A service discovery based internet of things service method and system

Abstract

The application provides a service discovery-based Internet of Things service method and service architecture. An Internet of Things operating system is monitored in real time to determine whether there is a free IP port in the Internet of Things operating system; when an Internet of Things service of the Internet of Things operating system is detected to be started, an associated identifier of the free IP port is directly displayed; a service demand input interface is provided for a user; service demands input by the user in the service demand input interface are monitored in real time, and free IP ports are automatically matched according to the service demands; the associated identifier of the automatically matched free IP port is displayed, or the associated identifier of the automatically matched free IP port is replaced by a service name corresponding to the service demand while the association relationship is maintained.

Description

Technical Field

[0001] This invention proposes an IoT service method and system based on service discovery, belonging to the field of IoT technology. Background Technology

[0002] The Internet of Things (IoT) is a crucial component of the next generation of information technology. In the IT industry, it's also known as "ubiquitous interconnection," meaning the interconnection of everything. Therefore, "the Internet of Things is the Internet of Things connecting everything." This has two meanings: First, the core and foundation of the IoT remains the Internet; it's an extension and expansion of the Internet. Second, its user end extends to any object-to-object communication, facilitating information exchange and communication. Thus, the definition of the IoT is a network that uses information sensing devices such as RFID, infrared sensors, GPS, and laser scanners, according to agreed-upon protocols, to connect any object to the Internet for information exchange and communication, enabling intelligent identification, location, tracking, monitoring, and management of objects.

[0003] However, currently, most IoT platforms require manual configuration of the IP ports for various services, which are managed by the user through a configuration page. This configuration scheme is not simple enough for customers, requiring them to manually identify which ports are unused, which is cumbersome. Furthermore, each service requires a service ID for identification, making the service process tedious and inconvenient. Summary of the Invention

[0004] This invention provides a service discovery-based IoT service method and system to address the problem that the IP ports of various services in existing IoT platforms are manually configured, resulting in a cumbersome and inconvenient configuration process and low configuration efficiency. The technical solution adopted is as follows:

[0005] An IoT service method based on service discovery, the IoT service method comprising:

[0006] Real-time monitoring of the IoT operating system to determine whether there are any idle IP ports within the IoT operating system;

[0007] When the IoT service of the IoT operating system is detected to be started, the associated identifier of the idle IP port will be displayed directly.

[0008] Provides a user interface for inputting service requests;

[0009] The system monitors the service requests entered by the user in the service request input interface in real time and automatically matches available IP ports based on the service requests.

[0010] Display the associated identifiers of automatically matched free IP ports, or, while maintaining the association, replace the associated identifiers of automatically matched free IP ports with the service name corresponding to the service requirement.

[0011] Furthermore, the IoT operating system is monitored in real time to determine whether there are any idle IP ports within the IoT operating system, including:

[0012] Real-time detection of available IP ports in the IoT operating system;

[0013] When an idle IP port is detected in the IoT operating system, each idle IP port is retrieved, and each idle IP port is encoded and associated with the corresponding encoding.

[0014] When it is detected that there are no free IP ports in the IoT operating system, the actual service operation status of each occupied IP port is monitored in real time, and the service requirements corresponding to each occupied IP port are retrieved.

[0015] Based on the service requirements corresponding to each occupied IP port, identify and determine the service period and service end time of the occupied IP port, and mark the IP ports that are close to the service end time.

[0016] For each marked IP port, key monitoring will be conducted at the time corresponding to the service end time of each marked IP port.

[0017] Furthermore, when the IoT service of the IoT operating system is detected to be started, the associated identifier of the idle IP port is directly displayed, including:

[0018] Extract the associated identifiers corresponding to the idle IP ports;

[0019] When the IoT service of the IoT operating system is detected to be started, a unique association is established between the association identifier and the idle IP port;

[0020] The associated identifier is displayed on the operation page of the IoT operating system.

[0021] Furthermore, the system monitors the service requests entered by the user in the service request input interface in real time, and automatically matches available IP ports based on the service requests, including:

[0022] Real-time monitoring of the service requests entered by the user in the service request input interface, and extraction of the text content corresponding to the service requests;

[0023] Perform text recognition on the text content corresponding to the service request to obtain the service attributes corresponding to the service request input by the user;

[0024] The required IP port parameter data is determined based on the service attributes, and the parameter data is compared with the available IP ports to select the available IP port that matches the parameter data.

