Method and system for intelligently controlling window ecology by linkage of mobile equipment and central screen

Abstract

The invention discloses a method and a system for intelligently controlling window ecology through linkage of mobile equipment and a central screen, which not only improve the convenience and the intelligent level of window control, but also enhance the integrity and the coordination of window ecology, so that a user can control a window and accessories thereof, a household lamp and an air conditioner anytime and anywhere through a mobile terminal APP, and the user experience is improved. The system greatly improves the convenience of use, does not need to go to the scene in person, supports multiple intelligent scene modes, meets the requirements of different users, can be quickly switched by the users according to the actual requirements, has a safety alarm function, guarantees the family safety, and can automatically trigger an alarm mechanism when an abnormal condition is detected. And the notification is pushed to the user through the mobile terminal APP.

Description

Technical Field

[0001] The present invention relates to the field of Internet of Things, and in particular to an ecological method and system for intelligently controlling windows by linking a mobile device with a central screen. Background Art

[0002] With the development of smart home technology, users have a growing demand for intelligent management of their home environment. Traditional window control methods usually require manual operation or use of fixed-position control devices. Users must go to the window in person to operate the switch, which is particularly inconvenient when there are many windows or they are difficult to reach. For people with limited mobility, this operation method is even more difficult. Traditional control methods cannot achieve remote control. When users are not at home, they cannot adjust the window status according to weather changes or other external conditions. Users cannot understand the current status of the window in real time (such as whether it is closed), nor can they monitor possible problems with the window (such as safety hazards caused by not closing tightly). In emergency situations (such as fire, intrusion, etc.), traditional windows cannot respond quickly and take appropriate measures, which increases safety risks. Due to the lack of intelligent management, the opening and closing of windows often cannot be optimized according to actual needs, resulting in unnecessary energy consumption. In long-term use, manual operation may cause damage to windows and their accessories, increasing the cost of repair and replacement. Lack of linkage with other smart home devices: Traditional window control methods cannot be linked with other smart devices in the home (such as temperature sensors, humidity sensors, etc.), which limits the overall effect of home intelligence, cannot provide personalized settings and services, and cannot meet the pursuit of modern users for comfortable and convenient life.

[0003] In summary, a mobile device-linked central screen intelligent window control ecological method and system is needed to solve the shortcomings of the existing technology. Summary of the invention

[0004] In view of the deficiencies in the prior art, the present invention provides a method and system for intelligently controlling windows by linking a mobile device with a central screen, aiming to solve the above problems.

[0005] To achieve the above-mentioned purpose, the present invention provides the following technical solution: a mobile device linked to a central screen intelligent window control ecological method, comprising the following steps: Step S1: Build the IoT platform, select the cloud service type, create and configure the IoT, set the device authentication mechanism, define the message queue or time bus to process the data sent by the device, configure the database and set up the rule engine; Step S2: Build a mobile terminal APP system, set the user interface UI, and determine the communication protocol to interact with the IoT platform; Step S3: Install the central control screen and communication module, select the display screen size and resolution, configure the communication module, and set the screen layout and interaction logic; Step S4: The mobile terminal downloads and installs the APP, and binds the device through the functions within the APP; Step S5: Adjust device parameters through the mobile terminal APP and observe the device status in real time; Step S6: Setting scene modes according to different scenes.

[0006] Optionally, the IoT platform is built in step S1 in the following manner: Step S11: Select a suitable cloud service according to your needs and log in to the AWS management console; Step S12: Navigate to the IoT service and create an IoT instance; Step S13: Configure the IoT instance, create a device certificate, and create a device policy, selecting appropriate permissions; Step S14: Set the device authentication mechanism, use the generated device certificate and private key to authenticate the device, and configure the device to connect to the IoT platform; Step S15: define a message queue or event bus, create a message body and configure message routing; Step S16: Configure the database, select the database type according to the requirements, create a database instance, and configure the database connection; Step S17: Set up the rule engine, create rules, add conditional statements in the rule editor, and configure the rule conditions.

