CN117270825A - Flexible software development method and suite for industrial complex business requirements - Google Patents
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Abstract
The invention discloses a flexible software development method and a flexible software development kit for industrial complex business requirements, wherein the method comprises the following steps: acquiring customer demand information and classifying the customer demand information, wherein the customer demand information is classified into general service demands and specific service demands; if the general service demand is met, assembling the components of the industrial service atomic service according to the general service demand, and constructing a first field model, wherein the industrial service atomic service is constructed by multiplexing functions in an abstract industrial service scene; if the specific service requirement is met, extracting a service data object, a service rule and a flow according to the client requirement information, and constructing a second field model; and constructing the scene application based on the information of the first field model and the information of the second field model. The method is applied to the rapid construction of the industrial APP.
Description
Technical Field
The invention belongs to the technical field of computers, and particularly relates to a flexible software development method and a flexible software development kit for industrial complex business requirements.
Background
The industrial industry has large difference, the business logic is complex, and the demands of enterprises almost have individual characteristics. However, due to the inherent characteristics of standardization, sealing and modularization of the traditional IT system of the enterprise, the digital construction strategy of the enterprise is obviously restricted at present:
(1) In the early enterprise digital construction process, because of lack of integral planning, multiple application access entries are caused, the flow and data among all systems are not communicated, and the problem of repeated construction exists;
(2) Changes in market and customer demand force enterprises to continually adjust their business models, business needs, and management flows. Conventional standardized software development often has difficulty meeting the needs of such variations and differentiation. The project period is long, the cost is high, the customization degree is low, and enterprises face difficulties in adapting to market changes.
(3) The traditional industrial application software often uses a single architecture or a complex integration mode, so that the system is difficult to split and combine, the flexibility and the expandability of the system are limited, and the flexible demand development of the service, the multiplexing of resources and the improvement of the development efficiency are also limited.
Disclosure of Invention
In order to solve the technical problems, the invention provides a flexible software development method and a flexible software development kit for industrial complex business requirements, which aim to meet the personalized requirements of the industrial industry and provide a customized business management solution.
In order to achieve the above object, the present invention provides a flexible software development method for industry complex business requirements, comprising:
acquiring customer demand information and classifying the customer demand information, wherein the customer demand information is classified into general service demands and specific service demands;
if the general service demand is met, assembling components of industrial service atomic services according to the general service demand, and constructing a first field model, wherein the industrial service atomic services are constructed by multiplexing functions in an abstract industrial service scene;
if the specific service requirement is met, extracting a service data object, a service rule and a flow according to the client requirement information, and constructing a second field model;
and constructing the scene application based on the information of the first field model and the information of the second field model.
Optionally, abstracting the reusable functions in the industrial business scenario to construct the industrial business atomic service includes:
and decoupling the enterprise resource planning ERP, the manufacturing execution system MES and the warehouse management system WMS, and constructing the industrial business atomic service.
Optionally, obtaining the client requirement information includes: and acquiring the client demand information through the service flow, the service rule and the data demand of the client.
Optionally, constructing the second domain model includes:
constructing a business data model according to the business data object;
constructing a specific business process model through a logic designer and an engine according to the business rules and processes;
and constructing the second domain model based on the business data model and the business process model.
Optionally, the industrial business atomic service is a business capability unit with minimum granularity, and is used for providing a business atomic service facing a scene and a universal atomic service, wherein the business atomic service facing the scene comprises inventory management, material management, order management, personnel management, financial management, quality management and raw material purchase, and the universal atomic service comprises coding rules, label printing, short messages, mails and OCR (optical character recognition).
Optionally, constructing the scenerising application based on the information of the first domain model or the information of the second domain model includes:
designing a page through a page visual designer, arranging the visually dragged page through a page engine to generate a JSON Schema, and obtaining a page effect through analyzing the JSON Schema when the page is displayed;
the business is arranged through a logic designer, and a logic engine runs and flows according to rules corresponding to the established business process model, wherein the logic designer comprises a predefined business logic component, and the business process model is constructed through connecting the business logic component.