[0025] The idle IP ports that match the parameter data are matched with the user's service requirements, and the selected idle IP ports that match the parameter data are automatically configured according to the parameter data of the IP ports required by the service requirements.

[0026] An IoT service architecture based on service discovery, the IoT service architecture comprising:

[0027] The real-time monitoring module is used to monitor the IoT operating system in real time and determine whether there are any idle IP ports within the IoT operating system.

[0028] The display module is used to directly display the associated identifier of the idle IP port when the IoT service of the IoT operating system is detected to be started;

[0029] The interface module is used to provide users with a service request input interface;

[0030] An automatic matching module is used to monitor the service requirements entered by the user in the service requirement input interface in real time, and automatically match an available IP port according to the service requirements.

[0031] The IP port display module is used to display the associated identifiers of automatically matched idle IP ports, or, while maintaining the association relationship, replace the associated identifiers of automatically matched idle IP ports with the service name corresponding to the service requirement.

[0032] Furthermore, the real-time monitoring module includes:

[0033] The real-time detection module is used to detect in real time whether there are idle IP ports in the IoT operating system;

[0034] The identification module is used to retrieve each idle IP port when an idle IP port is detected in the IoT operating system, encode each idle IP port, and set an associated identifier corresponding to the encoding.

[0035] The retrieval module is used to monitor the actual service operation status of each occupied IP port in real time and retrieve the service requirements corresponding to each occupied IP port when it is detected that there are no free IP ports in the IoT operating system.

[0036] The marking module is used to identify and determine the service period and service end time of each occupied IP port based on the service requirements of each occupied IP port, and to mark IP ports that are close to the service end time.

[0037] The key monitoring module is used to perform key monitoring on each marked IP port at the time corresponding to the service end time of each marked IP port.

[0038] Furthermore, the display module includes:

[0039] The extraction module is used to extract the associated identifiers corresponding to the idle IP ports;

[0040] The association establishment module is used to establish a unique association between the association identifier and the idle IP port when the IoT service of the IoT operating system is detected to be started.

[0041] The page display module is used to display the associated identifier on the operation page of the IoT operating system.

[0042] Furthermore, the automatic matching module includes:

[0043] The demand monitoring module is used to monitor the service demands entered by the user in the service demand input interface in real time and extract the text content corresponding to the service demands.

[0044] The text recognition module is used to perform text recognition on the text content corresponding to the service request and obtain the service attributes corresponding to the service request input by the user.

[0045] The port filtering module is used to determine the parameter data of the required IP port based on the service attributes, and to match and compare the parameter data with the available IP ports to select the available IP port that matches the parameter data.

[0046] The matching configuration module is used to match the idle IP ports that match the parameter data with the user's service requirements, and to automatically configure the selected idle IP ports that match the parameter data according to the parameter data of the IP ports required by the service requirements.

[0047] Beneficial effects of this invention:

[0048] This invention proposes a service discovery-based IoT service method and system. By identifying user-input service requests, it filters available IP ports that match the service request parameters and automatically configures the IP ports accordingly. This eliminates the need for manual user intervention, enabling automated and intelligent port configuration. Furthermore, it eliminates the need for storing a separate service ID; the port or service name can be used directly for identification, minimizing the complexity of IP port configuration and maximizing efficiency and convenience. Attached Figure Description

[0049] Figure 1 This is a flowchart of the method described in this invention;

[0050] Figure 2 This is a system block diagram of the system described in this invention. Detailed Implementation

[0051] The preferred embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are for illustration and explanation only and are not intended to limit the present invention.

[0052] This invention proposes an IoT service method based on service discovery, such as... Figure 1 As shown, the IoT service method includes:

[0053] S1. Monitor the IoT operating system in real time to determine whether there are any idle IP ports within the IoT operating system;

[0054] S2. When the IoT service of the IoT operating system is detected to be started, the associated identifier of the idle IP port is directly displayed.

[0055] S3 provides a service request input interface for users;

[0056] S4. Monitor the service requests entered by the user in the service request input interface in real time, and automatically match idle IP ports according to the service requests;

[0057] S5. Display the associated identifiers of automatically matched idle IP ports, or, while maintaining the association, replace the associated identifiers of automatically matched idle IP ports with the service name corresponding to the service requirement.