[0007] Optionally, the mobile terminal APP system is built in step S2 in the following manner: Step S21: Designing UI interface and UI components according to user's functional requirements; Step S22: Develop the user interface, select the development tool to configure the basic settings of the project, use the framework to provide the component library and determine the layout and style; Step S23: Select a suitable communication protocol according to the communication connection requirements, use the package management tool to install the necessary libraries, and configure the connection parameters of the IoT platform; Step S24: Initialize and connect to the IoT platform, test the connection status change, receive and process the device status update message, update the UI to display the device status, and process the response of the control command; Step S25: Build user registration and login functions, enter the device ID to bind the device according to the device binding function, verify the device information, and regularly review and update user permissions.

[0008] Optionally, the screen layout and interaction logic are set in step S3 in the following manner: Step S31: Select appropriate development tools according to the screen design layout, and write interface code for the screen design layout; Step S32: configure the interaction logic, detect touch events, identify user operations, update the screen display content according to the user operations, interact with the communication module, obtain the device status and send control instructions.

[0009] Optionally, in step S4, the binding is performed with the device through a function inside the APP in the following manner: Step S41: The user registers and logs into the account, and checks whether the mobile terminal device is connected to the Internet; Step S42: Scan nearby devices through the scanning function and display a list of available devices; Step S43: The user selects the device to be bound from the device list, sends a pairing request, and waits for the device to respond; Step S44: Display the binding progress bar. After successful binding, add the device to the user's device list.

[0010] Optionally, the user-related information collected by the APP in step S4 is secured in the following manner: Data encryption: encrypt the communication data between the APP and the IOT platform through the SSL / TLS protocol, and encrypt the storage and transmission of sensitive information; Access control, implement role-based access control to limit the access rights of different users to system resources. Regularly review and update user permissions; Security audit and vulnerability scanning: regularly conduct security audit and vulnerability scanning on the system to promptly discover and fix potential security risks. Pay attention to the latest security threats and vulnerability information, and promptly update the system and dependent libraries to fix known vulnerabilities.

[0011] A mobile device linked central screen intelligent window control ecosystem, using a mobile device linked central screen intelligent window control ecosystem method, including: a mobile terminal device, a central control screen, a device module and a communication module; Mobile terminal devices are used by users to install terminal APPs and remotely control various devices at home; Central control screen for centralized pairing setup, display and management of the status of all devices in the home; Device module, installed inside all devices, used for pairing and communication with the central control screen; The communication module is used to connect the equipment module and the central control screen and is responsible for data transmission between the two.

[0012] Optionally, the interaction mechanism between the mobile terminal device and the central control screen is: the terminal APP communicates with the central control screen through the Internet, receives data updates of the central control screen, and sends control commands to the central control screen.

[0013] Optionally, the interaction mechanism between the central control screen and the device module is: the central control screen communicates with the device module via WiFi or Bluetooth, and exchanges data with the mobile device through the Internet, forwards the control commands of the mobile device to the corresponding device module, and feeds back the device status to the mobile device. The device module is connected to the central control screen through wireless communication technology, and interacts with the mobile phone APP through the personal push service to achieve remote centralized control.

[0014] Optionally, the data exchange process of the ecosystem is: The user sends a control command through the mobile terminal APP, which sends the control command to the central control screen. The central control screen forwards the command to the corresponding device module. The device module executes the command and feedbacks the status to the central control screen. The central control screen pushes the status update to the mobile terminal APP.

[0015] Beneficial effects of the present invention: 1. The present invention not only improves the convenience and intelligence level of window control, but also enhances the integrity and coordination of the window ecology. Users can control windows and their accessories, household lights and air conditioners anytime and anywhere through the mobile terminal APP, which greatly improves the convenience of use without having to go to the site in person; 2. The present invention supports multiple intelligent scene modes to meet the needs of different users. Users can quickly switch according to actual needs. It has a security alarm function to ensure family safety. When an abnormal situation is detected, the system will automatically trigger the alarm mechanism and push notifications to users through the mobile terminal APP; 3. In the present invention, by intelligently controlling the switches of windows and their accessories and household lamps and air conditioners, it helps to save energy consumption and reduce electricity bills. It supports the coordinated control of various window accessories such as curtains and blinds, supports the basic electrical control of household lamps and air conditioners, and realizes the integrity and coordination of the window ecology. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 The present invention is a schematic flow chart of a method.

[0017] Figure 2 The present invention is a system implementation flow chart.

