CN117667065A - A low-code application configuration platform - Google Patents

Abstract

The invention provides a low-code application configuration platform, which comprises: the scene access module is used for reading the target service, determining the service scene of the target service and accessing the service scene to the Internet of things platform; the system comprises an object model creation module, a data message integration access module, an object model conversion module and an object model storage module, wherein the object model creation module is used for creating a unified rule engine of a target service based on an object connection platform, meanwhile, the object model creation module is used for creating an object model based on the unified rule engine, the data message integration access module is used for obtaining management individuals of the target service and determining data messages of each management individual, and meanwhile, the data messages of each management individual are integrated and accessed into the object connection platform based on the object model according to message conversion rules; the low code configuration module is used for carrying out low code configuration on the target service based on the Internet of things platform based on the access result and carrying out visual display. The method and the system realize effective configuration of low-code programs required by different management individuals through the Internet of things platform, ensure reliable operation of the low-code in an application scene, and reduce technical threshold and operation and maintenance cost.

Description

A low-code application configuration platform

Technical field

The invention relates to the field of computer technology, and in particular to a low-code application configuration platform.

Background technique

The low-code application configuration platform is a tool for rapid application development. It can create applications while reducing manual coding. It has flexibility, efficiency, reliability and security. At the same time, because of its low technical threshold, Easy maintenance and repair features are widely used in various fields;

However, traditional low-code application configuration platforms often suffer from incoordination of devices in existing technologies, isolated device management on each platform, diverse hardware types, and numerous communication technologies, resulting in the fragmentation of independent application scenarios, high entry barriers, and poor operation and maintenance. high cost issues;

Therefore, in order to overcome the above problems, the present invention provides a low-code application configuration platform.

Contents of the invention

The present invention provides a low-code application configuration platform to determine the business scenarios of different target businesses and connect the business scenarios with the Internet of Things platform to facilitate unified and effective data messages of different business entities through the Internet of Things platform. Receiving and processing, secondly, the unified rule engine of the target business created by the IoT platform integrates and processes the data messages of different business entities, coordinates the collaborative work of the equipment on each platform, and realizes the integration and processing of the data messages of different business entities through the IoT platform. Effectively configure the required low-code programs to ensure reliable operation of low-code in application scenarios. Finally, the low-code configuration results are visually displayed to facilitate real-time display of the configuration process, which reduces the technical threshold and operation and maintenance costs. At the same time, This ensures the accuracy and reliability of low-code configuration.

A low-code application configuration platform that includes:

The scenario access module is used to read the target business, determine the business scenario of the target business, and connect the business scenario to the IoT platform;

The object model creation module is used to create a unified rule engine for the target business based on the IoT platform. At the same time, it creates an object model based on the unified rule engine.

The data message integration access module is used to obtain the business entities of the target business and determine the data messages of each business entity. At the same time, based on the object model, the data messages of each business entity are integrated according to the message conversion rules and Access to the IoT platform;

The low-code configuration module is used to perform low-code configuration of the target business based on the IoT platform based on the access results, and perform visual display.

Preferably, a low-code application configuration platform and scene access module include:

The business reading unit is used to obtain the user's target business, read the target business, and determine the business scenario of the target business;

The access unit is used to determine the service type based on the business scenario, construct the service type in the IoT platform, and complete the access of the business scenario to the IoT platform based on the construction results.

Preferably, a low-code application configuration platform and access unit include:

The service type determination unit is used to obtain the service type of the business scenario, where the service types of the business scenario include: scenario service, hardware service, data service, management service and operation and maintenance service;

Among them, scenario services are used to build IoT scenarios in the IoT platform;

Hardware services are used to select hardware in the IoT platform based on business scenarios;

Data services are used for device access and data cleaning in the IoT platform;

Management services are used for comprehensive equipment management and equipment linkage for target businesses in the IoT platform;

Operation and maintenance services are used to create smart installations, business physical examinations, and smart work orders based on target businesses in the IoT platform.

Preferably, a low-code application configuration platform and object model creation module include:

The engine creation unit is used to create a unified rule engine based on the business rules of the target business;

The object model creation unit is used to determine the message conversion rules based on the unified rule engine, and build the object model based on the message conversion rules.

