CN112487163B - Method and device for executing automated process and obtaining interface data thereof - Google Patents

Abstract

The application relates to an execution method of an automatic process, and an acquisition method, a device, a computer device and a storage medium of interface data thereof, wherein the acquisition method of the interface data comprises the following steps: identifying a node to be configured in an automatic process and a target interface corresponding to the node to be configured; acquiring interface configuration information of a node to be configured, wherein the interface configuration information comprises parameter entering configuration information and parameter returning configuration information of a target interface, the parameter entering configuration information is used for configuring parameter entering data of the target interface, and the parameter returning configuration information is used for configuring parameter returning data of the target interface according to preset rule information; when the automatic flow flows to the node to be configured, determining the parameter entering data of the target interface according to the parameter entering configuration information, and reading the parameter returning data from the target interface according to the parameter entering data; and configuring the return parameter data according to the return parameter configuration information to obtain interface data of the node to be configured. The method can reduce the development workload of the automatic process so as to improve the development efficiency of the automatic process.

Description

Method and device for executing automated process and obtaining interface data thereof

Technical Field

The present application relates to the technical field of information processing of automated processes, and in particular to a method for executing automated processes and a method, device, computer equipment and storage medium for acquiring interface data thereof.

Background technique

At present, the configuration of the task engine of intelligent customer service robots is usually based on dialogue flow. The user's questions are matched by keywords of some questions asked by the user, and then different automation processes are carried out according to different user questions. At this time, in the automation process, if the process node needs to obtain user data, it is necessary to temporarily develop code and create an interface task to obtain user data. Even if data can be read from some existing interfaces, when the process node needs to combine multiple fields, it is necessary to temporarily develop code to connect to the corresponding logic. Therefore, the development workload of the automation process is large and the development efficiency is low.

Summary of the invention

Based on this, it is necessary to provide an automated process execution method and an interface data acquisition method, device, computer equipment and storage medium that can reduce the development workload of the automated process to improve the development efficiency of the automated process in order to address the above technical problems.

A method for acquiring interface data, the method comprising: identifying a node to be configured in an automated process and a target interface corresponding to the node to be configured; acquiring interface configuration information of the node to be configured, the interface configuration information comprising input parameter configuration information and return parameter configuration information of the target interface, the input parameter configuration information being used to configure the input parameter data of the target interface, and the return parameter configuration information being used to configure the return parameter data of the target interface according to preset rule information; when the automated process flows to the node to be configured, determining the input parameter data of the target interface according to the input parameter configuration information, and reading return parameter data from the target interface according to the input parameter data; configuring the return parameter data according to the return parameter configuration information, and obtaining the interface data of the node to be configured.

In one embodiment, there are multiple target interfaces, including a first interface and a second interface, the first interface and the second interface are serially connected, and the input parameter configuration information is used to configure the input parameter sub-data of the first interface and configure the first return parameter sub-data of the first interface as the input parameter sub-data of the second interface; the input parameter data of the target interface is determined according to the input parameter configuration information, and the return parameter data is read from the target interface according to the input parameter data, including: determining the input parameter sub-data of the first interface according to the input parameter configuration information, reading the first return parameter sub-data of the first interface from the first interface according to the input parameter sub-data of the first interface, using the first return parameter sub-data of the first interface as the input parameter sub-data of the second interface, reading the return parameter sub-data of the second interface from the second interface according to the input parameter sub-data of the second interface, and the return parameter data includes the return parameter sub-data of the second interface.

Preferably, a method for acquiring interface data also includes: reading second return parameter sub-data of the first interface from the first interface according to the input parameter sub-data of the first interface, and the return parameter data includes the second return parameter sub-data of the first interface.

In one embodiment, there are multiple target interfaces, including a third interface and a fourth interface, the third interface is parallel to the fourth interface, and the input parameter configuration information is used to configure the input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface; the input parameter data of the target interface is determined according to the input parameter configuration information, and return parameter data is read from the target interface according to the input parameter data, including: determining the input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface according to the input parameter configuration information, reading the return parameter sub-data of the third interface from the third interface according to the input parameter sub-data of the third interface, and reading the return parameter sub-data of the fourth interface from the fourth interface according to the input parameter sub-data of the fourth interface, and the return parameter data includes the return parameter sub-data of the third interface and the return parameter sub-data of the fourth interface.

In one of the embodiments, a method for obtaining interface data also includes: using a FreeMarker template engine to configure preset rule information in the return parameter configuration information, the preset rule information includes logical operation rules; configuring the return parameter data according to the return parameter configuration information to obtain interface data of the node to be configured, including: using logical operation rules and performing logical operations on the return parameter data through the FreeMarker template engine, and obtaining result data after the logical operation, and the interface data includes the result data.

Preferably, the preset rule information also includes dynamic parsing rules and dynamic assignment rules, adopts logical operation rules and performs logical operation on the returned parameter data through the FreeMarker template engine, and obtains result data after the logical operation, including: adopting dynamic parsing rules and dynamically parsing the returned parameter data through the FreeMarker template engine to obtain parsed data; adopting dynamic assignment rules and assigning the parsed data to the specified variable through the FreeMarker template engine to obtain the variable value of the specified variable; adopting logical operation rules and performing logical operation on the variable value through the FreeMarker template engine to obtain the result data after the logical operation.

In one of the embodiments, the return parameter data is configured according to the return parameter configuration information to obtain the interface data of the node to be configured, including: obtaining the preset rule information of the return parameter configuration information; configuring the return parameter data of the target interface according to the preset rule information, and using the configured return parameter data as the data to be processed; obtaining the component template of the node to be configured; generating component data according to the data to be processed and the component template, and the interface data includes the component data.

Preferably, the component template includes a tab component template and/or a reply component template, and generating component data based on the data to be processed and the component template includes: filtering first data of the tab component template from the data to be processed, generating tab component data based on the first data and the tab component template, wherein the component data includes the tab component data; and/or filtering second data of the reply component template from the data to be processed, generating reply component data based on the second data and the reply component template, wherein the component data includes the reply component data.

In one of the embodiments, a method for obtaining interface data also includes: when the component data includes tab component data, obtaining a tab template of the node to be configured; obtaining the tab component data from the component data, generating tab data based on the tab component data and the tab template, and the interface data includes the tab data.

A method for executing an automated process, the method comprising: receiving trigger information of a task process, and starting the automated process according to the trigger information; when the automated process flows to a node to be configured, identifying a target interface corresponding to the node to be configured; obtaining interface configuration information of the node to be configured, the interface configuration information comprising input parameter configuration information and return parameter configuration information of the target interface, the input parameter configuration information being used to configure input parameter data of the target interface, and the return parameter configuration information being used to configure return parameter data of the target interface according to preset rule information; determining input parameter data of the target interface according to the input parameter configuration information, and reading return parameter data from the target interface according to the input parameter data; configuring the return parameter data according to the return parameter configuration information, and obtaining interface data of the node to be configured; and executing the task of the node to be configured in the automated process according to the interface data.

A device for acquiring interface data, the device comprising: an identification module, used for identifying a node to be configured in an automated process and a target interface corresponding to the node to be configured; an acquisition module, used for acquiring interface configuration information of the node to be configured, the interface configuration information comprising input parameter configuration information and return parameter configuration information of the target interface, the input parameter configuration information being used for configuring the input parameter data of the target interface, and the return parameter configuration information being used for configuring the return parameter data of the target interface according to preset rule information; a reading module, used for determining the input parameter data of the target interface according to the input parameter configuration information when the automated process flows to the node to be configured, and reading return parameter data from the target interface according to the input parameter data; and a configuration module, used for configuring the return parameter data according to the return parameter configuration information, and obtaining the interface data of the node to be configured.

A computer device includes a memory, a processor, and a computer program stored in the memory and executable on the processor. When the processor executes the computer program, the steps of any of the above-mentioned embodiments are implemented.

A computer-readable storage medium stores a computer program, which implements the steps of any of the above-mentioned method embodiments when the computer program is executed by a processor.