[0018] Figure 3 This is a system service architecture diagram of the present invention.

[0019] Figure 4This is a system functional architecture diagram of the present invention. DETAILED DESCRIPTION

[0020] In order to more clearly illustrate the embodiments of the invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0021] like Figure 1 and Figure 2 As shown, a mobile device linked to a central screen intelligently controls the window ecology method, comprising the following steps: Step S1: Build the IoT platform, select the cloud service type, create and configure the IoT, set the device authentication mechanism, define the message queue or time bus to process the data sent by the device, configure the database and set up the rule engine; Building IoT platform through the following methods: Step S11: Select a suitable cloud service according to your needs and log in to the AWS management console; Step S12: Navigate to the IoT service and create an IoT instance; Step S13: Configure the IoT instance, create a device certificate, and create a device policy, selecting appropriate permissions; Step S14: Set the device authentication mechanism, use the generated device certificate and private key to authenticate the device, and configure the device to connect to the IoT platform; Step S15: define a message queue or event bus, create a message body and configure message routing; Step S16: Configure the database, select the database type according to the requirements, create a database instance, and configure the database connection; Step S17: Set up the rule engine, create rules, add conditional statements in the rule editor, and configure the rule conditions; Step S2: Build a mobile terminal APP system, set the user interface UI, and determine the communication protocol to interact with the IoT platform; Build a mobile terminal APP system through the following methods: Step S21: Designing UI interface and UI components according to user's functional requirements; Step S22: Develop the user interface, select the development tool to configure the basic settings of the project, use the framework to provide the component library and determine the layout and style; Step S23: Select a suitable communication protocol according to the communication connection requirements, use the package management tool to install the necessary libraries, and configure the connection parameters of the IoT platform; Step S24: Initialize and connect to the IoT platform, test the connection status change, receive and process the device status update message, update the UI to display the device status, and process the response of the control command; Step S25: Build user registration and login functions, input device ID to bind the device according to the device binding function, verify device information, and regularly review and update user permissions; Step S3: Install the central control screen and communication module, select the display screen size and resolution, configure the communication module, and set the screen layout and interaction logic; Set the screen layout and interaction logic in the following ways: Step S31: Select appropriate development tools according to the screen design layout, and write interface code for the screen design layout; Step S32: configure the interaction logic, detect touch events, identify user operations, update the screen display content according to the user operations, interact with the communication module, obtain the device status and send control instructions; Step S4: The mobile terminal downloads and installs the APP, and binds the device through the functions within the APP; Bind the device through the functions inside the APP in the following ways: Step S41: The user registers and logs into the account, and checks whether the mobile terminal device is connected to the Internet; Step S42: Scan nearby devices through the scanning function and display a list of available devices; Step S43: The user selects the device to be bound from the device list, sends a pairing request, and waits for the device to respond; Step S44: Display the binding progress bar. After successful binding, add the device to the user's device list.

[0022] Step S5: Adjust device parameters through the mobile terminal APP and observe the device status in real time; Step S6: setting scene modes according to different scenes; Suggested scene mode selection: Away mode: Close all windows, lights and air conditioners, and start the security system. Home mode: Automatically turn on the living room lights and air conditioners according to the time, and adjust the window transmittance. Sleep mode: Close windows, reduce the brightness of bedroom lights, close curtains, and adjust the air conditioner temperature to a comfortable range. Energy saving mode: Automatically adjust window switches and air conditioner operation status according to the temperature difference between indoor and outdoor to reduce energy consumption.

[0023] Specific implementation of energy conservation and emission reduction: Use photosensitive sensors and timers to control the on and off time of lights. Automatically adjust the air-conditioning speed and temperature according to the amount of human activity indoors. Use rain sensors to automatically close windows to prevent rain from invading the room. Analyze user behavior habits through data and optimize equipment operation strategies to reduce unnecessary energy consumption.

[0024] The user-related information collected through the APP is kept secure in the following ways: Data encryption: encrypt the communication data between the APP and the IOT platform through the SSL / TLS protocol, and encrypt the storage and transmission of sensitive information; Access control, implement role-based access control to limit the access rights of different users to system resources. Regularly review and update user permissions; Security audit and vulnerability scanning: regularly conduct security audit and vulnerability scanning on the system to promptly discover and fix potential security risks. Pay attention to the latest security threats and vulnerability information, and promptly update the system and dependent libraries to fix known vulnerabilities.