Optionally, constructing a service data model according to the service data object includes:
constructing a business data model by adopting a graphical domain object modeling designer, wherein the domain object modeling designer abstracts a business object into an entity object by extracting attributes and verbs for describing the characteristics of the specific demand business object, and establishes association between entities;
the definitions of the entities, the relationships and the relationship types created from the domain object modeling designer are parsed by a domain object modeling engine, and database tables, fields and relationships are generated from the definitions.
The invention also provides a flexible software development kit facing the industrial complex business requirement, which comprises:
the system comprises a field construction module, a scene application construction module and an atomic service capability module;
the atomic service capability module is used for constructing industrial service atomic service through a reusable function in an abstract industrial service scene;
the domain construction module is used for acquiring client demand information, dividing the client demand information into general service demands and specific service demands, if the client demand information is the general service demands, assembling the components of the industrial service atomic service according to the general service demands to construct a first domain model, and if the client demand information is the specific service demands, extracting service data objects, service rules and flows according to the client demand information to construct a second domain model;
the scene application construction module is used for constructing scene applications based on the information of the first field model and the information of the second field model.
Optionally, the domain building module comprises a domain modeling unit, a model field unit, a model method unit and a model page unit;
the domain modeling unit is used for constructing the first domain model by assembling components of the industrial business atomic service module according to requirements; constructing a business data model according to the business data object, constructing a specific business process model through a logic designer and an engine according to the business rule and process, and constructing the second field model based on the business data model and the business process model;
the model field unit is used for associating the data table field with the page component and configuring the field format and the check rule;
the model method unit is used for automatically generating an add-drop-check API atomic service for the first domain model and the second domain model;
the model page unit is used for automatically generating basic pages of the first domain model and the second domain model, and the basic pages automatically bind the add-delete-change-check API atomic service, wherein the basic pages comprise a list page, a detail page and an edit page.
Optionally, the scene application construction module comprises a page visual designer and a page engine, a logic designer and a logic engine;
the page visual designer and the page engine are used for designing pages, generating JSON Schema by arranging the pages after visual dragging, and displaying the pages by analyzing the JSON Schema to obtain page effects;
the logic designer and the logic engine are used for providing a predefined business logic component through the logic designer, logically arranging the atomic service through the logic engine, and simultaneously accessing the external atomic service through the configuration and arrangement of the data operation node to realize the data interconnection and intercommunication between the forms.
The invention has the technical effects that:
1. the flexible development kit is adopted to carry out configuration in a fully visual mode, so that the manufacturing process of enterprise applications is simplified. The visual configuration mode reduces the development cost of the business application, so that the business application can be delivered to the user more quickly;
2. by providing a large number of industrial business atomic services, agile on-demand assembly of business applications is achieved. The atomic service library enables enterprises to construct business applications more efficiently, fully utilizes existing components and functions, and accelerates development speed;
3. the invention designs a flexible business arrangement mode, and allows non-technicians to establish a simple and easily understood business process model. Meanwhile, the service arrangement mode can also process highly complex service flows, and improves flexibility and expandability of service application.
Drawings
The accompanying drawings, which are included to provide a further understanding of the application, illustrate and explain the application and are not to be construed as limiting the application. In the drawings:
FIG. 1 is a flowchart of a flexible software development method for industrial complex business requirements according to an embodiment of the present invention;
FIG. 2 is a flow chart of modeling in the field of embodiments of the present invention;
FIG. 3 is a flow chart of rendering a page based on the generation of a page designer in accordance with an embodiment of the present invention;
fig. 4 is a flow chart of business arrangement according to an embodiment of the present invention.
Detailed Description
It should be noted that, in the case of no conflict, the embodiments and features in the embodiments may be combined with each other. The present application will be described in detail below with reference to the accompanying drawings in conjunction with embodiments.
It should be noted that the steps illustrated in the flowcharts of the figures may be performed in a computer system such as a set of computer executable instructions, and that although a logical order is illustrated in the flowcharts, in some cases the steps illustrated or described may be performed in an order other than that illustrated herein.