[0058] The working principle of the above technical solution is as follows: First, the IoT operating system is monitored in real time to determine whether there are any idle IP ports within the IoT operating system; then, when the IoT service of the IoT operating system is detected to be started, the associated identifier of the idle IP port is directly displayed; subsequently, a service request input interface is provided to the user; then, the service request entered by the user in the service request input interface is monitored in real time, and an idle IP port is automatically matched according to the service request; finally, the associated identifier of the automatically matched idle IP port is displayed, or, while maintaining the association relationship, the associated identifier of the automatically matched idle IP port is replaced with the service name corresponding to the service request.

[0059] The advantages of the above technical solution are as follows: The IoT service method based on service discovery proposed in this embodiment identifies the service requirements input by the user, filters available IP ports that meet the service requirement parameters, and automatically configures the IP ports according to the user's service requirements. No manual operation by the user is required, making port configuration automated and more intelligent. Furthermore, it does not require storing a separate service ID for identification; the port or service name can be used directly for identification, minimizing the complexity of IP port configuration and maximizing efficiency and convenience by eliminating the need for manual operation by the user.

[0060] One embodiment of the present invention involves real-time monitoring of an IoT operating system to determine whether there are any idle IP ports within the IoT operating system, including:

[0061] S101. Real-time detection of whether there are idle IP ports in the IoT operating system;

[0062] S102. When an idle IP port is detected in the IoT operating system, each idle IP port is retrieved, and each idle IP port is encoded and associated with the corresponding encoding.

[0063] S103. When it is detected that there are no free IP ports in the IoT operating system, the actual service operation status of each occupied IP port is monitored in real time, and the service requirements corresponding to each occupied IP port are retrieved.

[0064] S104. Identify and determine the service period and service end time of the corresponding occupied IP port based on the service requirements of each occupied IP port, and mark the IP ports that are close to the service end time.

[0065] S105. At the corresponding time of the service end time of each marked IP port, focus on monitoring each marked IP port.

[0066] The working principle of the above technical solution is as follows: First, it detects in real time whether there are idle IP ports in the IoT operating system; then, when idle IP ports are detected in the IoT operating system, each idle IP port is retrieved, encoded, and associated with the corresponding encoding; subsequently, when no idle IP ports are detected in the IoT operating system, it monitors the actual service operation status of each occupied IP port in real time and retrieves the service requirements corresponding to each occupied IP port; then, based on the service requirements corresponding to each occupied IP port, it identifies and determines the service cycle and service end time of the corresponding occupied IP port, and marks IP ports that are close to the service end time; subsequently, it focuses on monitoring each marked IP port at the time corresponding to the service end time of each marked IP port.

[0067] The above technical solution achieves the following results: it effectively improves the efficiency of identifying idle IP ports, and the association identification method further enhances the ease of subsequent idle IP port retrieval. Furthermore, in the absence of idle IP ports, targeted monitoring based on the actual service status of already occupied IP ports further improves the monitoring efficiency of idle IP ports and effectively enhances the timeliness and targeting of idle IP port discovery. This prevents the problem of excessively long screening cycles, resource waste, and long response times caused by real-time scanning and screening of all ports instead of targeted identification of specific IP ports.

[0068] In one embodiment of the present invention, when the IoT service of the IoT operating system is detected to be started, the associated identifier of the idle IP port is directly displayed, including:

[0069] S201. Extract the associated identifier corresponding to the idle IP port;

[0070] S202. When the IoT service of the IoT operating system is detected to be started, a unique association is established between the association identifier and the idle IP port;

[0071] S203. Display the associated identifier on the operation page of the Internet of Things operating system.

[0072] The working principle of the above technical solution is as follows: First, extract the associated identifier corresponding to the idle IP port; then, when the IoT service of the IoT operating system is detected to be started, establish a unique association between the associated identifier and the idle IP port; finally, display the associated identifier on the operation page of the IoT operating system.

[0073] The above technical solution achieves the following results: by setting the association between the associated identifier and the available IP port, and by displaying the associated identifier, the system can provide users with a real-time view of the number and quantity of available IP ports. Furthermore, when an available IP port is selected, the associated identifier settings improve the speed of retrieving available IP ports.

[0074] One embodiment of the present invention involves real-time monitoring of service requests entered by users in the service request input interface, and automatic matching of available IP ports based on the service requests, including:

[0075] S401. Monitor the service requests entered by the user in the service request input interface in real time, and extract the text content corresponding to the service requests.