[0025] The method of the present invention is as follows: 1. Build an IOT platform 1. Configure parameters: Select a cloud service provider (such as HUAWEI HiLink, Alibaba Life IoT Platform, duerOS, etc.), create and configure an IoT instance. Set the device authentication mechanism (such as device key, ID² authentication, X.509 certificate, and open source MQTT managed device, etc.). Define a message queue or event bus to process the data sent by the device. Configure a database (such as MYSQL database) to store device status and historical data. Set up a rule engine to automatically process device instructions under specific conditions.

[0026] 2. Software tools: Use the SDK (Software Development Kit) provided by the IoT platform for development, such as AWS SDK for Python / Java, Azure IoT SDK, etc. Use MQTT broker (such as Eclipse Mosquitto, HiveMQ) as the message transmission protocol. Use tools such as Terraform or Ansible to automatically deploy and configure infrastructure.

[0027] 3. Common problems and debugging methods: When the device cannot connect to the IOT platform, check the network connection, device credentials, and endpoint configuration. If data processing is delayed or lost, optimize the message queue settings and add a retry mechanism. For security issues, ensure data transmission encryption and regularly update credentials and software patches.

[0028] 2. Build the mobile APP system and central control screen system 1. Configuration parameters: Design a user-friendly UI, including device lists, control buttons, status displays, etc. Determine the communication protocol (such as RESTful API, WebSocket, MQTT, etc.) to interact with the IOT platform. Implement functions such as user account management, device binding, and permission control. Develop a local control interface for the central control screen, supporting Bluetooth or Wi-Fi direct connection devices.

[0029] 2. Software tools: Use cross-platform development frameworks (such as Flutter and uniapp) to build mobile apps. Use front-end technology stacks (such as HTML5, CSS3, and JavaScript) combined with back-end frameworks (such as Node.js and Django) to develop central control screen applications. Use version control systems (such as Git) to manage code.

[0030] 3. Common problems and debugging methods: If the app crashes or freezes, optimize performance and use debugging tools to locate the problem. If device control fails, check the network connection, device status, and control command format. If the user experience is poor, collect user feedback and iterate to improve the design.

[0031] 3. Install the central control screen and communication module 1. Configuration parameters: Select the adaptive display screen size and resolution to ensure good visual effects. Configure communication modules (such as Wi-Fi, Bluetooth modules) to ensure compatibility with home networks and other smart devices. Set the screen layout and interaction logic to facilitate user operation.

[0032] 2. Software tools: Use the SDK or API provided by the display manufacturer for development. Use network debugging tools (such as Wireshark) to analyze communication data packets. Use tools such as the serial port debugging assistant to test the communication module function.

[0033] 3. Common problems and debugging methods: If the display screen cannot display, check the power supply, signal line connection and driver. If the communication module connection fails, check the network settings, module firmware and compatibility. If the touch response is not sensitive, adjust the touch parameters or replace the touch screen.

[0034] 4. Download and install the mobile APP to complete the binding 1. Configuration parameters: Upload the APP package in the app store and set the correct package name, version number and other information. Guide users to complete APP download, installation and initial startup settings. Provide clear device binding tutorials and QR code scanning functions.

[0035] 2. Software tools: Use application distribution platforms (such as Apple App Store, harmonyOS, Xiaomi Open Platform, etc.) to publish apps. Use push notification services (such as Firebase Cloud Messaging, Apple PushNotification service) to remind users of updates or important information.

[0036] 3. Common problems and debugging methods: If the APP download fails, check the network connection, application store and APP package size. If the device binding fails, check the validity of the QR code, network environment and APP permission settings. If the user reports a problem, establish a customer service channel to collect and process user feedback in a timely manner.

[0037] 5. Control the device and observe the status through the mobile phone APP 1. Configuration parameters: Real-time display of window switch status, temperature, weather conditions and other information. Provide manual control buttons and adjust device parameters. Set scheduled tasks and automated scene trigger conditions.