Preferably, a low-code application configuration platform and engine creation unit include:

The rule type determination subunit is used to read the business rules of the target business and determine the rule type of the business rules;

The rule division subunit is used to divide business rules based on the rule type of the business rule to obtain multiple sub-business rules;

The sub-rule engine determines sub-units for:

Read each sub-business rule and determine the rule conditions of each sub-business rule and the rule boundaries corresponding to the rule conditions;

Build the corresponding sub-rule engine based on the rule conditions of each sub-business rule and the rule boundaries corresponding to the rule conditions;

The unified rule engine obtains a sub-unit, which is used to synthesize the sub-rule engines corresponding to all rule types to obtain a unified rule engine.

Preferably, a low-code application configuration platform and data message integration access module include:

The data message reading unit is used to read the business entities of the target business and determine the data messages of each business entity;

The message conversion unit is used to verify the data messages of each business entity based on the physical model. When the verification is qualified, the message conversion unit of each business entity is converted based on the message conversion rules based on the physical model, and each business entity is obtained. Management data of each business entity;

The data integration access unit is used to integrate the management data of each business entity based on the object model, and at the same time, access the integrated management data to the IoT platform.

Preferably, a low-code application configuration platform and message conversion unit include:

Check subunit, used for:

Obtain the verification standard based on the object model, and at the same time, match the data message of each business entity with the verification standard;

When the data message of the business entity matches the verification standard, it is determined that the business entity meets the verification standard; when the data message of the business entity does not match the verification standard, it is determined that the business entity does not meet the verification standard;

The message data recording subunit is used to record the message data corresponding to the business entity that does not meet the verification standards when the business entity does not meet the verification standards, and generate an alarm report based on the recording results;

The alarm subunit is used to transmit the alarm report to the monitoring terminal, and at the same time, generate an alarm signal based on the alarm report, and perform alarm operations on the monitoring terminal based on the alarm signal.

Preferably, a low-code application configuration platform and data integration access unit include:

The device port determination subunit is used to determine the device port of the management data based on the integration result;

The access information acquisition subunit is used to obtain the device brand, device model and number of projects corresponding to the device port of the management data, and generate the access information of the device port based on the device brand, device model and number of projects of the operating entity;

The access subunit is used to translate and analyze the access information of the device port, and access the integrated management data to the IoT platform based on the device port based on the translation and analysis results.

Preferably, a low-code application configuration platform and low-code configuration module include:

Low-code hive for:

Based on the access results, perform low-code configuration of the target business on the IoT platform;

Among them, low-code configurations include:

Code generation configuration, form configuration, form design configuration, process design configuration, data visualization configuration, permission configuration, system monitoring configuration and management configuration;

The visualization unit is used to visually display the target business based on low-code configuration results.

Preferably, a low-code application configuration platform and low-code configuration module include:

The operation monitoring unit is used to monitor the operating status of the target business on the IoT platform after completing the low-code configuration of the target business, and obtain operation logs in real time;

The log adjustment unit is used to obtain the log specification template, and format and adjust the operation log based on the log specification template to obtain the standard operation log;

Anomaly monitoring model building block for:

Obtain the exception category, and at the same time, obtain the business requirements of the target business, and set monitoring indicators and monitoring intervals for each exception category based on the business requirements of the target business;

Set the operation monitoring interval based on the monitoring indicators and monitoring areas corresponding to each abnormality category. At the same time, learn the operation monitoring mechanism and determine the abnormality monitoring model elements corresponding to each abnormality category;

The anomaly monitoring model elements corresponding to each anomaly category are synthesized to construct an anomaly monitoring model for anomaly monitoring of standard operation logs;

An abnormality identification unit is used to input standard operation logs into the abnormality monitoring model for identification, and output monitoring results based on the identification results;

Exception positioning unit, used for:

When there is an abnormality in the standard operation log in the monitoring results, read the abnormal operation log and determine the abnormal fields in the abnormal operation log;

Perform abnormal location based on abnormal fields, determine the abnormal parts of the IoT platform, and upload the abnormal parts to the monitoring terminal.

Compared with the prior art, the beneficial effects of the present invention are:

1. By determining the business scenarios of different target businesses and connecting the business scenarios with the IoT platform, it is convenient to uniformly and effectively receive and process the data messages of different business entities through the IoT platform. Secondly, create a The unified rule engine of the target business integrates and processes the data messages of different business entities, coordinates the collaborative work of various platform devices, and realizes the effective configuration of low-code programs required by different business entities through the IoT platform, ensuring Reliable operation of low-code in application scenarios. Finally, the low-code configuration results are visually displayed to facilitate real-time display of the configuration process, which reduces the technical threshold and operation and maintenance costs. At the same time, it ensures the accuracy and reliability of low-code configuration. .