The execution method of the above-mentioned automated process and the method, device, computer equipment and storage medium for obtaining interface data thereof, the process engine identifies the node to be configured in the automated process and the target interface corresponding to the node to be configured, obtains the interface configuration information of the node to be configured, the interface configuration information includes the input parameter configuration information and the return parameter configuration information of the target interface, the input parameter configuration information is used to configure the input parameter data of the target interface, and the return parameter configuration information is used to configure the return parameter data of the target interface according to the preset rule information; when the automated process flows to the node to be configured, the input parameter data of the target interface is determined according to the input parameter configuration information, the return parameter data is read from the target interface according to the input parameter data, and then the return parameter data is configured according to the return parameter configuration information to obtain the interface data of the node to be configured. Therefore, when the process engine executes the automated process and the automated process flows to the node to be configured, the interface data of the target interface is directly obtained according to the input parameter configuration information and the return parameter configuration information of the target interface in the interface configuration information, so that the node to be configured can perform the task of this node according to the acquired interface data. By controlling the input and return parameters of the target interface through information configuration, there is no need to develop corresponding code for data acquisition of the node to be configured, which saves the development workload of the automation process and improves the development efficiency of the automation process.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG1 is an application environment diagram of a method for acquiring interface data in one embodiment;

FIG2 is a schematic diagram of a flow chart of a method for acquiring interface data in one embodiment;

FIG3 is a schematic diagram of a flow chart of a method for executing an automated process in one embodiment;

FIG4 is an interface display diagram of the six major process nodes designed by the dialog flow module in one embodiment;

FIG5 is a schematic diagram of a process flow of a process engine acquiring interface data in one embodiment;

FIG6 is an interface display diagram of tab data in one embodiment;

FIG7 is an interface display diagram of component data of a reply component in one embodiment;

FIG8 is a schematic diagram of a process flow of a process engine executing tasks of each process node in one embodiment;

FIG9 is a structural block diagram of a device for acquiring interface data in one embodiment;

FIG. 10 is a diagram showing the internal structure of a computer device in one embodiment.

Detailed ways

In order to make the purpose, technical solution and advantages of the present application more clearly understood, the present application is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present application and are not used to limit the present application.

The present application provides a method for obtaining interface data, which is applied in an application environment as shown in Figure 1. As shown in Figure 1, the process engine is used to execute an automated process, and the automated process includes multiple process nodes, and each process node is used to execute the task of this node. Specifically, in the process of executing the automated process, the process engine identifies the node to be configured in the automated process and the target interface corresponding to the node to be configured. Among them, the node to be configured is any process node in the automated process, and the process engine reads data from a third-party data platform through a target interface to execute the task of the node to be configured according to the read data. Further, the process engine obtains the interface configuration information of the node to be configured from the database, and the interface configuration information includes the input parameter configuration information and the return parameter configuration information of the target interface, the input parameter configuration information is used to configure the input parameter data of the target interface, and the return parameter configuration information is used to configure the return parameter data of the target interface according to the preset rule information. When the automated process in the process engine flows to the node to be configured, the input parameter data of the target interface is determined according to the input parameter configuration information, and the return parameter data is read from the target interface according to the input parameter data. The return parameter data is the data read by the process engine from the third-party data platform. Then, the process engine configures the return parameter data according to the return parameter configuration information to obtain the interface data of the node to be configured. The process engine can execute the tasks of the nodes to be configured according to the interface data of the nodes to be configured. Therefore, by controlling the input and return parameters of the target interface through information configuration, there is no need to develop corresponding code for data acquisition of the nodes to be configured, which saves the development workload of the automation process and improves the development efficiency of the automation process.

In one embodiment, as shown in FIG. 2 , a method for obtaining interface data is provided, and the method is applied to the process engine in FIG. 1 as an example for explanation, including the following steps:

S102, identifying a node to be configured in an automation process and a target interface corresponding to the node to be configured.

Generally, each process node in the process engine is set. The process engine executes the automated process according to each process node. When executing the automated process, the process engine can call the external interface to read the interface data of the corresponding platform according to the task requirements of any process node, so as to execute the task of this process node according to the read interface data.

In this embodiment, the process node that needs to obtain interface data externally is determined according to the task processing requirements of each process node in the automation process, and the process node is set as the node to be configured. In addition, the interface called externally by the node to be configured is set to the target interface corresponding to the node to be configured. The node to be configured is associated with the target interface, and the associated information is stored. When the process engine executes the automation process, the process engine identifies the node to be configured and the target interface corresponding to the node to be configured. It can be that after the process engine identifies the node to be configured, it identifies the target interface of the node to be configured based on the association information between the node to be configured and the target interface.

S104, obtaining the interface configuration information of the node to be configured, the interface configuration information including the input parameter configuration information and the return parameter configuration information of the target interface, the input parameter configuration information is used to configure the input parameter data of the target interface, and the return parameter configuration information is used to configure the return parameter data of the target interface according to the preset rule information.

In this embodiment, the interface configuration information of the node to be configured may be stored in the process engine, or stored in a database to be read by the process engine. The interface configuration information of the node to be configured may be the interface configuration information of the target interface for configuring the node to be configured generated according to the configuration information input manually. The interface configuration information includes the input parameter configuration information and the return parameter configuration information of the target interface. The input parameter configuration information is used to configure the input parameter data of the target interface, and the data platform corresponding to the target interface returns the corresponding return parameter data to the process engine after receiving the input parameter data through the target interface. Among them, the return parameter configuration information is used to configure the return parameter data of the target interface according to the preset rule information. The preset rule information can be the rule information generated based on the rule of manual input configuration. The preset rule information can be a conversion rule for converting the return parameter data into a preset type of data. For example, converting the return parameter data into character type data, or converting the return parameter data into integer type data, or converting the return parameter data into list (list) type or map (container) type data. The preset rule information can also be information for performing logical operations on the return parameter data according to preset logical operation rules. For example, logical judgment rule information. It is judged whether the return parameter data meets the preset conditions through the logical judgment rule information. If yes, the returned parameter data is configured to obtain a logical true. If no, the returned parameter data is configured to obtain a logical false.

Among them, the input parameter configuration information and return parameter configuration information of the target interface can be configured through manual input, and the process engine can directly read the interface configuration information of the node to be configured to control the input parameter data and return parameter data of the target interface. There is no need to develop corresponding logic code for the input parameter data and return parameter data of the target interface, which can save the workload of developing automated processes and improve development efficiency.

S106, when the automated process flows to the node to be configured, the input parameter data of the target interface is determined according to the input parameter configuration information, and the return parameter data is read from the target interface according to the input parameter data.

In this embodiment, the process engine monitors the node flow of the automated process in real time. When the automated process flows to the node to be configured, the input parameter data of the target interface is determined according to the input parameter configuration information of the target interface. It can be that the input parameter configuration information contains the input parameter data, and the process engine extracts the input parameter data from the input parameter configuration information. It can also be that the input parameter configuration information contains associated information of the input parameter data, and the process engine reads the input parameter data according to the associated information. Further, the process engine reads the return parameter data from the target interface according to the input parameter data. Specifically, the process engine inputs the input parameter data into the target interface, and communicates data with the data platform corresponding to the target interface through the target interface. The data platform corresponding to the target interface obtains the feedback data based on the input parameter data, and returns the feedback data to the process engine through the target interface. The feedback data is also the return parameter data of the target interface.

S108, configure the returned parameter data according to the returned parameter configuration information to obtain the interface data of the node to be configured.

In this embodiment, the process engine configures the return parameter data of the target interface according to the return parameter configuration information. Specifically, the return parameter configuration information configures the return parameter data according to the preset rule information. The preset rule information can be manually configured rule information. For example, logical operation rules, data conversion rules, etc. When the target interface returns the return parameter data, the process engine processes the return parameter data through the preset rule information to obtain interface data that meets the data processing requirements of the node to be configured. Therefore, by configuring the return parameter data of the target interface in a configuration manner, there is no need to develop the corresponding logic code separately, which can save the workload of developing the automated process and improve the efficiency of development.