[0038] 2. Software tools: Use UI to display real-time data. Integrate push notification service to inform users of device status changes in a timely manner. Use the log system to record user operations and device events to facilitate troubleshooting.

[0039] 3. Common problems and debugging methods: If the data display is abnormal, check the sensor data source and transmission link. If the control command does not respond, check the network connection and device online status. If the user experience is poor, optimize the interface layout and interaction process based on user feedback.

[0040] VI. Data security measures 1. Data encryption: Use SSL / TLS protocol to encrypt the communication data between the APP and the IOT platform. Encrypt sensitive information (such as user passwords, device credentials) for storage and transmission.

[0041] 2. Access control: Implement role-based access control (RBAC) to limit different users’ access rights to system resources. Regularly review and update user permissions to ensure that the principle of least privilege is followed.

[0042] 3. Data backup and recovery: Back up the database and key configuration files regularly to prevent data loss or damage. Develop a detailed data recovery plan to ensure that the system can be quickly restored in the event of a failure.

[0043] 4. Security audit and vulnerability scanning: Regularly perform security audit and vulnerability scanning on the system to promptly discover and fix potential security risks. Pay attention to the latest security threats and vulnerability information, and update the system and dependent libraries in a timely manner to fix known vulnerabilities.

[0044] 5. User education and awareness raising: Popularize data security knowledge to users and improve their security awareness and self-protection ability. Encourage users to set strong passwords, change passwords regularly, and avoid using sensitive operations on public networks.

[0045] like Figure 3 and Figure 4 As shown, a mobile device linked to a central screen intelligently controls the window ecosystem, including the following: This system combines the Internet of Things technology, embedded devices and mobile application development technology to achieve intelligent management of windows and their accessories (such as curtains, blinds, etc.) and household appliances. The system uses a variety of environmental sensors (such as temperature sensors, air quality sensors, wind and rain sensors, light sensors, etc.) to sense the environmental information around the window in real time and transmit this data to the central control unit for processing and analysis. Users can view the window status, control the window and coordinate the control of the window ecology through mobile devices or central control screens.

[0046] 1. Mobile device (smartphone APP) Functionality: Users can remotely control windows and their accessories (such as curtains, blinds, etc.), as well as home appliances at home through a dedicated application (APP) installed on their mobile phones. The APP provides an intuitive user interface, displays the status of windows, and allows users to set opening and closing times, adjust the opening and closing degree of curtains, control lights and air conditioning, etc.

[0047] Interaction mechanism: The APP communicates with the central control screen through the Internet, receives data updates from the central control screen, and sends control commands to the central control screen.

[0048] 2. Central control screen Function: Installed in the center of the home, it serves as the control center of the home intelligence. The central control screen can centrally pair with devices and display and manage the status of all windows and their accessories in the home, including current status, history records and alarm information.

[0049] Interaction mechanism: The central control screen communicates with the device module via Wi-Fi or Bluetooth, and exchanges data with the mobile device via the Internet. It is responsible for forwarding the control commands from the mobile device to the corresponding device module and feeding back the device status to the mobile device.

[0050] 3. Equipment module Functional implementation: Each window and its accessories are equipped with device modules, which have built-in Wi-Fi or low-power Bluetooth technology for pairing and communication with the central control screen. The device module with chip module also performs device authentication and message service processing through the Internet of Things (IoT) platform.

[0051] Interaction mechanism: The device module is connected to the central control screen through wireless communication technology, and interacts with the mobile phone APP through personal push service to achieve remote centralized control.

[0052] 4. Communication module Function realization: The communication module is the bridge connecting the equipment module and the central control screen, and is responsible for data transmission between the two. It uses advanced wireless communication technology (such as Wi-Fi, Bluetooth, etc.) to ensure the security and real-time nature of data.

[0053] Interaction mechanism: The communication module establishes a stable communication connection between the equipment module and the central control screen, transmitting control commands and status data.

[0054] The system uses wifi or low-power Bluetooth mesh as the main communication method to achieve data transmission between each sensor node and the central control unit. Low-power Bluetooth technology has the advantages of good transmission security and low power, and is suitable for smart home systems. WiFi is mainly for devices that can be directly connected to the Internet, using the IOT platform for identity authentication, reporting of device information, and receiving of instructions. At the same time, the system also supports remote control of the central control unit by mobile phones through external network connection.

