumption is lower than that of the scheme in the personal energy consumption scheme library, the energy consumption scheme library will be updated.

[0052] Specific working process: A microclimate adaptive system of the present invention is installed in a meeting room of a commercial building. Before an important meeting, the status monitoring unit in the execution module real-time monitors that the air conditioner has a fault, specifically manifested as the failure of the refrigeration function and the abnormal shutdown of the compressor. The status monitoring unit immediately generates an alarm signal and sends it to both the energy consumption optimization module and the user interaction module simultaneously;

[0053] After receiving the alarm signal, the energy consumption optimization module quickly selects a scheme that does not include the air conditioner from the personal energy consumption scheme library, that is, by increasing the ventilation volume of the electric blinds and adjusting the sunshade angle, combined with natural ventilation to maintain the indoor temperature, and transmits the new control instruction to the energy-saving control module. The energy-saving control module regenerates the control instruction to direct the execution module to adjust the operation strategy of the environmental adjustment equipment;

[0054] At the same time, the user interaction module shows an alarm flash on the visualization interface and immediately sends a text message notification to the meeting organizer. The meeting organizer promptly contacts the maintenance personnel for emergency repair. During the repair period, the system intelligently adjusts other equipment to keep the indoor environment in a relatively stable state, avoiding environmental out-of-control problems such as excessive indoor temperature and poor air circulation caused by the air conditioner failure, ensuring the smooth progress of the meeting, and at the same time avoiding additional energy waste caused by equipment failure, ensuring the stability and reliability of the entire system.

[0055] Further, the status monitoring unit in the execution module monitors the operating status of the environmental conditioning equipment in real time. Once equipment anomalies and faults are detected, alarm signals can be immediately generated and sent to the energy consumption optimization module and the user interaction module. The energy consumption optimization module can quickly select a solution that does not involve the faulty equipment and transmit it to the energy-saving control module to regenerate the control instruction, ensuring the continuous operation of the environmental conditioning system. At the same time, the user interaction module alarms and notifies the user through the visual interface flashing and text messages, facilitating the user to take timely measures to repair the equipment, avoiding environmental out-of-control and energy waste caused by equipment failures, and ensuring the stability and reliability of the entire system.

[0056] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. The above embodiments and the descriptions in the specification only illustrate the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and all these changes and improvements fall within the scope of the present invention claimed. The scope of the present invention claimed is defined by the appended claims and their equivalents.

Claims

1. The microclimate adaptive system of the highly efficient energy-saving water-tight and air-tight window is characterized in that It includes the following modules: The environmental monitoring module, which contains an environmental monitoring unit and an environmental analysis unit. The environmental monitoring unit is used to monitor the temperature, humidity, light, and wind speed data inside and outside the room in real time. The environmental analysis unit retrieves these data and calculates the temperature difference, humidity difference, light difference, and wind speed difference inside and outside the room; The energy-saving control module, which presets a standard environmental range and has a hierarchical control function. According to the indoor and outdoor environmental data monitored in real time by the environmental monitoring module and the weather conditions in the next hour, it generates and sends a first-level control instruction. If the weather is stable in the next hour, according to the environmental range preferred by the user, it generates and sends a second-level control instruction. If the user does not set a preferred environmental range and the future weather is stable, it generates and sends a third-level control instruction; The execution module is used to receive the control instructions from the energy-saving control module and control the environmental adjustment equipment to execute the corresponding instructions. After the instructions are executed, it feeds back the instruction execution situation to the energy-saving control module. After the energy-saving control module recognizes that the environmental adjustment is completed, it records the completion time and sends it to the energy consumption optimization module; The energy consumption optimization module monitors the energy consumption situation of the environmental adjustment equipment, records the energy consumption data of the environmental adjustment equipment under different control instructions, and constructs a personal energy consumption plan library based on the recorded energy consumption data and the completion time sent by the energy-saving control module; The user interaction module provides a visual interaction interface that allows users to set their preferred environmental range.

