CN115658041B - Low-code enhanced service implementation method based on online service flow arrangement - Google Patents
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Abstract
The invention relates to a low-code enhanced service implementation method based on online service process arrangement, which belongs to the technical field of low-code platform development and comprises the steps of (1) establishing service process classification, (2) establishing service process; (3) On-line business process arrangement design, front end assembly operation, micro business processing and back end interface communication; (4) analyzing and storing the business process metadata; (5) Calling a page, namely calling a service flow by a single component event and a page event to perform related service processing; (6) instantiating the business process to generate executable code; (7) And executing the business flow to finish the corresponding business logic operation. The invention realizes decoupling of the page and the business logic code; therefore, the readability, configurability and maintainability of the business logic are enhanced, the skill requirement on developers is reduced, and the development efficiency of the low-code platform is improved.
Description
Technical Field
The invention relates to a low-code enhanced service implementation method based on online service flow arrangement, belonging to the technical field of low-code platform development.
Background
At present, a plurality of low-code platforms support online design and development of pages and object models, encapsulate some general business logic operations, and facilitate users to drag out simple business functions without writing codes; however, when complex business logic operation is encountered, front-end and back-end developers are required to perform customized development of functions, and the front-end development and business development have higher threshold, and the code is dispersed and the maintenance cost is high.
Disclosure of Invention
In order to solve the technical problems, the invention provides a low-code enhanced service implementation method based on online service flow arrangement, which has the following specific technical scheme:
the method for realizing the low-code enhanced service function based on the online service flow arrangement comprises the following steps:
step (1) establishing business process classification, including unique codes of the classification and names of the classification;
step (2) establishing a business process, and ensuring the uniqueness of the process;
step (3) on-line business process arrangement design, business logic carding, wherein a specific business operation process is designed in a graphical dragging mode according to the provided process components, and the specific business operation process comprises front-end component operation, micro business processing and back-end interface communication;
analyzing and storing the metadata of the business process, so as to facilitate the subsequent maintenance of the business process;
when designing the page, calling the designed business flow or a standard business flow template, supporting clicking event, value change event, verification event and component data source of a single component to call the business flow, and calling the business flow to process page initialization event, define and take value of system variable and assign business logic operation to the page component by the page event;
step (6) instantiating the business flow, generating executable codes and storing the executable codes into a database;
and (7) the user accesses or previews the page, executes related operations, and automatically invokes the business process by the system to complete corresponding business logic processing.
Further, the process of establishing the business process classification in the step (1) is as follows:
step 1.1) defining a unique code of the business process classification, sending a verification request according to a value change event, and judging whether the code exists in a database table by the background, if so, prompting that the code is repeated by the page, and inputting again;
step 1.2) defining a business process classification name, wherein the classification name can be repeatedly checked without unique check;
step 1.3) saving classification, sending a saving request, and checking whether classification codes are repeated or not again before saving by a background, if not, automatically setting the hierarchy and the sorting attribute of classification repeatedly, and saving the classification codes into a database; and if the repeated classified coded values exist, returning relevant error reporting information.
Further, the process of establishing the business flow in the step (2) is as follows:
step 2.1) creating a business process under the defined business process classification, wherein the current business process refers to a unique business process classification code as an affiliated classification code;
step 2.2) defining a unique code of the business process, sending a verification request according to the value change, and judging whether the code exists in a database table by the background, if so, prompting that the micro-stream code is repeated, and inputting again by the page, and defining a business process name so as to be convenient to call when the page design is carried out on line;
step 2.3) saving the business process, sending a saving request, checking whether the business process codes are repeated again before saving in the background, and if the business process codes and the sorting attributes which belong to the business process are not repeatedly and automatically set, saving the business process codes and the sorting attributes into a database table; and if the repeated business process coding value exists, returning the related error reporting information.