2. By reading the business entity (i.e. supplier) of the target business, the data message corresponding to the business entity can be effectively determined. By verifying the data message, the security of access to the business entity can be effectively guaranteed. accuracy and effectiveness, so that the message conversion is performed according to the message conversion rules through the object model, thereby obtaining standard management data, and the management data is integrated and accessed based on the object model, effectively avoiding the problem of fragmentation of the Internet of Things, thus It ensures the linkage of equipment corresponding to each business entity in the same IoT platform and improves the management efficiency of the target business.

3. By constructing multiple anomaly monitoring model elements for identifying logs and integrating multiple anomaly monitoring model elements, an anomaly monitoring model for monitoring standard operation logs can be obtained, which can effectively ensure real-time monitoring of operation logs, and then Ensure the robustness of the network.

Additional features and advantages of the invention will be set forth in the description which follows, and in part will be apparent from the description, or may be learned by practice of the invention. The objects and other advantages of the invention may be realized and obtained by means of the structure particularly pointed out in this application document.

The technical solution of the present invention will be further described in detail below through the accompanying drawings and examples.

Description of drawings

The drawings are used to provide a further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention. In the attached picture:

Figure 1 is a structural diagram of a low-code application configuration platform in an embodiment of the present invention;

Figure 2 is a structural diagram of a scene access module in a low-code application configuration platform in an embodiment of the present invention;

Figure 3 is a structural diagram of a data message integration access module in a low-code application configuration platform in an embodiment of the present invention;

Figure 4 is a schematic diagram of integrated access of data messages in a low-code application configuration platform in an embodiment of the present invention;

Figure 5 is a translation analysis diagram of a low-code application configuration platform in an embodiment of the present invention;

Figure 6 is a flow chart of a low-code application configuration platform object model creation module in an embodiment of the present invention.

Detailed ways

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 here are only used to illustrate and explain the present invention, and are not intended to limit the present invention.

Example 1:

This embodiment provides a low-code application configuration platform, as shown in Figure 1, including:

The scenario access module is used to read the target business, determine the business scenario of the target business, and connect the business scenario to the IoT platform;

The object model creation module is used to create a unified rule engine for the target business based on the IoT platform. At the same time, it creates an object model based on the unified rule engine.

The data message integration access module is used to obtain the business entities of the target business and determine the data messages of each business entity. At the same time, based on the object model, the data messages of each business entity are integrated according to the message conversion rules and Access to the IoT platform;

The low-code configuration module is used to perform low-code configuration of the target business based on the IoT platform based on the access results, and perform visual display.

In this embodiment, the target business may be a business that needs to be managed and monitored according to customer needs, and may include: multiple suppliers (ie business entities) accessing the IoT platform to achieve integrated management of suppliers.

In this embodiment, the unified rules engine can be a system used to manage and execute rules for target services, and can centrally manage and uniformly execute various types of rules, thereby ensuring automated processing of decision-making and business logic.

In this embodiment, the object model may be a model that describes the attributes, behaviors, and associations of IoT devices when different business entities are connected to a unified IoT platform.

In this embodiment, it may be determined based on the object model to unify the format of the data message.

The working principle and beneficial effect of the above technical solution is: by determining the business scenarios of different target businesses and connecting the business scenarios with the IoT platform, it is convenient to uniformly and effectively receive and effectively receive and receive data messages from different business entities through the IoT platform. Processing, secondly, the unified rule engine of the target business created by the IoT platform integrates and processes the data messages of different business entities, coordinates the collaborative work of the equipment on each platform, and realizes the requirements of different business entities through the IoT platform. Effective configuration of low-code programs ensures the reliable operation of low-code in application scenarios. Finally, the low-code configuration results are visually displayed to facilitate real-time display of the configuration process, which reduces the technical threshold and operation and maintenance costs. At the same time, it ensures Low-code configuration accuracy and reliability.

Example 2:

Based on Embodiment 1, this embodiment provides a low-code application configuration platform. As shown in Figure 2, the scene access module includes:

The business reading unit is used to obtain the user's target business, read the target business, and determine the business scenario of the target business;

The access unit is used to determine the service type based on the business scenario, construct the service type in the IoT platform, and complete the access of the business scenario to the IoT platform based on the construction results.