The method for obtaining the above-mentioned interface data is that the process engine identifies the node to be configured in the automation process and the target interface corresponding to the node to be configured, obtains the interface configuration information of the node to be configured, and the interface configuration information includes the input parameter configuration information and the return parameter configuration information of the target interface. The input parameter configuration information is used to configure the input parameter data of the target interface, and the return parameter configuration information is used to configure the return parameter data of the target interface according to the preset rule information; when the automation process flows to the node to be configured, the input parameter data of the target interface is determined according to the input parameter configuration information, and the return parameter data is read from the target interface according to the input parameter data, and then the return parameter data is configured according to the return parameter configuration information to obtain the interface data of the node to be configured. Therefore, when the process engine executes the automation task and the automation process flows to the node to be configured, the interface data of the target interface is directly obtained according to the input parameter configuration information and the return parameter configuration information of the target interface in the interface configuration information, so that the node to be configured can perform the task of this node according to the acquired interface data. By controlling the input and return parameters of the target interface in the form of information configuration, there is no need to develop the corresponding code for the data acquisition of the node to be configured, which saves the development workload of the automation process and improves the development efficiency of the automation process.

In one embodiment, there are multiple target interfaces, including a first interface and a second interface, the first interface and the second interface are serially connected, and the input parameter configuration information is used to configure the input parameter sub-data of the first interface and configure the return parameter sub-data of the first interface as the input parameter sub-data of the second interface. S106 includes: determining the input parameter sub-data of the first interface according to the input parameter configuration information, reading the return parameter sub-data of the first interface from the first interface according to the input parameter sub-data of the first interface, using the return parameter sub-data of the first interface as the input parameter sub-data of the second interface, reading the return parameter sub-data of the second interface from the second interface according to the input parameter sub-data of the second interface, and the return parameter data includes the return parameter sub-data of the second interface.

In this embodiment, a general interface module is set. The general interface module contains existing interfaces or newly added HTTP interfaces. The target interface can be any interface or multiple interfaces in the general interface module. At the same time, a general interface management module is set in the background to manage the interfaces in the general interface module. Specifically, the relevant information of each interface can be configured in the general interface management module. For example, configure the input parameters, request URL, and return parameter parameters of each interface. Therefore, the configuration information of one or more interfaces can be configured in the general interface management module to obtain the input parameter configuration information and return parameter configuration information of each interface.

When there are multiple target interfaces and the target interfaces include a first interface and a second interface, the first interface and the second interface can be configured serially. That is, in the interface configuration information of the node to be configured, the input parameter sub-data of the first interface is configured and the first return parameter sub-data of the first interface is configured as the input parameter sub-data of the second interface. Specifically, the universal interface module includes a combination interface, which is serialized by multiple single interfaces, and the input parameter data of the single interface is input, and the output return parameter data can be customized. When the serial interface is called serially, the return parameter data of the single interface 1 can be set as the input parameter data of the single interface 2, and so on.

Thus, when acquiring interface data, the first return parameter sub-data of the first interface is read from the first interface according to the input parameter sub-data of the first interface, the first return parameter sub-data of the first interface is used as the input parameter sub-data of the second interface, and the return parameter sub-data of the second interface is read from the second interface according to the input parameter sub-data of the second interface. At this time, the return parameter data of the second interface can be used as the interface data of the target interface. Therefore, the workload of the development code of the automation process is further reduced, and the efficiency of development is improved.

Preferably, after determining the input parameter sub-data of the first interface according to the input parameter configuration information, it also includes: reading the second return parameter sub-data of the first interface from the first interface according to the input parameter sub-data of the first interface, and the return parameter data includes the second return parameter sub-data of the first interface.

Specifically, after the input parameter sub-data of the first interface is input from the first interface, two types of return parameter data, namely, the first return parameter sub-data of the first interface and the second return parameter sub-data of the first interface, are obtained. Among them, the first return parameter sub-data is used as the input parameter sub-data of the second interface, and then the return parameter sub-data of the second interface is obtained by calling, and the return parameter sub-data of the second interface is used as part of the final return parameter data. In addition, when the first interface is called, the second return parameter sub-data of the first interface can also be used as part of the final return parameter data. Therefore, the return parameter data finally obtained includes both the return parameter of the first interface and the return parameter of the second interface, thereby meeting the needs of the corresponding interface data call.

In one embodiment, there are multiple target interfaces, including a third interface and a fourth interface, the third interface is in parallel with the fourth interface, and the input parameter configuration information is used to configure the input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface. S106 includes: determining the input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface according to the input parameter configuration information, reading the return parameter sub-data of the third interface from the third interface according to the input parameter sub-data of the third interface, reading the return parameter sub-data of the fourth interface from the fourth interface according to the input parameter sub-data of the fourth interface, and the return parameter data includes the return parameter sub-data of the third interface and the return parameter sub-data of the fourth interface.

In this embodiment, a general interface module is set. The general interface module contains existing interfaces or newly added HTTP interfaces. The target interface can be any interface or multiple interfaces in the general interface module. At the same time, a general interface management module is set in the background to manage the interfaces in the general interface module. Specifically, the relevant information of each interface can be configured in the general interface management module. For example, configure the input parameters, request URL, and return parameter parameters of each interface. Therefore, the configuration information of one or more interfaces can be configured in the general interface management module to obtain the input parameter configuration information and return parameter configuration information of each interface.

When there are multiple target interfaces and the target interfaces include the third interface and the fourth interface, the third interface and the fourth interface can be configured in parallel. Specifically, the universal interface module includes a combined interface, which is parallelized by multiple single interfaces, and is input by the input parameter data of the single interface, and the output return parameter data can be customized. When the parallel interface is called, the input parameter data is uniformly set, and the return parameter data of each interface is customized, and so on.

Thus, when acquiring interface data, the return parameter sub-data of the third interface is read from the third interface according to the input parameter sub-data of the third interface, and the return parameter sub-data of the fourth interface is read from the fourth interface according to the input parameter sub-data of the fourth interface, and the return parameter data includes the return parameter sub-data of the third interface and the return parameter sub-data of the fourth interface. Therefore, the workload of the development code of the automation process is further reduced, and the efficiency of development is improved.

In one embodiment, before S108, it also includes: using the FreeMarker template engine to configure the preset rule information in the return parameter configuration information, and the preset rule information includes a logic operation rule. S108 includes: using the logic operation rule and performing a logic operation on the return parameter data through the FreeMarker template engine, and obtaining the result data after the logic operation, and the interface data includes the result data.

In this embodiment, the preset rule information in the return parameter configuration information is set using the FreeMarker template engine, and the FreeMarker template engine is used to perform logical operations on the return parameter data according to the logical operation rules in the preset rule information. After the FreeMarker template engine performs the logical operation, the result data is obtained and the result data is output. The interface data of the target interface includes the output result data. Among them, the logical operation rules include logical judgment rules, and the logical judgment rules are used to judge whether the interface field in the return parameter data is empty. It can also include logical comparison rules, and the logical comparison rules are used to compare the date data in the return parameter data with the preset date data, or to compare the field value in the return parameter data with the preset field value. By setting the logical operation rules in the preset rule information in the FreeMarker template engine, and using the FreeMarker template engine to further process the return parameter data of the target interface, the processing result is used as the interface data of the target interface, so there is no need to develop code for the further processing process of the return parameter data of the target interface, saving the workload of the development of the automation process. It should be noted that the FreeMarker template engine is generally used to generate the content of the front-end text, such as HTML web pages and source code. The FreeMarker template engine is used here to configure and process the return parameter data of the target interface, providing interface data support for the automated process, breaking through the traditional customary usage.

Preferably, the preset rule information also includes dynamic parsing rules and dynamic assignment rules, adopts logical operation rules and performs logical operation on the returned parameter data through the FreeMarker template engine, and obtains result data after the logical operation, including: adopting dynamic parsing rules and dynamically parsing the returned parameter data through the FreeMarker template engine to obtain parsed data; adopting dynamic assignment rules and assigning the parsed data to the specified variable through the FreeMarker template engine to obtain the variable value of the specified variable; adopting logical operation rules and performing logical operation on the variable value through the FreeMarker template engine to obtain the result data after the logical operation.