[0055] Data exchange process: The user sends a control command through the mobile phone APP, the mobile phone APP sends the command to the central control screen, the central control screen forwards the command to the corresponding device module, the device module executes the command and feedbacks the status to the central control screen, and the central control screen pushes the status update to the mobile phone APP.

[0056] Exception handling is: In order to ensure the stability and reliability of the system, this system has designed a variety of abnormal situation handling mechanisms: 1. Network interruption: When a network interruption is detected, the system will automatically try to reconnect. If it cannot be restored for a long time, the system will record an error log and notify the user through the mobile phone APP.

[0057] 2. Equipment failure: If a device module fails, the system will mark it as offline and notify the user through the mobile phone APP for repair or replacement.

[0058] 3. Data loss: The system uses encryption technology to ensure the security of data transmission. For important data, the system will back up in multiple locations to prevent data loss.

[0059] 4. Software update: The system supports remote software update function to ensure the stability and security of the system. When a new software version is released, the system will automatically prompt the user to update.

[0060] This system has the following features: Remote control: Users can control the windows and their accessories, as well as the switch status of home lights and air conditioners anytime and anywhere through the mobile phone APP without having to go to the site in person.

[0061] Status feedback: The central control screen updates the status of each window and its accessories, as well as household lights and air conditioners in real time, including switch status, mode, temperature and other information, making it easier for users to understand the home environment.

[0062] Smart scene mode: supports multiple preset scene modes, such as leaving mode, returning mode, sleeping mode, etc. Users can quickly switch according to actual needs.

[0063] Security alarm: When an abnormal situation is detected (such as fire, intrusion, etc.), the system will automatically trigger the alarm mechanism and push notifications to users through the mobile phone APP.

[0064] Ecological coordination: supports coordinated control of various window accessories such as curtains and blinds, and supports supporting control of household lights and air conditioners, to achieve the integrity and coordination of the window ecology.

[0065] The present invention not only improves the convenience and intelligence level of window control, but also enhances the integrity and coordination of the window ecology. Users can control windows and their accessories, household lights and air conditioners anytime and anywhere through the mobile terminal APP, which greatly improves the convenience of use without having to go to the site in person; Supports multiple intelligent scene modes to meet the needs of different users. Users can quickly switch according to actual needs. It has a security alarm function to ensure family safety. When an abnormal situation is detected, the system will automatically trigger the alarm mechanism and push notifications to users through the mobile terminal APP; Intelligent control of windows and their accessories as well as the switching of household lights and air conditioners can help save energy consumption and reduce electricity bills. It supports coordinated control of various window accessories such as curtains and blinds, and basic electrical control of household lights and air conditioners, thus achieving the integrity and coordination of the window ecosystem.

[0066] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modification, equivalent substitution or improvement made within the spirit and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A mobile device linked to a central screen intelligent window control ecological method, characterized in that: The following steps are involved: Step S1: Build the IoT platform, select the cloud service type, create and configure the IoT, set the device authentication mechanism, define the message queue or time bus to process the data sent by the device, configure the database and set up the rule engine; Step S2: Build a mobile terminal APP system, set the user interface UI, and determine the communication protocol to interact with the IoT platform; Step S3: Install the central control screen and communication module, select the display screen size and resolution, configure the communication module, and set the screen layout and interaction logic; Step S4: The mobile terminal downloads and installs the APP, and binds the device through the functions within the APP; Step S5: Adjust device parameters through the mobile terminal APP and observe the device status in real time; Step S6: Setting scene modes according to different scenes.

2. According to the method of claim 1, the mobile device linked to the central screen intelligent window control ecological method is characterized in that: The IoT platform is built in step S1 in the following manner: Step S11: Select a suitable cloud service according to your needs and log in to the AWS management console; Step S12: Navigate to the IoT service and create an IoT instance; Step S13: Configure the IoT instance, create a device certificate, and create a device policy, selecting appropriate permissions; Step S14: Set the device authentication mechanism, use the generated device certificate and private key to authenticate the device, and configure the device to connect to the IoT platform; Step S15: define a message queue or event bus, create a message body and configure message routing; Step S16: Configure the database, select the database type according to the requirements, create a database instance, and configure the database connection; Step S17: Set up the rule engine, create rules, add conditional statements in the rule editor, and configure the rule conditions.