In this embodiment, the service types of business scenarios include: scenario services, hardware services, data services, management services, and operation and maintenance services; among them, scenario services are used to build IoT scenarios in the IoT platform; hardware services are used to build IoT scenarios based on business scenarios. Hardware selection is performed in the IoT platform; data services are used for device access and data cleaning in the IoT platform; management services are used for comprehensive device management and device linkage for target businesses in the IoT platform; operation and maintenance services Used to create smart installation, business physical examination and smart work orders based on target businesses in the IoT platform.

The working principle and beneficial effect of the above technical solution is: by determining the business scenario of the target business, the service type can be effectively selected, and then the service type can be constructed in the IoT platform, effectively ensuring the integration of the target business in the IoT platform. access, thereby lowering the threshold for the Internet of Things.

Example 3:

Based on Embodiment 1, this embodiment provides a low-code application configuration platform and object model creation module, as shown in Figure 6, including:

The engine creation unit is used to create a unified rule engine based on the business rules of the target business;

The object model creation unit is used to determine the message conversion rules based on the unified rule engine, and build the object model based on the message conversion rules.

In this embodiment, the unified rules engine can be a system used to manage and execute rules for target services, and can centrally manage and uniformly execute various types of rules, thereby ensuring automated processing of decision-making and business logic.

The working principle and beneficial effects of the above technical solution are: by determining business rules, and then effectively realizing the creation of a unified rule engine, thereby effectively realizing the construction of the object model, and then effectively achieving hardware heterogeneity through accessibility based on the object model. By establishing a unified rule engine, different hardware can work under the same rule engine to achieve unified scheduling.

Example 4:

Based on Embodiment 3, this embodiment provides a low-code application configuration platform and engine creation unit, including:

The rule type determination subunit is used to read the business rules of the target business and determine the rule type of the business rules;

The rule division subunit is used to divide business rules based on the rule type of the business rule to obtain multiple sub-business rules;

The sub-rule engine determines sub-units for:

Read each sub-business rule and determine the rule conditions of each sub-business rule and the rule boundaries corresponding to the rule conditions;

Build the corresponding sub-rule engine based on the rule conditions of each sub-business rule and the rule boundaries corresponding to the rule conditions;

The unified rule engine obtains a sub-unit, which is used to synthesize the sub-rule engines corresponding to all rule types to obtain a unified rule engine.

In this embodiment, the rule conditions may be limited parameters used to restrict the target service's access to the IoT platform, such as: access type, access port type, etc., where the rule boundary is the executable range of the rule conditions.

The working principle and beneficial effects of the above technical solution are: by dividing business rules, corresponding sub-rule engines are built based on sub-business rules, and then by integrating the sub-rule engines, a unified rule engine is obtained, which improves the understanding of the unified rule engine. The sophistication of the construction ensures the accuracy and effectiveness of the unified rule engine construction.

Example 5:

Based on Embodiment 1, this embodiment provides a low-code application configuration platform. As shown in Figure 3-4, the data message integration access module includes:

The data message reading unit is used to read the business entities of the target business and determine the data messages of each business entity (i.e. supplier);

The message conversion unit is used to verify the data messages of each business entity based on the physical model. When the verification is qualified, each business entity is converted into a data message based on the physical model according to the message conversion rules (i.e. physical model-translator). Individuals convert messages and obtain the management data of each business entity;

The data integration access unit is used to integrate the management data of each business entity based on the object model, and at the same time, access the integrated management data to the IoT platform.

In this embodiment, the message conversion unit includes: a check subunit, which is used to obtain the check standard based on the object model (the check standard may include: the type of message data, the communication method of the equipment access terminal of the business entity, communication protocol, etc.), at the same time, the data message of each business entity is matched with the verification standard; when the data message of the business entity matches the verification standard, it is determined that the business entity meets the verification standard; when the business entity When the data message does not match the verification standard, it is determined that the business entity does not meet the verification standard; the message data recording subunit is used to detect the business entity that does not meet the verification standard when the business entity does not meet the verification standard. The corresponding message data is recorded, and an alarm report is generated based on the recording results; the alarm subunit is used to transmit the alarm report to the monitoring terminal, and at the same time, generate an alarm signal based on the alarm report, and perform alarm operations on the monitoring terminal based on the alarm signal ( For example, it can be an operation such as popping up an alarm warning icon on the monitoring terminal).