Specifically, the FreeMarker template engine is configured with logical operation rules, dynamic parsing rules and dynamic assignment rules. In addition, data extraction rules can also be configured. The data extraction rules are used to indicate the extraction of target data from the returned parameter data. The FreeMarker template engine can extract list type data, map type data, character type data, integer type data, date type data, etc. from the returned parameter data. At the same time, the FreeMarker template engine is used to dynamically parse the returned parameter data using dynamic parsing rules to obtain parsed data. The dynamic assignment rules are adopted and the parsed data is assigned to the specified variable through the FreeMarker template engine to obtain the variable value of the specified variable. Finally, the logical operation rules are adopted and the variable value is logically operated through the FreeMarker template engine, and the result data is obtained after the logical operation. For example, the FreeMarker template engine is used to dynamically parse the returned parameter data using dynamic parsing rules to obtain parsed data a, parsed data b and parsed data c. The specified variables include x1, x2 and x3. The dynamic assignment rules are adopted to assign the parsed data a to the specified variable x1, the parsed data b to the specified variable x2, and the parsed data c to the specified variable x3. The logic operation rule includes y=x1+x2+x3, and the output result is the value of y after the logic operation. At this time, when the logic operation rule is adopted and the variable value is logically operated through the FreeMarker template engine, the logic operation of a+b+c is performed, and the operation result is used as the result data. Therefore, there is no need to develop corresponding code for the logic operation of the target interface, which saves the workload of developing the automation process and shortens the development cycle of the automation process.

In one embodiment, S108 includes: obtaining preset rule information of return parameter configuration information; configuring the return parameter data of the target interface according to the preset rule information, and using the configured return parameter data as data to be processed; obtaining the component template of the node to be configured; generating component data according to the data to be processed and the component template, and the interface data includes the component data.

Preferably, the component template includes a tab component template and/or a reply component template, and generating component data based on the data to be processed and the component template includes: filtering first data of the tab component template from the data to be processed, generating tab component data based on the first data and the tab component template, wherein the component data includes the tab component data; and/or filtering second data of the reply component template from the data to be processed, generating reply component data based on the second data and the reply component template, wherein the component data includes the reply component data.

In this embodiment, a component management module is set. The component management module is set and managed through the background management page. Specifically, each component template in the component management module is generated according to some component protocol formats of the front end. Among them, the front end includes an APP end and an H5 end. The component protocol format can be set dynamically, and a dynamic component template is generated according to the dynamically set component protocol format. Further, component data is generated according to the data to be processed and the component template, including: filtering out the data of the component template from the data to be processed, filling the data of the component template into the component template, and generating component data. The process engine calls the return parameter data of the target interface through the component management module, and uses the returned parameter data of the call as part of the data of the protocol assembly in the component template to generate the corresponding component data. Therefore, when generating the corresponding component data, there is no need to develop the corresponding logic code, and the corresponding component data can be generated by configuration, which reduces the development workload in the automation process, shortens the development cycle of the automation process, and improves the development efficiency of the automation process.

In addition, the component management module also includes a tab component template and a reply component template. A tab component can be generated according to the tab component template, and a reply component can be generated according to the reply component template. The tab component includes tab component data, and the reply component includes reply component data. The process engine filters the first data of the tab component template from the data to be processed, generates the tab component data according to the first data and the tab component template, filters the second data of the reply component template from the data to be processed, and generates the reply component data according to the second data and the reply component template. Specifically, when the automated process is an automated interaction process between an intelligent robot and a user, the tab component is used to provide a button component for interacting with a front-end user, etc. For example, some buttons for selecting orders or commodities when interacting with a user. The reply component is a component composed of multiple reply contents according to a specific structure when the intelligent robot needs to reply to a user's question when interacting with the user. For example, the reply content of the reply component includes font style, buttons, hyperlinks, and pictures. Both the tab component and the reply component contain corresponding component data, and the component data is used to display to the front end for information interaction with the user. Therefore, the automatic generation of component data in the automation process can be achieved through the configuration of component templates, without the need to develop corresponding logic code for the generation of relevant component data, thereby reducing the workload of developing the automation process and improving the development efficiency of the automation process.

In one embodiment, after generating tab component data according to the first data and the tab component template, it also includes: when the component data includes tab component data, obtaining the tab template of the node to be configured; obtaining the tab component data from the component data, generating tab data according to the tab component data and the tab template, and the interface data includes the tab data.

In this embodiment, a tab management module is set. The tab management module includes one or more tab templates. The process engine extracts the tab component data from the component data, and fills the tab component data into the tab template to generate tab data. Then, the process engine sends the tab data to the task engine, so that the task engine executes the task of the node to be configured according to the tab data. When the automation process is an automated interaction process between an intelligent customer service robot and a user, it is only necessary to configure the tab template in the tab management module in the automation process, and then extract the tab component data of the tab template from the component data to fill it into the tab template, and generate tab data for use by the node to be configured in the automation process. The extraction of corresponding interface data in the automation process can be realized by configuration, without the need to independently develop the corresponding logic code, thereby reducing the workload of automation process development and improving the efficiency of automation development.

Specifically, the background configures the tab management module to manage and control the tab template through the tab management module. At the same time, the background calls the tab data through the tab management module to send the tab data to the front end to interact with the user. The background also needs to provide the input parameter data of the component interface to the tab management module. The tab management module extracts the tab component data from the component management module through the input parameter data of the component interface. The tab component data is returned to the tab management module as the return parameter data of the component interface. The tab management module fills the tab component data into the tab template to generate the tab data, and then returns the tab data to the front end as the interface display data when interacting with the user. The background sets the input parameter data of the tab management module, and the input parameter data of the tab management module can be set as an external input parameter. For example, the data output by the node to be configured can be used as an external input parameter of the tab management module. Thus, the input parameter data of the tab management module can be dynamically set to meet the flexible setting requirements of the automation process. In addition, the input parameter data of the tab management module can also be set as a fixed parameter value or an enumeration value.

The present application also provides a method for executing an automated process. The method for executing an automated process of the present application adopts the above-mentioned method for acquiring interface data to acquire the interface data of the node to be configured in the automated process. As shown in FIG3 , the method for executing an automated process includes the following steps:

S202, receiving trigger information of the task process, and starting the automation process according to the trigger information.

In this embodiment, the task flow in the background triggers the automation flow of the process engine. When the process engine receives the trigger information of the task flow, it starts the automation flow according to the trigger information. For example, the trigger information includes the start instruction of the automation flow, and the process engine extracts the start instruction of the automation flow from the trigger information and starts the automation flow.

S204, when the automation process flows to the node to be configured, identifying the target interface corresponding to the node to be configured.

In this embodiment, the automated process includes one or more process nodes, and each process node executes a corresponding process task. When executing a process task, one or more process nodes need to call an external interface to read data in the corresponding data platform, thereby executing the task of this process node. For example, the automated process includes an automated interactive process, which is an interactive process started when an intelligent robot interacts with a user. At this time, the multiple process nodes of the automated process include a start node, a parameter node, a judgment node, a function node, a reply node, and a jump node.

Specifically, design each process node of the automated process in the task engine. The process engine executes the automated process through the task engine. As shown in Figure 4, create a dialogue flow module in the background, and design six process nodes in the dialogue flow module. Through the combination of the six process nodes, the combination configuration of various processes can be realized. The six process nodes are: start node, parameter node, judgment node, function node, reply node, and jump node. The main functions of each process node design are explained in detail as follows:

Start node: the trigger entry for user consultation questions, such as the trigger entry for "how to handle exchange". "Exchange" can be obtained through keyword matching, and the user needs to exchange goods, and enter the configured "Exchange business process" through the start node. The entry of the start node includes keyword fuzzy matching and complete matching, calling the intelligent customer service AI intention algorithm module to obtain the user's intention to enter the "Exchange business process".

Parameter node: The parameter node interacts with the user, confirms the user's speaking intention, and then collects the user parameters that need to be passed on. The subsequent process receives the user's exact interaction content. For example, it contains the order, product, text content, etc. that need to be consulted. The subsequent process performs a series of logical judgments and information acquisition based on these contents to answer the user's questions at the front end.

Judgment node: Perform value judgment based on the parameters obtained from the previous process node and the parameters obtained from the external interface, and select different reply nodes. Among them, the parameters obtained from the external interface include the return parameters obtained by the function node calling the external interface. The value judgment of the judgment node includes text comparison, numerical comparison, logical true and false comparison, non-empty comparison, date comparison, field value comparison, etc.

Reply node: Reply to user's words. It includes reply text and reply components. Reply components include buttons, hyperlinks, etc. It can be divided into ordinary replies and protocol replies. Protocol replies are manually written Json messages, and component replies are obtained by calling external interfaces to obtain return parameters and assemble Json message bodies using return parameters.