Further, the online business process programming and designing process in the step (3) is as follows:
step 3.1) a user selects a proper flow component according to the actual service function, sets component description and attribute information, and conveniently distinguishes the functions to be completed of different flow components;
step 3.2) different flow component configuration attribute parameters are as follows:
the acquisition class component: the input parameter is page control code or system parameter code, and the output parameter is return value variable;
setting a class component: the input parameter is page control code or system parameter code, and the output parameter is Boolean value or no output parameter;
judging a class component: the input parameters are a plurality of parameter variables, and the output parameters are Boolean values;
a compute class component: the input parameters are a plurality of parameter variables, and the output parameters are return value variables;
an object class component: the input parameters are model objects, and the output parameters are model object instance variables;
a page class component: the input parameter is page code, and the output parameter is Boolean value or no output parameter;
communication type assembly: the input parameter is a communication parameter, and the output parameter is a return value variable;
model operation class component: the input parameter is a model object, and the business trip is a return value variable or no output parameter;
a prompt class component: the input parameter is a prompt parameter, and the output parameter is a Boolean value or no output parameter;
custom class component: the input parameter is a code segment, and the output parameter is absent;
step 3.3) dragging the whole business process in a graphical mode, and configuring relevant parameters of the business process.
Further, the process of analyzing and storing the business process metadata in the step (4) is as follows:
step 4.1) analyzing the business process component, wherein the analysis mode rule is as follows:
a. acquiring all node and edge data group objects in the canvas of the current plane;
b. the node type is determined and the node type is determined,
when it is a start node, node information of the type start is acquired,
when the node is a normal node, node information of the type node (normal node) is acquired,
in the case of a code block node, node information of the type jscode (code block) is acquired,
c. the next node id of the link is acquired,
d. the object of the exit function is initialized,
e. generating a related function character string according to the input parameters and the output parameters,
f. generating a node function character string;
after the analysis of the step 4.2) is completed, generating business process metadata;
step 4.3) saving the data in a database.
Further, the page calling in the step (5) and the related service processing process performed by the single component event and the page event calling service flow are as follows:
step 5.1), when designing an online page, carrying out binding setting of a business process on a button click event, a text box value change event, a component data source, a verification event and an initialization event;
step 5.2) the service flow sources comprise built-in standard service flows and self-defined service flows, and corresponding service flows are selected according to the needs;
step 5.3) setting related parameters of the business process.
Further, the step (6) instantiates a business process, generates executable codes, and stores the executable codes into a database as follows:
step 6.1), clicking a page design save button, acquiring complete JSON metadata information during design, including all information of a page, an object model and a business process, and sending the JSON metadata to a background server;
step 6.2) analyzing the business process referenced by the page, the background server takes the JSON metadata and analyzes the JSON metadata, object model information and business process information are obtained through the first analysis and an associated information tree is generated, the business process information comprises the execution sequence, the input parameters and the output parameters of the business process, the model object and the business process information are filtered through the second analysis, page basic information is obtained, and the association of the page, the object model and the business process is established through the two analysis operations;
and 6.3) storing the parsed data into a database for instantiation storage.
The low-code enhanced service function implementation method based on online service flow arrangement is characterized by comprising the following steps of: and (7) the user accesses or previews the page, executes related operations, and automatically invokes the business process by the system to complete the corresponding business logic processing process as follows:
step 7.1) previewing the designed page, and performing operations of adding, deleting, modifying and inquiring;
and 7.2) calling the business process to complete relevant business logic processing according to actual operation, analyzing an execution sequence after the background server takes the process information, combining an event processing chain of the business process, executing the event processing chain according to the input parameter, the output parameter and the sequence, and finally returning a result to the front end to realize relevant business logic processing.
The beneficial effects of the invention are as follows:
according to the invention, through carrying out atomization encapsulation on the code logic, the traditional mode of manually writing the code to realize the service function logic is converted into the on-line graphical service logic arrangement, the code which is obscure is displayed in a graphical mode, and the readability and maintainability of the service function logic are enhanced; the on-line business process arrangement unifies the realization mode of the business function of the software product, and ensures that the business logic of the low-code application has unified code specification, quality level and performance; meanwhile, the graphical development mode reduces the threshold of a developer for learning, using and maintaining a low-code development platform, is beneficial to reducing development resource investment, improves the development efficiency of software products, finally improves the benefit of companies, and realizes cost reduction and synergy.
The invention provides a set of flexible self-defined business process processing logic method for the low-code platform in a targeted way, so that a user flexibly designs and develops related business function modules according to own business, and the dependence on professional developers is reduced; and a business process template and an extensible component interface are provided, so that the business process is reused to the greatest extent, and the later maintenance and continuous upgrading optimization are facilitated.