The working principle and beneficial effect of the above technical solution is: by reading the business entity (i.e. supplier) of the target business, the data message corresponding to the business entity can be effectively determined, and by verifying the data message, the data message can be effectively determined. Ensure the security and effectiveness of access to business entities, so as to convert messages according to message conversion rules through the object model to obtain standard management data, and integrate and access the management data based on the object model to effectively avoid It solves the problem of fragmentation of the Internet of Things, thereby ensuring the linkage of equipment corresponding to each business entity in the same Internet of Things platform, and improving the management efficiency of the target business.

Example 6:

Based on Embodiment 5, this embodiment provides a low-code application configuration platform and a data integration access unit, including:

The device port determination subunit is used to determine the device port of the management data based on the integration result;

The access information acquisition subunit is used to obtain the device brand, device model and number of projects corresponding to the device port of the management data, and generate the access information of the device port based on the device brand, device model and number of projects of the operating entity;

The access subunit is used to translate and analyze the access information of the device port, and access the integrated management data to the IoT platform based on the device port based on the translation and analysis results.

In this embodiment, translating and parsing the access information of the device port may include, as shown in Figure 5: a registration command for the access information of the device port, and completing the translation and parsing of the access information of the device port based on the registration result, Among them, the registration command includes: serial number, data packet length, and data content;

Copy the data content to the online encoding and decoding tool to obtain: command words, type flags, number of information objects, data format compared to the "registration" frame, and application data unit length.

In this embodiment, the device port is the port through which the device corresponding to the supplier (that is, the business entity) accesses the IoT platform.

The working principle and beneficial effects of the above technical solution are: determine the device port of the management data through the integration result, and then determine the access information of the device port, and translate and analyze the access information of the device port, thereby effectively realizing the access to the management data. input, effectively realizing hardware heterogeneity.

Example 7:

Based on Embodiment 1, this embodiment provides a low-code application configuration platform and a low-code configuration module, including:

Low-code hive for:

Based on the access results, perform low-code configuration of the target business on the IoT platform;

Among them, low-code configurations include:

Code generation configuration, form configuration, form design configuration, process design configuration, data visualization configuration, permission configuration, system monitoring configuration and management configuration;

The visualization unit is used to visually display the target business based on low-code configuration results.

In this embodiment, code generation configuration includes: database configuration (code generation can be consistent with the platform database, no additional configuration is required, and multi-data source configuration can also be implemented), online table creation through online forms (online form development and configuration of the form Afterwards, the online form is synchronized in the database), and the online form field control configuration (the control type of the online form field supports drop-down, radio, checkbox, selector, department selection, popup, drop-down search, province, city, county, drop-down multiple selection, etc. , to meet the needs of online low-code development), online form attribute configuration (configure database attributes, page attributes, verification fields, foreign keys, indexes, queries and other attributes), generate code (click the code generation button above the online form and select The form that needs to be generated can bring up the code generation interface), generate code structure (click the code generation button above the online form, select the form that needs to be generated, and you can bring up the code generation interface), GUI code generation usage (single Table code generation, one-to-many code generation).

In this embodiment, the form configuration is an Online form configuration, which includes: main table configuration (main table creation: set the form type to the main table, attachment table configuration: attachment table creation, set the form type to the attachment table, configure foreign key fields; Attached table foreign key settings: Set the main table name, main table field, and effect preview corresponding to this field: The main table serves as the unified form function test entrance, and the attached table does not provide a functional test entrance; click the main table, and the functional test link enters the form list. Open the form interface; the master-subtable relationship will be automatically displayed in the appendix field of the master table (multiple appendices will be separated by commas). After the main table and appendix are created, click Synchronize Database respectively to create the table. Note that appendices cannot be maintained separately. Data; one-to-one and one-to-many configuration, through table type setting, sub-table tab display order is controlled by serial number), tree form, query configuration (form query configuration, query sorting configuration, joint query configuration, custom query configuration) As well as deletion and removal, menu configuration (copy form address - create form - assign permissions), validation rules (use validation rules, maintain validation rules, complex validation rules), form views, permission configuration (first set permissions through authorization management Rules, and then assign required permissions to roles, people, and departments through authorization, including: Field permission configuration: First set permission rules through authorization management, and then assign required permissions to roles, people, and departments through authorization; Button permission configuration , data permission configuration).

In this embodiment, the form design configuration includes: form components and mobile form design.