[0076] S402. Perform text recognition on the text content corresponding to the service request to obtain the service attribute corresponding to the service request input by the user;

[0077] S403. Determine the parameter data of the required IP port based on the service attributes, and compare the parameter data with the available IP ports to select the available IP port that matches the parameter data;

[0078] S404. Match the idle IP ports that match the parameter data with the user's service requirements, and automatically configure the selected idle IP ports that match the parameter data according to the parameter data of the IP ports required by the service requirements.

[0079] The working principle of the above technical solution is as follows: First, the service requirements entered by the user in the service requirement input interface are monitored in real time, and the text content corresponding to the service requirements is extracted; then, the text content corresponding to the service requirements is recognized to obtain the service attributes corresponding to the service requirements entered by the user; next, the parameter data of the required IP port is determined according to the service attributes, and the parameter data is compared with the available IP ports to select the available IP port that matches the parameter data; finally, the available IP port that matches the parameter data is matched with the user's service requirements, and the parameters of the selected available IP port that matches the parameter data are automatically configured according to the parameter data of the IP port required by the service requirements.

[0080] The advantages of the above technical solution are as follows: This method can identify user-inputted service requirements, filter available IP ports that match the service requirement parameters, and automatically configure the IP ports according to the user's service needs. No manual user intervention is required, enabling automated port configuration. Furthermore, it eliminates the need for storing a separate service ID; the port or service name can be used directly for identification. This minimizes the complexity of IP port configuration, maximizing efficiency and convenience.

[0081] This invention proposes an IoT service architecture based on service discovery, such as... Figure 2 As shown, the IoT service architecture includes:

[0082] The real-time monitoring module is used to monitor the IoT operating system in real time and determine whether there are any idle IP ports within the IoT operating system.

[0083] The display module is used to directly display the associated identifier of the idle IP port when the IoT service of the IoT operating system is detected to be started;

[0084] The interface module is used to provide users with a service request input interface;

[0085] An automatic matching module is used to monitor the service requirements entered by the user in the service requirement input interface in real time, and automatically match an available IP port according to the service requirements.

[0086] The IP port display module is used to display the associated identifiers of automatically matched idle IP ports, or, while maintaining the association relationship, replace the associated identifiers of automatically matched idle IP ports with the service name corresponding to the service requirement.

[0087] The working principle of the above technical solution is as follows: First, the real-time monitoring module monitors the IoT operating system in real time to determine whether there are any idle IP ports within the IoT operating system. Then, the display module directly displays the associated identifier of the idle IP port when the IoT service of the IoT operating system is detected to be started. Subsequently, the interface module provides a service request input interface for the user. Afterward, the automatic matching module monitors the service request entered by the user in the service request input interface in real time and automatically matches idle IP ports according to the service request. Finally, the IP port display module displays the associated identifier of the automatically matched idle IP ports, or, while maintaining the association, replaces the associated identifier of the automatically matched idle IP ports with the service name corresponding to the service request.

[0088] The advantages of the above technical solution are as follows: The IoT service system based on service discovery proposed in this embodiment identifies the service requirements input by the user, filters available IP ports that meet the service requirement parameters, and automatically configures the IP ports according to the user's service requirements. No manual operation by the user is required, making port configuration automated and more intelligent. Furthermore, it does not require storing a separate service ID for identification; the port or service name can be used directly for identification, minimizing the complexity of IP port configuration and maximizing efficiency and convenience by eliminating the need for manual operation by the user.

[0089] In one embodiment of the present invention, the real-time monitoring module includes:

[0090] The real-time detection module is used to detect in real time whether there are idle IP ports in the IoT operating system;

[0091] The identification module is used to retrieve each idle IP port when an idle IP port is detected in the IoT operating system, encode each idle IP port, and set an associated identifier corresponding to the encoding.

[0092] The retrieval module is used to monitor the actual service operation status of each occupied IP port in real time and retrieve the service requirements corresponding to each occupied IP port when it is detected that there are no free IP ports in the IoT operating system.

[0093] The marking module is used to identify and determine the service period and service end time of each occupied IP port based on the service requirements of each occupied IP port, and to mark IP ports that are close to the service end time.

[0094] The key monitoring module is used to perform key monitoring on each marked IP port at the time corresponding to the service end time of each marked IP port.