From the whole aspect of a company, the improvement on research and development cost, efficiency, standardization degree, maintainability and the like improves the market competitiveness of a low-code platform product, provides a precious basis for sustainable and diversified development of the company product, and enables research and development personnel to continuously perfect a business process component library through a standard component expansion interface to improve the maturity of the low-code platform of the company.
Drawings
Figure 1 is a schematic illustration of a low code platform business process orchestration tiling of the present invention,
figure 2 is a flow of parsing business process metadata of the present invention,
figure 3 is a schematic diagram of a low code platform business process classification of the present invention,
figure 4 is a schematic diagram of a new business process,
figure 5 is a schematic diagram of a business process overall design panel,
figure 6 is a schematic diagram of business process base components and business components,
figure 7 is a schematic diagram of a business process component attribute configuration,
figure 8 is a diagram of business process metadata information,
figure 9 is a schematic diagram of a page design call service flow,
FIG. 10 is a schematic view of page previews.
Detailed Description
The invention will now be described in further detail with reference to the accompanying drawings.
As shown in fig. 1, the present invention includes 4 layers, respectively: a presentation layer, an analysis layer, a design layer and a data layer. The display layer is a user interface which is displayed in front of the user and is visible to the user, and the user interface is dynamically generated according to the analysis layer data. The analysis layer comprises flow analysis, page analysis and model analysis. The design layer comprises a flow design, a page design and a model design. The data layer includes a metadata repository and an instance repository. The flow analysis corresponds to the flow design of the design layer, the flow design comprises arrangement design (comprising classification management, flow management and online arrangement), flow components (comprising base trampling, business components and component expansion) and flow templates (comprising flow templates and template expansion), the page analysis corresponds to the page design of the design layer, and the model interprets the model design of the corresponding design layer. The patent mainly discloses a data layer, a flow design of a design layer, flow analysis of an analysis layer and a display layer.
In connection with fig. 2-10, a complete implementation of the present invention is shown:
step one: and establishing business process classification.
1. First, a low-code application workbench page is used, and a user defines the business flow classification according to actual business needs, as shown in fig. 3.
2. Taking a public module as an example, when classification is added, a classification code and a classification name are filled in, and the system performs uniqueness check on the classification code.
3. And (5) saving the classification.
Step two: a business process is established as shown in fig. 4.
1. Business process classification is entered, and business process information, such as business process codes, business process names, etc., is filled in for new business processes.
2. And saving the business process.
Step three: the online business process orchestrates the design process as shown in fig. 5-7.
1. And combing business logic, selecting proper flow components, setting component description, and conveniently distinguishing functions to be completed by different flow components.
2. Configuring attribute parameters for different flow components:
the acquisition class component: the input parameter is page control code or system parameter code, and the output parameter is return value variable;
setting a class component: the input parameter is page control code or system parameter code, and the output parameter is Boolean value or no output parameter;
judging a class component: the input parameters are a plurality of parameter variables, and the output parameters are Boolean values;
a compute class component: the input parameters are a plurality of parameter variables, and the output parameters are return value variables;
an object class component: the input parameters are model objects, and the output parameters are model object instance variables;
a page class component: the input parameter is page code, and the output parameter is Boolean value or no output parameter;
communication type assembly: the input parameter is a communication parameter, and the output parameter is a return value variable;
model operation class component: the input parameter is a model object, and the business trip is a return value variable or no output parameter;
a prompt class component: the input parameter is a prompt parameter, and the output parameter is a Boolean value or no output parameter;
custom class component: the input ginseng is a code segment, and the output ginseng is absent.
3. And dragging the whole business process in a graphical mode, and configuring relevant parameters. Taking a data dictionary storage example, firstly using an acquisition form value component to acquire data dictionary codes and data dictionary types, using a custom code block component to fill in assembly request parameters, using a background communication component to configure url, communication parameters, communication types and return values, using a decision component to judge whether the same data dictionary codes exist in the system or not, using a prompt information component to prompt warning information when the same data dictionary codes exist, ending the flow, calling a model drive to acquire a specified layout block component value component to acquire all attribute value information when the same data dictionary codes do not exist, using a model data background communication component to store data dictionary object data, storing a function page submitting component to close a newly added pop-up frame, ending the flow, and prompting an error message when the storage failure prompt information component exists.
Step four: business process metadata is parsed and saved as shown in fig. 8.
1. The user clicks the save button and the system parses the business process metadata information. The analysis method is shown in fig. 2.