As shown in fig. 1, the present embodiment provides a flexible software development method for industry complex service requirements, which is applied to quick construction of industry APP, and includes:
s1: the reusable functions in the abstract industrial business scene construct industrial atomic services to form an industrial business atomic resource library;
s2: acquiring user demand information, and classifying and analyzing demand services into general services and specific services;
s2-1: aiming at the general service requirement, assembling the components of the industrial service atomic service module according to the requirement to complete the field modeling aiming at the general service requirement;
s2-2: aiming at specific service requirements, further analyzing and processing requirement information, extracting service data objects, service rules and processes, and realizing field modeling aiming at characteristic service requirements;
s2-2-1: constructing a business data model according to the business data object;
s2-2-2: according to the business rules and the flow, realizing business logic arrangement, and constructing a specific business flow model;
s3: and carrying out scene application construction on the field model information aiming at the specific service requirement and the field model information aiming at the general service requirement, which are constructed by field modeling.
The industrial business atomic service is to isolate business rules, processes, logic and business of industrial application, integrate and package the business rules, processes, logic and business into atomic service which can be shared in multiplexing way such as micro service, components and the like, each atomic service represents a business capability, provides support of different business requirements for a foreground, and provides quick hatching, innovation and error testing capability for the business.
The industrial business atomic service decouples traditional industrial applications such as ERP (Enterprise resource planning), MES (manufacturing execution system), WMS (warehouse management system) and the like, splits complex applications into independent atomic services, and adopts a standardized design and a shared architecture so that the atomic services can be multiplexed in different business scenes. Atomic services are business capability units with minimum granularity, and can be assembled based on various fragmented and differentiated business scenes, namely repackaged into personalized and lightweight industrial APP for specific scenes and specific problems. Industrial APP (industrial atomic service) includes, but is not limited to, inventory management, material management, order management, personnel management, financial management, quality management, raw material purchasing, etc., and can flexibly expand business scenarios applied to other fields.
The industrial business atomic service provides general atomic services including coding rules, label printing, short messages, mails, OCR (optical character recognition) and the like besides the business atomic service oriented to the specific scene, and the general atomic service is not limited to the industrial business scene, and is also suitable for business scenes in other fields. The industrial business atomic service is integrated by taking the API as a main medium, and the atomic service can be independently developed and also can support access to external capability service, so that the industrial business atomic service has good expandability and can be flexibly expanded and replaced according to different requirements.
The scene application construction process is to realize page (arrangement) and business arrangement through a visual designer and a core engine, and help users to design and construct business modules through a graphic dragging mode. The combination of the visual designer and the core engine can efficiently perform business modeling, logic arrangement and interface design, and automatically generate an interaction page. The designer comprises: logic designer, page designer. The engine comprises: logic engine, page engine. The method comprises the steps of designing a page through a page visual designer, arranging the visually dragged page through a page engine, generating a JSON Schema, and obtaining a page effect by analyzing the JSON Schema when the page is displayed.
Before the service (logic) arrangement of the specific requirements is carried out, a service data model in a field object aiming at the specific service requirements is required to be constructed, a graphical field object modeling designer is adopted for modeling, the service object is abstracted into an entity object by extracting the attribute and verb describing the characteristics of the specific requirement service object, and the field object modeling designer supports the relationship between user creation and management entity. By dragging the domain modeling designer and connection, the user can simply establish an association between entities, such as a one-to-one, one-to-many, etc., relationship. Such a relational definition will facilitate the construction of data flows and data interactions in business logic. The definitions of the entities, relationships, and relationship types created from the domain object modeling designer are parsed by the domain object modeling engine, and database tables, fields, and relationships are generated from the definitions, including creating primary keys, foreign keys, and the like.
The (business) logical orchestration mainly consists of start nodes, end nodes, active nodes, external nodes, etc. Wherein the external nodes are bound mainly with atomic services or with domain objects for specific business needs. The active node is first bound to components in a component library of the logic designer, which contains various predefined business logic components, such as condition judgment, circulation, computation, etc. The user can select the appropriate components from the library of components and drag them onto the design interface. And then, the user can construct a complete business process model by connecting the components, and finally, the logic engine runs and flows according to the rules corresponding to the business process model until the nodes are ended. The business process model in the scene construction process and the specific business process model in the specific business object model construction process are constructed through a logic engine and a logic designer.
The page designer mainly provides a visual tool for the page to develop, and provides a custom page design for the page based on newly built pages or generated pages. The page engine generates a JSON Schema by arranging the visualized dragged page, and obtains a page effect by analyzing the JSON Schema when the page is displayed.