Jump node: Controls the business scenario to jump from one scenario node to another. For example, a user inquires about the exchange of an order, and finally finds that the order item does not support exchange. The user continues to inquire about how to return the goods, and the orders and goods that need to be exchanged can be passed to the return scenario from the exchange scenario. Therefore, the interaction with the user can be skipped, such as skipping the step of the user selecting the order item to be returned, directly answering the user whether the return can be made, and displaying a button on the front-end interface for the user to click to apply for a return.

In the automated process, some process nodes need to call external interfaces to read data when executing the tasks of this process node. At this time, the process nodes in the automated process that need to call external interfaces to read external interface data can be set as nodes to be configured. For example, the above-mentioned judgment node can be set as a node to be configured. The judgment node needs to obtain the return parameter from the external interface to make a value judgment, so as to select different reply speech nodes according to the judgment result. At this time, the judgment node can be set as a node to be configured in the automated process. For another example, the above-mentioned reply node can be set as a node to be configured. The reply node needs to reply to the content of the front-end user, call the external interface to obtain the return parameter of the external interface, assemble the reply message according to the return parameter, and return the reply message to the front-end for display. At this time, the reply node can be set as a node to be configured in the automated process.

Furthermore, the target interface corresponding to each node to be configured is configured. The target interface corresponding to each node to be configured may be the same or different. When the automated process flows to the node to be configured, the target interface corresponding to the node to be configured is identified. When the target interfaces corresponding to each node to be configured are the same, the target interface may be set as a common interface to the outside. The task engine sets different interface configuration information according to different nodes to be configured, and each interface configuration information corresponds to a common interface. That is, the task engine calls the common interface for interface information according to different interface configuration information.

S206, obtaining the interface configuration information of the node to be configured, the interface configuration information including the input parameter configuration information and the return parameter configuration information of the target interface, the input parameter configuration information is used to configure the input parameter data of the target interface, and the return parameter configuration information is used to configure the return parameter data of the target interface according to the preset rule information.

In this embodiment, the interface configuration information of the node to be configured may be stored in the process engine, or stored in a database to be read by the process engine. The interface configuration information of the node to be configured may be the interface configuration information of the target interface for configuring the node to be configured generated according to the configuration information input manually. The interface configuration information includes the input parameter configuration information and the return parameter configuration information of the target interface. The input parameter configuration information is used to configure the input parameter data of the target interface, and the data platform corresponding to the target interface returns the corresponding return parameter data to the process engine after receiving the input parameter data through the target interface. Among them, the return parameter configuration information is used to configure the return parameter data of the target interface according to the preset rule information. The preset rule information can be the rule information generated based on the rule of manual input configuration. The preset rule information can be a conversion rule for converting the return parameter data into a preset type of data. For example, converting the return parameter data into character type data, or converting the return parameter data into integer type data, or converting the return parameter data into list (list) type or map (container) type data. The preset rule information can also be information for performing logical operations on the return parameter data according to preset logical operation rules. For example, logical judgment rule information. It is judged whether the return parameter data meets the preset conditions through the logical judgment rule information. If yes, the returned parameter data is configured to obtain a logical true. If no, the returned parameter data is configured to obtain a logical false.

Among them, the input parameter configuration information and return parameter configuration information of the target interface can be configured through manual input, and the process engine can directly read the interface configuration information of the node to be configured to control the input parameter data and return parameter data of the target interface. There is no need to develop code for the input parameter data and return parameter data of the target interface, which can save the workload of developing automated processes and improve development efficiency.

S208, determining the input parameter data of the target interface according to the input parameter configuration information, and reading the return parameter data from the target interface according to the input parameter data.

In this embodiment, the process engine monitors the node flow of the automated process in real time. When the automated process flows to the node to be configured, the input parameter data of the target interface is determined according to the input parameter configuration information of the target interface. It can be that the input parameter configuration information contains the input parameter data, and the process engine extracts the input parameter data from the input parameter configuration information. It can also be that the input parameter configuration information contains associated information of the input parameter data, and the process engine reads the input parameter data according to the associated information. Further, the process engine reads the return parameter data from the target interface according to the input parameter data. Specifically, the process engine inputs the input parameter data into the target interface, and communicates data with the data platform corresponding to the target interface through the target interface. The data platform corresponding to the target interface obtains the feedback data based on the input parameter data, and returns the feedback data to the process engine through the target interface. The feedback data is also the return parameter data of the target interface.

S212, configure the returned parameter data according to the returned parameter configuration information to obtain the interface data of the node to be configured.

In this embodiment, the process engine configures the return parameter data of the target interface according to the return parameter configuration information. Specifically, the return parameter configuration information configures the return parameter data according to the preset rule information. The preset rule information can be manually configured rule information. For example, logical operation rules, data conversion rules, etc. When the target interface returns the return parameter data, the process engine processes the return parameter data through the preset rule information to obtain interface data that meets the data processing requirements of the node to be configured. Therefore, by configuring the return parameter data of the target interface in a configuration manner, there is no need to develop additional code, which can save the workload of developing automated processes and improve development efficiency.

Among them, the method for obtaining interface data also includes the method for obtaining interface data described in any embodiment of the method for obtaining interface data described above. In a specific embodiment, the method for obtaining interface data by the process engine is shown in Figure 5. After the process engine receives the task flow trigger, the automation process is started. When any node to be configured in the automation process needs to call the external universal interface to read the interface data, the tab in the configuration node can be determined first, and the component in the tab can be further determined, and then the return parameter data is obtained from the universal interface to fill in the component of the tab, and finally the tab data is obtained, and the tab data is fed back to the node to be configured. The universal interface here is the target interface of the node to be configured. Among them, the tab data can be shown in Figure 6. In addition, when any node to be configured in the automation process needs to call the external universal interface to read the interface data, it can also be from calling the component data of the reply component, and the component data of the reply component can be directly fed back to the front end to interact with the user. The component data of the reply component can be shown in Figure 7.

S214, executing the task of the node to be configured in the automation process according to the interface data.

In this embodiment, when the process engine receives the interface data of the node to be configured, the task of the node to be configured is executed according to the interface data. Specifically, as shown in Figure 8, the process engine executes the corresponding automation task through each process node in the automation process. Each process node includes the above-mentioned start node, parameter node, judgment node, function node, reply node and jump node. Each process node calls the interface data of the external interface according to the task requirements of the process node to perform the corresponding task. Among them, any process node uses one of the above-mentioned interface data acquisition methods to call the interface data of the external interface.

Therefore, when the automated process is an automated interactive process between a robot and a user, there is no need to develop corresponding logic code for the interactive information between the front-end and the user. The acquisition of interface data in the automated process can be achieved directly through interface configuration, which shortens the development time of the automated process and solves the problem of long iteration cycle for the online interactive process between the robot and the user.

The above-mentioned method for executing an automated process can transform redundant and heavy iterative development and testing tasks into simple configurations. By configuring the interface information of the nodes to be configured in the automated process, the interface data of the nodes to be configured can be directly obtained without developing corresponding logic code, thus freeing up development and testing human resources and allowing operations to be faster and more accurate in online operation adjustments.

It should be understood that, although the steps in the flowchart are shown in sequence as indicated by the arrows, these steps are not necessarily executed in sequence in the order indicated by the arrows. Unless otherwise specified herein, there is no strict order restriction on the execution of these steps, and these steps can be executed in other orders. Moreover, at least a portion of the steps in the accompanying drawings may include multiple sub-steps or multiple stages, and these sub-steps or stages are not necessarily executed at the same time, but can be executed at different times, and the execution order of these sub-steps or stages is not necessarily sequential, but can be executed in turn or alternately with other steps or at least a portion of the sub-steps or stages of other steps.

The present application also provides an interface data acquisition device, as shown in FIG9 , the device includes an identification module 10, an acquisition module 20, a reading module 30 and a configuration module 40. The identification module 10 is used to identify the node to be configured in the automation process and the target interface corresponding to the node to be configured; the acquisition module 20 is used to obtain the interface configuration information of the node to be configured, the interface configuration information includes the input parameter configuration information and the return parameter configuration information of the target interface, the input parameter configuration information is used to configure the input parameter data of the target interface, and the return parameter configuration information is used to configure the return parameter data of the target interface according to the preset rule information; the reading module 30 is used to determine the input parameter data of the target interface according to the input parameter configuration information when the automation process flows to the node to be configured, and read the return parameter data from the target interface according to the input parameter data; the configuration module 40 is used to configure the return parameter data according to the return parameter configuration information to obtain the interface data of the node to be configured.