2. The microclimate adaptive system of the highly energy-efficient, watertight and airtight window according to claim 1, characterized in that: The environmental monitoring module also includes an air quality monitoring unit and a noise monitoring unit. The air quality monitoring unit is used to monitor the air quality inside the room, and the noise monitoring unit is used to monitor the noise level inside the room in real time. When the monitored PM2.5 concentration exceeds the standard and the noise level is greater than 55 dB, the visual interaction interface triggers an air quality warning and a noise warning respectively, and feeds them back to the execution module to adjust the operation strategy of the environmental adjustment equipment.

3. The microclimate adaptive system of the highly energy-efficient, watertight and airtight window according to claim 1, characterized in that: In the energy-saving control module, the standard environmental range is a temperature of 20°C - 26°C, a humidity of 40% - 60%, a light intensity of 100 lx - 300 lx, and a wind speed of 0.1 m / s - 0.3 m / s. The weather conditions in the next hour are obtained in real time by connecting to a weather forecast service system, and the weather forecast service system is a professional third-party weather forecast service provider.

4. The microclimate adaptive system of the highly energy-efficient, watertight and airtight window according to claim 1, characterized in that: In the energy-saving control module, when it obtains that there is bad weather in the next hour, it generates and sends a first-level control instruction, and the first-level control instruction is to close the window. The second-level control instruction is to generate a control instruction for the environmental adjustment equipment to adjust the indoor environment according to the preferred environmental range set by the user through the user interaction module when the weather is stable in the next hour. The third-level instruction is to generate a control instruction for the environmental adjustment equipment to make the indoor environment reach and maintain within the preset standard environmental range when the user does not set a preferred environmental range and the future weather is stable.

5. The microclimate adaptive system of the highly energy-efficient and watertight and airtight window according to claim 1, characterized in that: The execution module further includes a status monitoring unit, which is used to monitor the operating status of the environment adjustment unit in real time. The operating status includes the working status, working mode, working parameters of the device, and the fault status. When detecting device anomalies and faults, the status monitoring unit immediately generates and sends an alarm signal to the energy consumption optimization module and the user interaction module.

6. The microclimate adaptive system of the highly energy-efficient and watertight and airtight window according to claim 5, characterized in that: After receiving the alarm signal, the energy consumption optimization module selects a solution that does not include the faulty device from the personal energy consumption solution library and passes the solution to the energy-saving control module to regenerate the control instruction. After receiving the alarm signal, the user interaction module emits an alarm flash on the visual interaction interface and notifies the user by text message.

7. The microclimate adaptive system of the highly energy-efficient, water-tight and air-tight window according to claim 1, characterized in that: The environment adjustment device includes electric blinds, an air conditioner, and a humidifier. The electric blinds are used to adjust the indoor wind speed and light. The air conditioner is used to adjust the indoor temperature. The humidifier is used to adjust the indoor humidity.

8. The microclimate adaptive system of the highly energy-efficient and watertight and airtight window according to claim 1, characterized in that: The energy consumption optimization module further includes a solution scoring unit, which is used to score the solutions in the personal energy consumption solution library. The specific formula is as follows: Among them, S represents the solution score, E represents the total energy consumption of the solution, with the unit of kWh, T represents the solution completion time, with the unit of h, α and β respectively represent the weight coefficients of the total energy consumption and completion time of the solution, α + β = 1, and α and β are initially set to 7:

3.

9. The microclimate adaptive system of the highly energy-efficient, watertight and airtight window according to claim 1, characterized in that: The user interaction module further includes a solution sharing unit, which allows the user to upload their own energy consumption optimization solution and is connected to the energy consumption optimization module. When the energy consumption optimization module identifies that the energy consumption of the energy consumption optimization solution in the solution sharing unit under the same conditions is lower than the solution in the personal energy consumption solution library, the energy consumption optimization module marks the identified solution. The next time the same environment is encountered, the user is notified by text message. If the user agrees to execute the marked solution, the actual energy consumption of the marked solution is recorded. If the actual energy consumption is lower than the solution in the personal energy consumption solution library, the energy consumption solution library is updated.

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