3. According to claim 1, the method for intelligently controlling windows by linking a mobile device with a central screen is characterized in that: In step S2, the mobile terminal APP system is built in the following manner: Step S21: Designing UI interface and UI components according to user's functional requirements; Step S22: Develop the user interface, select the development tool to configure the basic settings of the project, use the framework to provide the component library and determine the layout and style; Step S23: Select a suitable communication protocol according to the communication connection requirements, use the package management tool to install the necessary libraries, and configure the connection parameters of the IoT platform; Step S24: Initialize and connect to the IoT platform, test the connection status change, receive and process the device status update message, update the UI to display the device status, and process the response of the control command; Step S25: Build user registration and login functions, enter the device ID to bind the device according to the device binding function, verify the device information, and regularly review and update user permissions.

4. According to claim 1, the method for intelligently controlling windows by linking a mobile device with a central screen is characterized in that: The screen layout and interaction logic are set in step S3 in the following manner: Step S31: Select appropriate development tools according to the screen design layout, and write interface code for the screen design layout; Step S32: configure the interaction logic, detect touch events, identify user operations, update the screen display content according to the user operations, interact with the communication module, obtain the device status and send control instructions.

5. According to claim 1, the method for intelligently controlling windows by linking a mobile device with a central screen is characterized in that: In step S4, the device is bound through the internal function of the APP in the following manner: Step S41: The user registers and logs into the account, and checks whether the mobile terminal device is connected to the Internet; Step S42: Scan nearby devices through the scanning function and display a list of available devices; Step S43: The user selects the device to be bound from the device list, sends a pairing request, and waits for the device to respond; Step S44: Display the binding progress bar. After successful binding, add the device to the user's device list.

6. According to claim 1, the method for intelligently controlling windows by linking a mobile device with a central screen is characterized in that: The user-related information collected by the APP in step S4 is ensured to be secure in the following ways: Data encryption: encrypt the communication data between the APP and the IOT platform through the SSL / TLS protocol, and encrypt the storage and transmission of sensitive information; Access control: implement role-based access control to limit the access rights of different users to system resources, and regularly review and update user permissions; Security audit and vulnerability scanning: regularly perform security audit and vulnerability scanning on the system, promptly discover and fix potential security risks, pay attention to the latest security threats and vulnerability information, and promptly update the system and dependent libraries to fix known vulnerabilities.

7. A mobile device linked to a central screen intelligently controls a window ecosystem, using a mobile device linked to a central screen intelligently controls a window ecosystem as described in any one of claims 1 to 6, characterized in that: include: Mobile terminal equipment, central control screen, equipment modules and communication modules; Mobile terminal devices are used by users to install terminal APPs and remotely control various devices at home; Central control screen for centralized pairing setup, display and management of the status of all devices in the home; Device module, installed inside all devices, used for pairing and communication with the central control screen; The communication module is used to connect the equipment module and the central control screen and is responsible for data transmission between the two.

8. The mobile device linked central screen intelligent control window ecosystem according to claim 7 is characterized in that: The interaction mechanism between the mobile terminal device and the central control screen is: the terminal APP communicates with the central control screen through the Internet, receives data updates from the central control screen, and sends control commands to the central control screen.

9. According to claim 7, the mobile device linked central screen intelligent control window ecosystem is characterized in that: The interaction mechanism between the central control screen and the device module is as follows: the central control screen communicates with the device module via Wi-Fi or Bluetooth, and exchanges data with the mobile device via the Internet, forwards the control commands of the mobile device to the corresponding device module, and feeds back the device status to the mobile device. The device module is connected to the central control screen via wireless communication technology, and interacts with the mobile phone APP through the personal push service to achieve remote centralized control.

10. The mobile device linked central screen intelligent control window ecosystem according to claim 7 is characterized in that: The data exchange process of the ecosystem is: The user sends a control command through the mobile terminal APP, which sends the control command to the central control screen. The central control screen forwards the command to the corresponding device module. The device module executes the command and feedbacks the status to the central control screen. The central control screen pushes the status update to the mobile terminal APP.

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