In one embodiment, there are multiple target interfaces, and the multiple target interfaces include a first interface and a second interface, the first interface is serially connected with the second interface, and the input parameter configuration information is used to configure the input parameter sub-data of the first interface and configure the first return parameter sub-data of the first interface as the input parameter sub-data of the second interface; the reading module 30 is specifically used to determine the input parameter sub-data of the first interface according to the input parameter configuration information, read the first return parameter sub-data of the first interface from the first interface according to the input parameter sub-data of the first interface, use the first return parameter sub-data of the first interface as the input parameter sub-data of the second interface, read the return parameter sub-data of the second interface from the second interface according to the input parameter sub-data of the second interface, and the return parameter data includes the return parameter sub-data of the second interface. Preferably, after determining the input parameter sub-data of the first interface according to the input parameter configuration information, it also includes: reading the second return parameter sub-data of the first interface from the first interface according to the input parameter sub-data of the first interface, and the return parameter data includes the second return parameter sub-data of the first interface.

In one embodiment, there are multiple target interfaces, including a third interface and a fourth interface, the third interface is parallel to the fourth interface, and the input parameter configuration information is used to configure the input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface; the reading module 30 is specifically used to determine the input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface according to the input parameter configuration information, read the return parameter sub-data of the third interface from the third interface according to the input parameter sub-data of the third interface, and read the return parameter sub-data of the fourth interface from the fourth interface according to the input parameter sub-data of the fourth interface, and the return parameter data includes the return parameter sub-data of the third interface and the return parameter sub-data of the fourth interface.

In one embodiment, the device also includes a setting module, which is used to use the FreeMarker template engine to configure the preset rule information in the return parameter configuration information, and the preset rule information includes logical operation rules; the configuration module 40 is also specifically used to use the said logical operation rules and perform logical operations on the return parameter data through the FreeMarker template engine, and obtain result data after the logical operation, and the interface data includes the result data.

Preferably, the preset rule information also includes dynamic parsing rules and dynamic assignment rules, adopts logical operation rules and performs logical operation on the returned parameter data through the FreeMarker template engine, and obtains result data after the logical operation, including: adopting dynamic parsing rules and dynamically parsing the returned parameter data through the FreeMarker template engine to obtain parsed data; adopting dynamic assignment rules and assigning the parsed data to the specified variable through the FreeMarker template engine to obtain the variable value of the specified variable; adopting logical operation rules and performing logical operation on the variable value through the FreeMarker template engine to obtain the result data after the logical operation.

In one of the embodiments, the configuration module 40 is also specifically used to obtain preset rule information of the return parameter configuration information; configure the return parameter data of the target interface according to the preset rule information, and use the configured return parameter data as the data to be processed; obtain the component template of the node to be configured; generate component data according to the data to be processed and the component template, and the interface data includes the component data.

Preferably, the component template includes a tab component template and/or a reply component template, and generating component data based on the data to be processed and the component template includes: filtering first data of the tab component template from the data to be processed, generating tab component data based on the first data and the tab component template, wherein the component data includes the tab component data; and/or filtering second data of the reply component template from the data to be processed, generating reply component data based on the second data and the reply component template, wherein the component data includes the reply component data.

In one embodiment, the configuration module 40 is specifically used to obtain the tab template of the node to be configured when the component data includes tab component data; obtain the tab component data from the component data, generate the tab data according to the tab component data and the tab template, and the interface data includes the tab data.

The specific definition of the interface data acquisition device can refer to the definition of the interface data acquisition method above, which will not be repeated here. Each module in the above-mentioned interface data acquisition device can be implemented in whole or in part by software, hardware and a combination thereof. The above-mentioned modules can be embedded in or independent of the processor in the computer device in the form of hardware, or can be stored in the memory of the computer device in the form of software, so that the processor can call and execute the operations corresponding to the above modules.

In one embodiment, a computer device is provided, which may be a server supporting the operation of a process engine, and its internal structure diagram may be shown in FIG10. The computer device includes a processor, a memory, a network interface, and a database connected via a system bus. Among them, the processor of the computer device is used to provide computing and control capabilities. The memory of the computer device includes a non-volatile storage medium and an internal memory. The non-volatile storage medium stores an operating system, a computer program, and a database. The internal memory provides an environment for the operation of the operating system and the computer program in the non-volatile storage medium. The network interface of the computer device is used to connect to an external terminal to read the interface element information on the terminal. When the computer program is executed by the processor, a method for obtaining interface data is implemented.

Those skilled in the art will understand that the structure shown in FIG. 10 is merely a block diagram of a partial structure related to the solution of the present application, and does not constitute a limitation on the computer device to which the solution of the present application is applied. The specific computer device may include more or fewer components than shown in the figure, or combine certain components, or have a different arrangement of components.

In one embodiment, a computer device is provided, comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor implements the following steps when executing the computer program: identifying a node to be configured in an automated process and a target interface corresponding to the node to be configured; obtaining interface configuration information of the node to be configured, wherein the interface configuration information comprises input parameter configuration information and return parameter configuration information of the target interface, wherein the input parameter configuration information is used to configure input parameter data of the target interface, and the return parameter configuration information is used to configure return parameter data of the target interface according to preset rule information; when the automated process flows to the node to be configured, determining input parameter data of the target interface according to the input parameter configuration information, and reading return parameter data from the target interface according to the input parameter data; configuring the return parameter data according to the return parameter configuration information, and obtaining interface data of the node to be configured.

In one embodiment, there are multiple target interfaces, including a first interface and a second interface, the first interface and the second interface are serially connected, and the input parameter configuration information is used to configure the input parameter sub-data of the first interface and configure the first return parameter sub-data of the first interface as the input parameter sub-data of the second interface; when the processor executes a computer program to implement the above-mentioned steps of determining the input parameter data of the target interface according to the input parameter configuration information and reading the return parameter data from the target interface according to the input parameter data, the following steps are specifically implemented: determining the input parameter sub-data of the first interface according to the input parameter configuration information, reading the first return parameter sub-data of the first interface from the first interface according to the input parameter sub-data of the first interface, using the first return parameter sub-data of the first interface as the input parameter sub-data of the second interface, reading the return parameter sub-data of the second interface from the second interface according to the input parameter sub-data of the second interface, and the return parameter data including the return parameter sub-data of the second interface.

Preferably, when the processor executes the computer program, the following steps are also implemented: the second return parameter sub-data of the first interface is read from the first interface according to the input parameter sub-data of the first interface, and the return parameter data includes the second return parameter sub-data of the first interface.

In one embodiment, there are multiple target interfaces, including a third interface and a fourth interface, the third interface is parallel to the fourth interface, and the input parameter configuration information is used to configure the input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface; when the processor executes a computer program to implement the above-mentioned steps of determining the input parameter data of the target interface according to the input parameter configuration information and reading the return parameter data from the target interface according to the input parameter data, the following steps are specifically implemented: determining the input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface according to the input parameter configuration information, reading the return parameter sub-data of the third interface from the third interface according to the input parameter sub-data of the third interface, and reading the return parameter sub-data of the fourth interface from the fourth interface according to the input parameter sub-data of the fourth interface, and the return parameter data includes the return parameter sub-data of the third interface and the return parameter sub-data of the fourth interface.

In one of the embodiments, when the processor executes a computer program, the following steps are implemented: the preset rule information in the return parameter configuration information is configured using the FreeMarker template engine, and the preset rule information includes logical operation rules; when the processor executes the computer program to implement the above-mentioned step of configuring the return parameter data according to the return parameter configuration information to obtain the interface data of the node to be configured, the following steps are specifically implemented: the logical operation rules are used and the FreeMarker template engine is used to perform logical operations on the return parameter data, and the result data is obtained after the logical operation, and the interface data includes the result data.

Preferably, the preset rule information also includes dynamic parsing rules and dynamic assignment rules, adopts logical operation rules and performs logical operation on the returned parameter data through the FreeMarker template engine, and obtains result data after the logical operation, including: adopting dynamic parsing rules and dynamically parsing the returned parameter data through the FreeMarker template engine to obtain parsed data; adopting dynamic assignment rules and assigning the parsed data to the specified variable through the FreeMarker template engine to obtain the variable value of the specified variable; adopting logical operation rules and performing logical operation on the variable value through the FreeMarker template engine to obtain the result data after the logical operation.