2. And after the analysis is completed, generating business process metadata.
3. And saving the business process metadata to a database.
Step five: page calling, wherein a single component event and a page event call business process carry out relevant business processing, as shown in fig. 8.
1. And when the developer performs online page design, performing binding setting of business processes on button click events, text box value change events, component data sources, verification events and initialization events.
2. The service flow sources comprise built-in standard service flows and customized service flows, and corresponding service flows are selected according to requirements. If the business process is the self-defined business process, the business process type is selected as the reference, and the business process is directly selected in the pop-up window. Taking the saved data dictionary as an example, selecting a save button, clicking an action panel in a right component attribute column, selecting a reference for the type of the business process, and clicking a pop-up button to select the saved data dictionary business process in a pop-up window when the business process is selected.
3. Setting related parameters of the business process, and establishing association of the page, the model object and the business process.
Step six: instantiating the business flow, generating executable codes and storing the executable codes into a database.
1. The developer clicks the page design save button, and the system saves the current page design metadata.
2. And in the storage process, the system carries out instantiation processing on the business flow referenced by the page.
3. And finally, saving the page metadata and the business process data to a database.
Step 7: the user accesses or previews the page, executes related operations, and the system automatically invokes the business process to complete corresponding business logic processing. As shown in fig. 10.
1. The user previews the designed page and performs common operations such as adding, deleting, checking and the like. Taking a newly added data dictionary as an example, the method is used for opening a data dictionary list, clicking a newly added button, and popping up a newly added data dictionary window.
2. The user fills in the relevant information of the data dictionary, clicks a save button, and the system invokes the business process to complete the relevant business logic processing. Taking the data dictionary storage as an example, if the existing data dictionary codes are input, according to the business flow designed in the third step, the processing logic checks the repeated value and pops up the message prompt of 'database in the repeated value, please input again'; if the data dictionary codes are input, according to the business flow designed in the step three, after the processing logic verifies that the repeated values are not available, the form values are obtained, the storage operation is executed, after the data dictionary is stored successfully, the system closes the newly added page and pops up the 'newly added success' prompt message.
With the above-described preferred embodiments according to the present invention as an illustration, the above-described descriptions can be used by persons skilled in the relevant art to make various changes and modifications without departing from the scope of the technical idea of the present invention.
Claims (5)
1. The method for realizing the low-code enhanced service function based on the online service flow arrangement is characterized by comprising the following steps:
step (1) establishing business process classification, including unique codes of the classification and names of the classification;
step (2) establishing a business process, and ensuring the uniqueness of the process;
step (3) on-line business process arrangement design, business logic carding, wherein a specific business operation process is designed in a graphical dragging mode according to the provided process components, and the specific business operation process comprises front-end component operation, micro business processing and back-end interface communication;
analyzing and storing the metadata of the business process, so as to facilitate the subsequent maintenance of the business process;
the process of analyzing and storing the business process metadata is as follows:
step 4.1) analyzing the business process component, wherein the analysis mode rule is as follows:
a. acquiring all node and edge data group objects in the canvas of the current plane;
b. the node type is determined and the node type is determined,
when the node is a start node, node information of the type start is acquired,
when the node is a common node, node information of the type node is acquired,
in the case of a code block node, node information of a jscode type is acquired,
c. the next node id of the link is acquired,
d. the object of the exit function is initialized,
e. generating a related function character string according to the input parameters and the output parameters,
f. generating a node function character string;
after the analysis of the step 4.2) is completed, generating business process metadata;
step 4.3) saving the data to a database;
when designing the page, calling the designed business flow or a standard business flow template, supporting clicking event, value change event, verification event and component data source of a single component to call the business flow, and calling the business flow to process page initialization event, define and take value of system variable and assign business logic operation to the page component by the page event;
the page calling, the single component event and the page event calling business process are as follows:
step 5.1), when designing an online page, carrying out binding setting of a business process on a button click event, a text box value change event, a component data source, a verification event and an initialization event;
step 5.2) the service flow sources comprise built-in standard service flows and self-defined service flows, and corresponding service flows are selected according to the needs;
step 5.3) setting related parameters of the business process;
step (6) instantiating the business flow, generating executable codes and storing the executable codes into a database;
instantiating the business flow, generating executable codes and storing the executable codes into a database as follows:
step 6.1), clicking a page design save button, acquiring complete JSON metadata information during design, including all information of a page, an object model and a business process, and sending the JSON metadata to a background server;
step 6.2) analyzing the business process referenced by the page, the background server takes the JSON metadata and analyzes the JSON metadata, object model information and business process information are obtained through the first analysis and an associated information tree is generated, the business process information comprises the execution sequence, the input parameters and the output parameters of the business process, the model object and the business process information are filtered through the second analysis, page basic information is obtained, and the association of the page, the object model and the business process is established through the two analysis operations;
step 6.3) storing the parsed data to a database for instantiation storage;
and (7) the user accesses or previews the page, executes related operations, and automatically invokes the business process by the system to complete corresponding business logic processing.