In this embodiment, the process design configuration includes: process creation, process configuration, process design (for example: designer area design, select the user task and drag it to the designer area to add process nodes; user type: the type includes the designated person, There are three types of candidates and candidate roles: 1) Designated person, which can only be assigned to one specific person; 2) Candidates, which can be assigned to multiple people (all selected people can see the task, and after one of them [signs], the tasks of others will Disappear in the list) 3) Candidate role, assigned to one or more roles (personnel in the role can see the task, after one of them [signs], the other people’s tasks disappear in the list)), business binding and Process release.

In this embodiment, the data visualization configuration includes: Big Screen Designer (Visual Data Big Screen is a one-stop data visualization display platform that carefully presets a variety of industry templates to display the charm of data to the extreme. It adopts a drag-and-drop free layout without coding. , full graphical editing, fast visual production. The large-screen designer supports multiple data source configurations and supports real-time synchronous data updates. At the same time, the large-screen designer is based on WEB page rendering and can flexibly project multiple screen terminals) and dashboard design (The data is presented in a visual form in the form of various charts and graphical designs. You can drag and drop to complete the design of various components such as charts or tables. No coding is required. It supports multiple data source configurations and supports real-time refresh of data. and data filtering is convenient and fast), Online chart visualization (single data source chart, SQL data format chart, API data format chart).

In this embodiment, permission configuration includes role access control.

In this embodiment, the system monitoring configuration includes: the system monitoring module performs gateway routing, scheduled tasks, multi-data source management, SQL monitoring, data logs, performance monitoring (Redis monitoring, server information, Tomcat information, JVM information, request tracking, disk Monitoring) and other aspects of monitoring and analysis.

In this embodiment, the management configuration includes: IoT dashboard, asset management, device management and rule management.

The working principle and beneficial effect of the above technical solution is: through low-code configuration of the target business based on the IoT platform, it can effectively ensure that users are provided with integrated IoT access services, thereby effectively lowering the IoT threshold and improving the target business. Management efficiency of management.

Example 8:

Based on Embodiment 1, this embodiment provides a low-code application configuration platform and a low-code configuration module, including:

The operation monitoring unit is used to monitor the operating status of the target business on the IoT platform after completing the low-code configuration of the target business, and obtain operation logs in real time;

The log adjustment unit is used to obtain the log specification template, and format and adjust the operation log based on the log specification template to obtain the standard operation log;

Anomaly monitoring model building block for:

Obtain the exception category, and at the same time, obtain the business requirements of the target business, and set monitoring indicators and monitoring intervals for each exception category based on the business requirements of the target business;

Set the operation monitoring interval based on the monitoring indicators and monitoring areas corresponding to each abnormality category. At the same time, learn the operation monitoring mechanism and determine the abnormality monitoring model elements corresponding to each abnormality category;

The anomaly monitoring model elements corresponding to each anomaly category are synthesized to construct an anomaly monitoring model for anomaly monitoring of standard operation logs;

An abnormality identification unit is used to input standard operation logs into the abnormality monitoring model for identification, and output monitoring results based on the identification results;

Exception positioning unit, used for:

When there is an abnormality in the standard operation log in the monitoring results, read the abnormal operation log and determine the abnormal fields in the abnormal operation log;

Perform abnormal location based on abnormal fields, determine the abnormal parts of the IoT platform, and upload the abnormal parts to the monitoring terminal.

In this embodiment, the log specification template may be set in advance, and is used to standardize and adjust the operation log, thereby obtaining the standard operation log, in order to better implement the analysis of the standard operation log.

In this embodiment, the abnormality category may be a type of abnormality monitoring determined based on the business requirements of the target service (for example, monitoring the running time and transmission time of the device, etc.), equipment failure, transmission delay, etc. And the monitoring index is determined by the abnormal category, where the abnormal category corresponds to the monitoring index one-to-one, and the monitoring interval can be the standard for determining whether an abnormality occurs, that is, if it is within this interval, it is determined that an abnormality has occurred.

In this embodiment, the operation monitoring mechanism may be a monitoring mechanism determined by monitoring indicators and monitoring intervals to identify the current abnormality type.

In this embodiment, the anomaly monitoring model may be constructed from anomaly monitoring model elements determined by multiple anomaly categories.

In this embodiment, the exception field may be a text section in the abnormal operation log where the exception occurs.

The working principle and beneficial effect of the above technical solution is: by constructing multiple anomaly monitoring model elements for identifying logs, and integrating the multiple anomaly monitoring model elements, an anomaly monitoring model for monitoring standard operation logs is obtained, which can effectively Ensure real-time monitoring of operation logs, thereby ensuring the robustness of the network.