[0095] The working principle of the above technical solution is as follows: First, the real-time detection module detects whether there are idle IP ports in the IoT operating system in real time. Then, when an idle IP port is detected in the IoT operating system, the identification module retrieves each idle IP port, encodes each idle IP port, and sets an associated identifier corresponding to the code. Subsequently, when no idle IP ports are detected in the IoT operating system, the retrieval module monitors the actual service operation status of each occupied IP port in real time and retrieves the service requirements corresponding to each occupied IP port. Afterward, the marking module identifies and determines the service cycle and service end time of the corresponding occupied IP port based on the service requirements corresponding to each occupied IP port, and marks the IP ports that are close to the service end time. Finally, the key monitoring module performs key monitoring on each marked IP port at the time corresponding to the service end time of each marked IP port.

[0096] The above technical solution achieves the following results: it effectively improves the efficiency of identifying idle IP ports, and the association identification method further enhances the ease of subsequent idle IP port retrieval. Furthermore, in the absence of idle IP ports, targeted monitoring based on the actual service status of already occupied IP ports further improves the monitoring efficiency of idle IP ports and effectively enhances the timeliness and targeting of idle IP port discovery. This prevents the problem of excessively long screening cycles, resource waste, and long response times caused by real-time scanning and screening of all ports instead of targeted identification of specific IP ports.

[0097] In one embodiment of the present invention, the display module includes:

[0098] The extraction module is used to extract the associated identifiers corresponding to the idle IP ports;

[0099] The association establishment module is used to establish a unique association between the association identifier and the idle IP port when the IoT service of the IoT operating system is detected to be started.

[0100] The page display module is used to display the associated identifier on the operation page of the IoT operating system.

[0101] The working principle of the above technical solution is as follows: First, the associated identifier corresponding to the idle IP port is extracted by the extraction module; then, the association establishment module establishes a unique association between the associated identifier and the idle IP port when the IoT service of the IoT operating system is detected to be started; finally, the associated identifier is displayed on the operation page of the IoT operating system by the page display module.

[0102] The above technical solution achieves the following results: by setting the association between the associated identifier and the available IP port, and by displaying the associated identifier, the system can provide users with a real-time view of the number and quantity of available IP ports. Furthermore, when an available IP port is selected, the associated identifier settings improve the speed of retrieving available IP ports.

[0103] In one embodiment of the present invention, the automatic matching module includes:

[0104] The demand monitoring module is used to monitor the service demands entered by the user in the service demand input interface in real time and extract the text content corresponding to the service demands.

[0105] The text recognition module is used to perform text recognition on the text content corresponding to the service request and obtain the service attributes corresponding to the service request input by the user.

[0106] The port filtering module is used to determine the parameter data of the required IP port based on the service attributes, and to match and compare the parameter data with the available IP ports to select the available IP port that matches the parameter data.

[0107] The matching configuration module is used to match the idle IP ports that match the parameter data with the user's service requirements, and to automatically configure the selected idle IP ports that match the parameter data according to the parameter data of the IP ports required by the service requirements.

[0108] The working principle of the above technical solution is as follows: First, the demand monitoring module monitors the service demand entered by the user in the service demand input interface in real time and extracts the text content corresponding to the service demand; then, the text recognition module performs text recognition on the text content corresponding to the service demand to obtain the service attributes corresponding to the service demand entered by the user; subsequently, the port filtering module determines the parameter data of the required IP port according to the service attributes, and compares the parameter data with the available IP ports, selecting the available IP port that matches the parameter data; finally, the matching configuration module matches the available IP port that matches the parameter data with the user's service demand, and automatically configures the parameters of the selected available IP port that matches the parameter data according to the parameter data of the IP port required by the service demand.

[0109] The advantages of the above technical solution are as follows: This method can identify user-inputted service requirements, filter available IP ports that match the service requirement parameters, and automatically configure the IP ports according to the user's service needs. No manual user intervention is required, enabling automated port configuration. Furthermore, it eliminates the need for storing a separate service ID; the port or service name can be used directly for identification. This minimizes the complexity of IP port configuration, maximizing efficiency and convenience.

[0110] Obviously, those skilled in the art can make various modifications and variations to this invention without departing from its spirit and scope. Therefore, if these modifications and variations fall within the scope of the claims of this invention and their equivalents, this invention also intends to include these modifications and variations.