In one of the embodiments, when the processor executes a computer program to implement the above-mentioned step of configuring the return parameter data according to the return parameter configuration information to obtain the interface data of the node to be configured, the following steps are specifically implemented: obtaining the preset rule information of the return parameter configuration information; configuring the return parameter data of the target interface according to the preset rule information, and using the configured return parameter data as the data to be processed; obtaining the component template of the node to be configured; generating component data according to the data to be processed and the component template, and the interface data includes the component data.

Preferably, the component template includes a tab component template and/or a reply component template, and generating component data based on the data to be processed and the component template includes: filtering first data of the tab component template from the data to be processed, generating tab component data based on the first data and the tab component template, wherein the component data includes the tab component data; and/or filtering second data of the reply component template from the data to be processed, generating reply component data based on the second data and the reply component template, wherein the component data includes the reply component data.

In one of the embodiments, the processor implements the following steps when executing the computer program: when the component data includes tab component data, obtaining the tab template of the node to be configured; obtaining the tab component data from the component data, generating the tab data according to the tab component data and the tab template, and the interface data includes the tab data.

In one embodiment, a computer device is provided, including a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor implements the following steps when executing the computer program: receiving trigger information of a task flow, and starting an automation flow according to the trigger information; when the automation flow flows to a node to be configured, identifying a target interface corresponding to the node to be configured; obtaining interface configuration information of the node to be configured, the interface configuration information including input parameter configuration information and return parameter configuration information of the target interface, the input parameter configuration information being used to configure input parameter data of the target interface, and the return parameter configuration information being used to configure return parameter data of the target interface according to preset rule information; determining input parameter data of the target interface according to the input parameter configuration information, and reading return parameter data from the target interface according to the input parameter data; configuring the return parameter data according to the return parameter configuration information to obtain interface data of the node to be configured; and executing the task of the node to be configured in the automation flow according to the interface data.

In one embodiment, a computer-readable storage medium is provided, on which a computer program is stored, and when the computer program is executed by a processor, the following steps are implemented: identifying a node to be configured in an automated process and a target interface corresponding to the node to be configured; obtaining interface configuration information of the node to be configured, the interface configuration information including input parameter configuration information and return parameter configuration information of the target interface, the input parameter configuration information being used to configure the input parameter data of the target interface, and the return parameter configuration information being used to configure the return parameter data of the target interface according to preset rule information; when the automated process flows to the node to be configured, determining the input parameter data of the target interface according to the input parameter configuration information, and reading the return parameter data from the target interface according to the input parameter data; configuring the return parameter data according to the return parameter configuration information, and obtaining the interface data of the node to be configured.

In one embodiment, there are multiple target interfaces, including a first interface and a second interface, the first interface and the second interface are serially connected, and the input parameter configuration information is used to configure the input parameter sub-data of the first interface and configure the first return parameter sub-data of the first interface as the input parameter sub-data of the second interface; when the computer program is executed by the processor to implement the above-mentioned steps of determining the input parameter data of the target interface according to the input parameter configuration information and reading the return parameter data from the target interface according to the input parameter data, the following steps are specifically implemented: determining the input parameter sub-data of the first interface according to the input parameter configuration information, reading the first return parameter sub-data of the first interface from the first interface according to the input parameter sub-data of the first interface, using the first return parameter sub-data of the first interface as the input parameter sub-data of the second interface, reading the return parameter sub-data of the second interface from the second interface according to the input parameter sub-data of the second interface, and the return parameter data including the return parameter sub-data of the second interface.

Preferably, when the computer program is executed by the processor, the following steps are also implemented: the second return parameter sub-data of the first interface is read from the first interface according to the input parameter sub-data of the first interface, and the return parameter data includes the second return parameter sub-data of the first interface.

In one embodiment, there are multiple target interfaces, including a third interface and a fourth interface, the third interface is parallel to the fourth interface, and the input parameter configuration information is used to configure the input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface; when the computer program is executed by the processor to implement the above-mentioned steps of determining the input parameter data of the target interface according to the input parameter configuration information and reading the return parameter data from the target interface according to the input parameter data, the following steps are specifically implemented: determining the input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface according to the input parameter configuration information, reading the return parameter sub-data of the third interface from the third interface according to the input parameter sub-data of the third interface, and reading the return parameter sub-data of the fourth interface from the fourth interface according to the input parameter sub-data of the fourth interface, and the return parameter data includes the return parameter sub-data of the third interface and the return parameter sub-data of the fourth interface.

In one of the embodiments, when the computer program is executed by the processor, the following steps are implemented: the preset rule information in the return parameter configuration information is configured using the FreeMarker template engine, and the preset rule information includes logical operation rules; when the processor executes the computer program to implement the above-mentioned step of configuring the return parameter data according to the return parameter configuration information to obtain the interface data of the node to be configured, the following steps are specifically implemented: the logical operation rules are used and the FreeMarker template engine is used to perform logical operations on the return parameter data, and the result data is obtained after the logical operation, and the interface data includes the result data.

Preferably, the preset rule information also includes dynamic parsing rules and dynamic assignment rules, adopts logical operation rules and performs logical operation on the returned parameter data through the FreeMarker template engine, and obtains result data after the logical operation, including: adopting dynamic parsing rules and dynamically parsing the returned parameter data through the FreeMarker template engine to obtain parsed data; adopting dynamic assignment rules and assigning the parsed data to the specified variable through the FreeMarker template engine to obtain the variable value of the specified variable; adopting logical operation rules and performing logical operation on the variable value through the FreeMarker template engine to obtain the result data after the logical operation.

In one of the embodiments, when a computer program is executed by a processor to implement the above-mentioned step of configuring the return parameter data according to the return parameter configuration information to obtain the interface data of the node to be configured, the following steps are specifically implemented: obtaining the preset rule information of the return parameter configuration information; configuring the return parameter data of the target interface according to the preset rule information, and using the configured return parameter data as the data to be processed; obtaining the component template of the node to be configured; generating component data according to the data to be processed and the component template, and the interface data includes the component data.

Preferably, the component template includes a tab component template and/or a reply component template, and generating component data based on the data to be processed and the component template includes: filtering first data of the tab component template from the data to be processed, generating tab component data based on the first data and the tab component template, wherein the component data includes the tab component data; and/or filtering second data of the reply component template from the data to be processed, generating reply component data based on the second data and the reply component template, wherein the component data includes the reply component data.

In one of the embodiments, the computer program implements the following steps when executed by a processor: when the component data includes tab component data, obtaining a tab template of the node to be configured; obtaining the tab component data from the component data, generating tab data based on the tab component data and the tab template, and the interface data includes the tab data.

In one embodiment, a computer-readable storage medium is provided, on which a computer program is stored, and when the computer program is executed by a processor, the following steps are implemented: receiving trigger information of a task process, and starting an automation process according to the trigger information; when the automation process flows to a node to be configured, identifying a target interface corresponding to the node to be configured; obtaining interface configuration information of the node to be configured, the interface configuration information including input parameter configuration information and return parameter configuration information of the target interface, the input parameter configuration information being used to configure input parameter data of the target interface, and the return parameter configuration information being used to configure return parameter data of the target interface according to preset rule information; determining input parameter data of the target interface according to the input parameter configuration information, and reading return parameter data from the target interface according to the input parameter data; configuring the return parameter data according to the return parameter configuration information, and obtaining interface data of the node to be configured; and executing the task of the node to be configured in the automation process according to the interface data.

Those skilled in the art can understand that all or part of the processes in the above-mentioned embodiment methods can be completed by instructing the relevant hardware through a computer program, and the computer program can be stored in a non-volatile computer-readable storage medium. When the computer program is executed, it can include the processes of the embodiments of the above-mentioned methods. Among them, any reference to memory, storage, database or other media used in the embodiments provided in this application can include non-volatile and/or volatile memory. Non-volatile memory can include read-only memory (ROM), programmable ROM (PROM), electrically programmable ROM (EPROM), electrically erasable programmable ROM (EEPROM) or flash memory. Volatile memory can include random access memory (RAM) or external cache memory. As an illustration and not limitation, RAM is available in many forms, such as static RAM (SRAM), dynamic RAM (DRAM), synchronous DRAM (SDRAM), double data rate SDRAM (DDRSDRAM), enhanced SDRAM (ESDRAM), synchronous link (Synchlink) DRAM (SLDRAM), memory bus (Rambus) direct RAM (RDRAM), direct memory bus dynamic RAM (DRDRAM), and memory bus dynamic RAM (RDRAM).