Example 9:

Based on Embodiment 1, this embodiment provides a low-code application configuration platform and a low-code configuration module, including:

Business reading unit, used for:

Read the target business, determine the business execution node and business logic of the target business, and obtain the low-code data packet corresponding to the business execution node;

Among them, the business logic includes the execution logic of the target business and the location logic of the business execution node;

The low-code module determination unit is used to retrieve the low-code data package in the visual interface and obtain the corresponding low-code module;

The basic framework building unit is used to position the low-code modules based on the position logic of each business execution node in the target business, and at the same time, builds the basic framework of the low-code modules based on the position sorting results;

Low-code runtime building blocks for:

Obtain the execution key nodes of the business logic in the target business, where the execution key nodes include the execution module and the execution actions corresponding to the execution module;

Locate low-code modules in the basic framework based on execution key points, and at the same time, determine the correlation between the positioned low-code modules based on execution actions;

Link each low-code module in the basic framework according to the correlation between each low-code module, and at the same time, build a low-code operating mechanism based on the linkage results;

Low-code running mechanism verification unit, used for:

Based on the target business, set the sample data and the operation data corresponding to the sample data. At the same time, input the sample data to the low-code operation mechanism for operation, and at the same time, output the experimental data;

Match the experimental data with the operating data corresponding to the sample data to determine whether the low-code operating mechanism is qualified;

When the experimental data matches the operating data corresponding to the sample data, the low-code operating mechanism is determined to be qualified;

When the experimental data does not match the operating data corresponding to the sample data, the low-code operating mechanism is determined to be unqualified, and the low-code operating mechanism is optimized until the low-code operating mechanism is qualified.

In this embodiment, the business logic includes the execution logic of the target business (ie, the order of execution) and the location logic of the service execution nodes (ie, the order of placement).

In this embodiment, the service execution node may be the data message node corresponding to each business entity.

The working principle and beneficial effect of the above technical solution is: by determining the business execution node and business logic of the target business, at the same time, according to the business logic, the business execution logic of the target business and the location logic of the business node can be effectively determined, thereby through the location of the business node The logic effectively implements the position sorting of business nodes, thereby obtaining the basic framework of the low-code model. Through business logic, the key nodes for execution (i.e., required modules such as tables, display headers, etc.) are determined. By executing key nodes, low-level data can be effectively transferred. The code module, by linking the low-code modules, effectively and accurately builds the low-code operating mechanism, and effectively guarantees the effectiveness and executability of the low-code operating mechanism by conducting qualification verification on the low-code operating mechanism.

Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the invention. In this way, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and equivalent technologies, the present invention is also intended to include these modifications and variations.

Claims (10)

1. A low code application configuration platform, comprising:

the scene access module is used for reading the target service, determining the service scene of the target service and accessing the service scene to the Internet of things platform;

the object model creation module is used for creating a unified rule engine of the target service based on the internet of things platform, and creating an object model based on the unified rule engine,

the data message integration access module is used for acquiring the management individuals of the target service, determining the data message of each management individual, integrating the data message of each management individual according to the message conversion rule based on the object model and accessing the integrated data message into the internet of things platform;

and the low code configuration module is used for carrying out low code configuration on the target service based on the Internet of things platform based on the access result and carrying out visual display.

2. The low code application configuration platform of claim 1, wherein the scene access module comprises:

the service reading unit is used for acquiring the target service of the user, reading the target service and determining the service scene of the target service;

the access unit is used for determining the service type based on the service scene, constructing the service type in the Internet of things platform, and completing the access of the service scene to the Internet of things platform based on the construction result.

3. The low code application configuration platform of claim 2, wherein the access unit comprises:

the service type determining unit is configured to obtain a service type of a service scenario, where the service type of the service scenario includes: scene service, hardware service, data service, management service, and operation and maintenance service;

the scene service is used for constructing an internet of things (IoT) scene in the internet of things platform;

the hardware service is used for carrying out hardware type selection in the internet of things platform based on the service scene;

the data service is used for performing equipment access and data cleaning in the internet of things platform;

the management service is used for carrying out comprehensive equipment management and equipment linkage on the target service in the internet of things platform;

the operation and maintenance service is used for creating intelligent installation, business physical examination and intelligent worksheets based on the target business in the internet of things platform.