Claims

1. A service discovery based Internet of Things service method, characterized by, The IoT service method includes: Real-time monitoring of the IoT operating system to determine whether there are any idle IP ports within the IoT operating system; When the IoT service of the IoT operating system is detected to be started, the associated identifier of the idle IP port will be displayed directly. Provides a user interface for inputting service requests; The system monitors the service requests entered by the user in the service request input interface in real time and automatically matches available IP ports based on the service requests. Display the associated identifiers of automatically matched free IP ports, or, while maintaining the association, replace the associated identifiers of automatically matched free IP ports with the service name corresponding to the service requirement; This includes real-time monitoring of the IoT operating system to determine whether there are any free IP ports within the IoT operating system, including: Real-time detection of available IP ports in the IoT operating system; When an idle IP port is detected in the IoT operating system, each idle IP port is retrieved, and each idle IP port is encoded and associated with the corresponding encoding. When it is detected that there are no free IP ports in the IoT operating system, the actual service operation status of each occupied IP port is monitored in real time, and the service requirements corresponding to each occupied IP port are retrieved. Based on the service requirements corresponding to each occupied IP port, identify and determine the service period and service end time of the occupied IP port, and mark the IP ports that are close to the service end time. For each marked IP port, key monitoring will be conducted at the time corresponding to the service end time of each marked IP port; Specifically, when the IoT service of the IoT operating system is detected to be running, the associated identifier of the idle IP port is directly displayed, including: Extract the associated identifiers corresponding to the idle IP ports; When the IoT service of the IoT operating system is detected to be started, a unique association is established between the association identifier and the idle IP port; The associated identifier is displayed on the operation page of the IoT operating system; This includes real-time monitoring of the service requests entered by the user in the service request input interface, and automatic matching of available IP ports based on the service requests, including: Real-time monitoring of the service requests entered by the user in the service request input interface, and extraction of the text content corresponding to the service requests; Perform text recognition on the text content corresponding to the service request to obtain the service attributes corresponding to the service request input by the user; The required IP port parameter data is determined based on the service attributes, and the parameter data is compared with the available IP ports to select the available IP port that matches the parameter data. The idle IP ports that match the parameter data are matched with the user's service requirements, and the selected idle IP ports that match the parameter data are automatically configured according to the parameter data of the IP ports required by the service requirements.

2. An IoT service architecture based on service discovery, characterized in that, The IoT service architecture includes: The real-time monitoring module is used to monitor the IoT operating system in real time and determine whether there are any idle IP ports within the IoT operating system. The display module is used to directly display the associated identifier of the idle IP port when the IoT service of the IoT operating system is detected to be started; The interface module is used to provide users with a service request input interface; An automatic matching module is used to monitor the service requirements entered by the user in the service requirement input interface in real time, and automatically match an available IP port according to the service requirements. The IP port display module is used to display the associated identifiers of automatically matched idle IP ports, or, while maintaining the association relationship, replace the associated identifiers of automatically matched idle IP ports with the service name corresponding to the service requirement; The real-time monitoring module includes: The real-time detection module is used to detect in real time whether there are idle IP ports in the IoT operating system; The identification module is used to retrieve each idle IP port when an idle IP port is detected in the IoT operating system, encode each idle IP port, and set an associated identifier corresponding to the encoding. The retrieval module is used to monitor the actual service operation status of each occupied IP port in real time and retrieve the service requirements corresponding to each occupied IP port when it is detected that there are no free IP ports in the IoT operating system. The marking module is used to identify and determine the service period and service end time of each occupied IP port based on the service requirements of each occupied IP port, and to mark IP ports that are close to the service end time. The key monitoring module is used to perform key monitoring on each marked IP port at the time corresponding to the service end time of each marked IP port; The display module includes: The extraction module is used to extract the associated identifiers corresponding to the idle IP ports; The association establishment module is used to establish a unique association between the association identifier and the idle IP port when the IoT service of the IoT operating system is detected to be started. The page display module is used to display the associated identifier on the operation page of the IoT operating system; The automatic matching module includes: The demand monitoring module is used to monitor the service demands entered by the user in the service demand input interface in real time and extract the text content corresponding to the service demands. The text recognition module is used to perform text recognition on the text content corresponding to the service request and obtain the service attributes corresponding to the service request input by the user. The port filtering module is used to determine the parameter data of the required IP port based on the service attributes, and to match and compare the parameter data with the available IP ports to select the available IP port that matches the parameter data. The matching configuration module is used to match the idle IP ports that match the parameter data with the user's service requirements, and to automatically configure the selected idle IP ports that match the parameter data according to the parameter data of the IP ports required by the service requirements.

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