The technical features of the above embodiments may be arbitrarily combined. To make the description concise, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

The above-mentioned embodiments only express several implementation methods of the present application, and the descriptions thereof are relatively specific and detailed, but they cannot be understood as limiting the scope of the invention patent. It should be pointed out that, for a person of ordinary skill in the art, several variations and improvements can be made without departing from the concept of the present application, and these all belong to the protection scope of the present application. Therefore, the protection scope of the patent of the present application shall be subject to the attached claims.

Claims (9)

1. A method for acquiring interface data, the method comprising: Identify a node to be configured in an automation process and a target interface corresponding to the node to be configured; Obtaining interface configuration information of the node to be configured, the interface configuration information including input parameter configuration information and return parameter configuration information of the target interface, the input parameter configuration information is used to configure the input parameter data of the target interface, the return parameter configuration information is used to configure the return parameter data of the target interface according to preset rule information, the preset rule information is configured using a FreeMarker template engine, and the preset rule information includes logical operation rules, dynamic parsing rules, and dynamic assignment rules; When the automated process flows to the node to be configured, the input parameter data of the target interface is determined according to the input parameter configuration information, and the return parameter data is read from the target interface according to the input parameter data; The returned parameter data is configured according to the returned parameter configuration information to obtain the interface data of the node to be configured; The configuring the returned parameter data according to the returned parameter configuration information to obtain the interface data of the node to be configured includes: The dynamic parsing rule is adopted and the returned parameter data is dynamically parsed through the FreeMarker template engine to obtain parsed data; The dynamic assignment rule is adopted and the parsed data is assigned to a specified variable through the FreeMarker template engine to obtain a variable value of the specified variable; The logic operation rule is adopted and the FreeMarker template engine is used to perform a logic operation on the variable value, and result data is obtained after the logic operation, and the interface data includes the result data. 2. The method according to claim 1 is characterized in that there are multiple target interfaces, the multiple target interfaces include a first interface and a second interface, the first interface is serially connected to the second interface, and the input parameter configuration information is used to configure the input parameter sub-data of the first interface and configure the first return parameter sub-data of the first interface as the input parameter sub-data of the second interface; The determining the input parameter data of the target interface according to the input parameter configuration information, and reading the return parameter data from the target interface according to the input parameter data, comprises: Determine the input parameter sub-data of the first interface according to the input parameter configuration information, read the first return parameter sub-data of the first interface from the first interface according to the input parameter sub-data of the first interface, use the first return parameter sub-data of the first interface as the input parameter sub-data of the second interface, read the return parameter sub-data of the second interface from the second interface according to the input parameter sub-data of the second interface, and the return parameter data includes the return parameter sub-data of the second interface; The method further comprises: The second return parameter sub-data of the first interface is read from the first interface according to the input parameter sub-data of the first interface, and the return parameter data includes the second return parameter sub-data of the first interface. 3. The method according to claim 1, characterized in that there are multiple target interfaces, the multiple target interfaces include a third interface and a fourth interface, the third interface is parallel to the fourth interface, and the input parameter configuration information is used to configure the input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface; The determining the input parameter data of the target interface according to the input parameter configuration information, and reading the return parameter data from the target interface according to the input parameter data, comprises: The input parameter sub-data of the third interface and the input parameter sub-data of the fourth interface are determined according to the input parameter configuration information, the return parameter sub-data of the third interface is read from the third interface according to the input parameter sub-data of the third interface, and the return parameter sub-data of the fourth interface is read from the fourth interface according to the input parameter sub-data of the fourth interface, and the return parameter sub-data includes the return parameter sub-data of the third interface and the return parameter sub-data of the fourth interface. 4. The method according to claim 1, characterized in that the step of configuring the returned parameter data according to the returned parameter configuration information to obtain the interface data of the node to be configured comprises: Obtain the preset rule information of the return parameter configuration information; The returned parameter data of the target interface is configured according to the preset rule information, and the configured returned parameter data is used as the data to be processed; Obtaining a component template of the node to be configured; Generate component data according to the data to be processed and the component template, wherein the interface data includes the component data; The component template includes a tab component template and/or a reply component template, and the generating component data according to the data to be processed and the component template includes: Filter the first data of the tab component template from the data to be processed, and generate tab component data according to the first data and the tab component template, wherein the component data includes the tab component data; and / or, The second data of the reply component template is filtered from the data to be processed, and reply component data is generated according to the second data and the reply component template, wherein the component data includes the reply component data. 5. The method according to claim 4, characterized in that the method further comprises: When the component data includes the tab component data, obtaining the tab template of the node to be configured; The tab component data is acquired from the component data, and tab data is generated according to the tab component data and the tab template, wherein the interface data includes the tab data. 6. A method for executing an automated process, characterized in that the method comprises: Receive trigger information of the task process, and start the automation process according to the trigger information; When the automated process flows to the node to be configured, identifying the target interface corresponding to the node to be configured; Obtaining interface configuration information of the node to be configured, the interface configuration information including input parameter configuration information and return parameter configuration information of the target interface, the input parameter configuration information is used to configure the input parameter data of the target interface, the return parameter configuration information is used to configure the return parameter data of the target interface according to preset rule information, the preset rule information is configured using a FreeMarker template engine, and the preset rule information includes logical operation rules, dynamic parsing rules, and dynamic assignment rules; Determine the input parameter data of the target interface according to the input parameter configuration information, and read the return parameter data from the target interface according to the input parameter data; The returned parameter data is configured according to the returned parameter configuration information to obtain the interface data of the node to be configured; Execute the task of the node to be configured in the automation process according to the interface data; The configuring the returned parameter data according to the returned parameter configuration information to obtain the interface data of the node to be configured includes: The dynamic parsing rule is adopted and the returned parameter data is dynamically parsed through the FreeMarker template engine to obtain parsed data; The dynamic assignment rule is adopted and the parsed data is assigned to a specified variable through the FreeMarker template engine to obtain a variable value of the specified variable; The logic operation rule is adopted and the FreeMarker template engine is used to perform a logic operation on the variable value, and result data is obtained after the logic operation, and the interface data includes the result data. 7. A device for acquiring interface data, characterized in that the device comprises: An identification module, used to identify the node to be configured in the automation process and the target interface corresponding to the node to be configured; An acquisition module, used to acquire the interface configuration information of the node to be configured, wherein the interface configuration information includes input parameter configuration information and return parameter configuration information of the target interface, wherein the input parameter configuration information is used to configure the input parameter data of the target interface, and the return parameter configuration information is used to configure the return parameter data of the target interface according to preset rule information, wherein the preset rule information is configured using a FreeMarker template engine, and the preset rule information includes logical operation rules, dynamic parsing rules, and dynamic assignment rules; A reading module, used for determining the input parameter data of the target interface according to the input parameter configuration information when the automated process flows to the node to be configured, and reading the return parameter data from the target interface according to the input parameter data; A configuration module, used to configure the returned parameter data according to the returned parameter configuration information to obtain the interface data of the node to be configured; The configuring the returned parameter data according to the returned parameter configuration information to obtain the interface data of the node to be configured includes: The dynamic parsing rule is adopted and the returned parameter data is dynamically parsed through the FreeMarker template engine to obtain parsed data; The dynamic assignment rule is adopted and the parsed data is assigned to a specified variable through the FreeMarker template engine to obtain a variable value of the specified variable; The logic operation rule is adopted and the FreeMarker template engine is used to perform a logic operation on the variable value, and result data is obtained after the logic operation, and the interface data includes the result data. 8. A computer device comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor implements the steps of the method described in any one of claims 1 to 5 or claim 6 when executing the computer program. 9. A computer-readable storage medium having a computer program stored thereon, wherein when the computer program is executed by a processor, the steps of the method according to any one of claims 1 to 5 or claim 6 are implemented.