4. The low code application configuration platform of claim 1, wherein the object model creation module comprises:

an engine creation unit for creating a unified rule engine based on the business rules of the target business;

and the object model creation unit is used for determining message conversion rules based on the unified rule engine and constructing an object model based on the message conversion rules.

5. The low code application configuration platform of claim 4, wherein the engine creation unit comprises:

the rule type determining subunit is used for reading the service rule of the target service and determining the rule type of the service rule;

the rule dividing subunit is used for dividing the business rule based on the rule type of the business rule to obtain a plurality of sub-business rules;

the sub-rule engine determines a sub-unit for:

reading each sub-business rule, and determining rule conditions of each sub-business rule and rule boundaries corresponding to the rule conditions;

constructing a corresponding sub-rule engine based on rule conditions of each sub-business rule and rule boundaries corresponding to the rule conditions;

and the unified rule engine obtaining subunit is used for integrating the sub rule engines corresponding to all rule types to obtain the unified rule engine.

6. The low-code application configuration platform of claim 1, wherein the data message integration access module comprises:

the data message reading unit is used for reading the management individuals of the target business and determining the data message of each management individual;

the message conversion unit is used for verifying the data message of each management individual based on the object model, and converting the message of each management individual based on the object model according to the message conversion rule when the verification is qualified, so as to obtain the management data of each management individual;

the data integration access unit is used for integrating the management data of each management individual based on the object model and accessing the integrated management data to the internet of things platform.

7. The low-code application configuration platform of claim 6, wherein the message conversion unit comprises:

a syndrome unit for:

acquiring a verification standard based on the object model, and simultaneously matching the data message of each management individual with the verification standard;

when the data message of the management individual is matched with the verification standard, judging that the management individual accords with the verification standard; when the data message of the management individual is not matched with the verification standard, judging that the management individual is not matched with the verification standard;

the message data recording subunit is used for recording the message data corresponding to the management individuals which do not meet the verification standard when the management individuals do not meet the verification standard, and generating an alarm report based on the recording result;

and the alarm subunit is used for transmitting the alarm report to the monitoring terminal, generating an alarm signal based on the alarm report, and performing alarm operation on the monitoring terminal based on the alarm signal.

8. The low code application configuration platform of claim 6, wherein the data integration access unit comprises:

a device port determination subunit configured to determine a device port for managing data based on the integration result;

the access information acquisition subunit is used for acquiring the equipment brands, the equipment models and the project numbers corresponding to the equipment ports of the management data and generating access information of the equipment ports based on the equipment brands, the equipment models and the project numbers of the management individuals;

and the access subunit is used for carrying out translation analysis on the access information of the equipment port and accessing the integrated management data to the Internet of things platform based on the equipment port based on the translation analysis result.

9. The low code application configuration platform of claim 1, wherein the low code configuration module comprises:

a low code configuration unit for:

performing low-code configuration on the target service based on the Internet of things platform based on the access result;

wherein the low code configuration comprises:

code generation configuration, form design configuration, flow design configuration, data visualization configuration, authority configuration, system monitoring configuration and management configuration;

and the visualization unit is used for carrying out visual display on the target service based on the low-code configuration result.

10. The low code application configuration platform of claim 1, wherein the low code configuration module comprises:

the operation monitoring unit is used for monitoring the operation condition of the target service on the internet of things platform after the low code configuration of the target service is completed, and acquiring an operation log in real time;

the log adjusting unit is used for acquiring a log specification template, formatting and adjusting the running log based on the log specification template to obtain a standard running log;

the abnormality monitoring model construction unit is used for:

acquiring abnormal categories, acquiring service demands of target service, and setting monitoring indexes and monitoring intervals for each abnormal category based on the service demands of the target service;

setting an operation monitoring interval based on the monitoring index and the monitoring area corresponding to each abnormal category, and simultaneously, learning an operation monitoring mechanism to determine an abnormal monitoring model element corresponding to each abnormal category;

synthesizing the abnormality monitoring model elements corresponding to each abnormality category, and constructing an abnormality monitoring model for carrying out abnormality monitoring on the standard operation log;

the abnormal identification unit is used for inputting the standard operation log into the abnormal monitoring model for identification and outputting a monitoring result based on the identification result;

an abnormality locating unit configured to:

when the standard operation log is abnormal in the monitoring result, reading the abnormal operation log, and determining an abnormal field in the abnormal operation log;

and carrying out abnormality positioning based on the abnormality field, determining an abnormality part of the Internet of things platform and uploading the abnormality part to the monitoring terminal.