2. The method for implementing low-code enhanced business functions based on online business process arrangement according to claim 1, wherein: the process of establishing the business process classification in the step (1) is as follows:
step 1.1) defining unique codes of business process classification, sending a verification request according to a value change event, and judging the unique codes in the background
If the codes are already stored in the database table, the page prompts that the codes are classified and repeated and input again;
step 1.2) defining a business process classification name, wherein the classification name can be repeatedly checked without unique check;
step 1.3) saving classification, sending a saving request, and checking whether classification codes are repeated or not again before saving by a background, if not, automatically setting the hierarchy and the sorting attribute of classification repeatedly, and saving the classification codes into a database; and if the repeated classified coded values exist, returning relevant error reporting information.
3. The method for implementing low-code enhanced business functions based on online business process arrangement according to claim 1, wherein: the process of establishing the business flow in the step (2) is as follows:
step 2.1) creating a business process under the defined business process classification, wherein the current business process refers to a unique business process classification code as an affiliated classification code;
step 2.2) defining a unique code of the business process, sending a verification request according to the value change, and judging whether the code exists in a database table by the background, if so, prompting that the micro-stream code is repeated, and inputting again by the page, and defining a business process name so as to be convenient to call when the page design is carried out on line;
step 2.3) saving the business process, sending a saving request, checking whether the business process codes are repeated again before saving in the background, and if the business process codes and the sorting attributes which belong to the business process are not repeatedly and automatically set, saving the business process codes and the sorting attributes into a database table; and if the repeated business process coding value exists, returning the related error reporting information.
4. The method for implementing low-code enhanced business functions based on online business process arrangement according to claim 1, wherein: the online business process programming and designing process in the step (3) is as follows:
step 3.1) a user selects a proper flow component according to the actual service function, sets component description and attribute information, and conveniently distinguishes the functions to be completed of different flow components;
step 3.2) different flow component configuration attribute parameters are as follows:
the acquisition class component: the input parameter is page control code or system parameter code, and the output parameter is return value variable;
setting a class component: the input parameter is page control code or system parameter code, and the output parameter is Boolean value or no output parameter;
judging a class component: the input parameters are a plurality of parameter variables, and the output parameters are Boolean values;
a compute class component: the input parameters are a plurality of parameter variables, and the output parameters are return value variables;
an object class component: the input parameters are model objects, and the output parameters are model object instance variables;
a page class component: the input parameter is page code, and the output parameter is Boolean value or no output parameter;
communication type assembly: the input parameter is a communication parameter, and the output parameter is a return value variable;
model operation class component: the input parameter is a model object, and the business trip is a return value variable or no output parameter;
a prompt class component: the input parameter is a prompt parameter, and the output parameter is a Boolean value or no output parameter;
custom class component: the input parameter is a code segment, and the output parameter is absent;
step 3.3) dragging the whole business process in a graphical mode, and configuring relevant parameters of the business process.
5. The method for implementing low-code enhanced business functions based on online business process arrangement according to claim 1, wherein: and (7) the user accesses or previews the page, executes related operations, and automatically invokes the business process by the system to complete the corresponding business logic processing process as follows:
step 7.1) previewing the designed page, and performing operations of adding, deleting, modifying and inquiring;
and 7.2) calling the business process to complete relevant business logic processing according to actual operation, analyzing an execution sequence after the background server takes the process information, combining an event processing chain of the business process, executing the event processing chain according to the input parameter, the output parameter and the sequence, and finally returning a result to the front end to realize relevant business logic processing.
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| CN116795378B (en) * | 2023-08-18 | 2023-11-21 | 宁波数益工联科技有限公司 | Method and device for arranging and executing process based on code dynamic compiling |
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