By the method, the business management system can carry out classification analysis according to the client demand information, assemble by combining components of the universal business demand and the industrial business atomic service module, and carry out business data modeling and business process modeling aiming at specific business demands, so that the application construction of scene is finally realized. This can meet the personalized needs of the industry and provide customized business management solutions.
The embodiment also provides a flexible software development kit facing to the industrial complex business requirement, which comprises:
a domain construction module, a scene application construction module and an atomic service capability module;
the atomic service capability module is used for constructing industrial service atomic service through the reusable functions in the abstract industrial service scene;
the domain construction module is used for acquiring client demand information, dividing the client demand information into general service demands and specific service demands, assembling the components of the industrial service atomic service according to the general service demands if the general service demands are met, constructing a first domain model, extracting service data objects, service rules and flows according to the client demand information if the specific service demands are met, and constructing a second domain model;
the scene application construction module is used for constructing scene applications based on the information of the first field model and the information of the second field model.
The domain building module comprises a domain modeling unit, a model field unit, a model method unit and a model page unit;
the field modeling unit is used for constructing a first field model by assembling components of the industrial business atomic service module according to requirements; constructing a business data model according to the business data object, constructing a specific business process model through a logic designer and an engine according to business rules and processes, and constructing a second field model based on the business data model and the business process model;
the model field unit is used for associating the data table field with the page component and configuring the field format and the check rule;
the model method unit is used for automatically generating an add-drop-check API atomic service for the first domain model and the second domain model;
and the model page unit is used for automatically generating a basic page of the first domain model and the second domain model.
As shown in fig. 2, the domain modeling centers on the domain object, and includes both the domain-related model field and the domain-related method and page, which has business significance.
Besides the associated data table field, the model field can also associate page components, and corresponds to the component type of the display field in the page, such as a drop-down box, a text box and the like. The field format and the check rules may also be configured.
Further, the model method is to automatically generate adding, deleting and modifying four basic API atomic services aiming at the domain model after the domain model is created.
Further, the model page is the same as the model method, after the creation of the domain model is completed, three basic pages, list pages, detail pages and edit pages of the model can be generated, and the generated pages automatically complete the binding of the add-drop and revise API. Thus, the automatically generated model page can perform basic operations on the domain model.
The page designer mainly provides a visual tool for the page required by system construction for development, and provides a user-defined page design for the newly built page or the generated page. Rendering and displaying are carried out by a page engine, and the main principle of the page engine is that a visual dragged page is arranged to generate a JSON Schema, and when the page is displayed, a page effect is obtained by analyzing the JSON Schema. An example diagram of JSON Schema is shown in fig. 3.
The page designer supports three page type designs in common use: list pages, detail pages, and form pages. The following is a description of list page design: the page designer supports three page type designs in common use: list pages, detail pages, and form pages. The list page design contains a form component, a filter bar component, and a button component. The form component design supports configuration operations including data loading, custom data columns, action columns, and the like. The filter bar component design support includes search term configuration. The button component is designed mainly for operating the selected row, when the button component is configured, specific function types need to be selected, parameters needed to be configured for buttons with different function types are different, and the function types comprise: service buttons, jump buttons, pop-up buttons, custom buttons. The service button is used to call the API service. The jump button is used for page jumping. The popup button is used for triggering popup. The custom button is used for custom function processing.
The list page design must include a form component, other components are optional components, the list page is a general style template, and multiple independent areas in the list page can be respectively configured in a slot mode, and the configuration includes a basic configuration, a form configuration, a query column configuration and a button group configuration. Basic configuration includes configuring some basic information of a page including page name, page code, page access path, page description, etc.
Rendering process of page:
firstly, after the page design is completed, the page design is stored in a database in the form of JSON Schema. The JSON Schema contains layout of pages, components, configuration information, etc. In the database, each page has a unique identifier for identification and retrieval. When a page needs to be rendered in the running environment, the corresponding JSON Schema is read from the database according to the unique identifier of the page.
And secondly, performing page initialization rendering according to the JSON Schema obtained by analysis. And displaying the components according to the appointed arrangement and style according to the layout information. The components may be predefined or dynamically loaded.
Finally, each component is rendered according to the description protocol of the component, and the configuration items are applied to the corresponding component. After rendering is completed, the page is presented to the user in a visual form. The user may interact with the page, enter data, click buttons, etc. The specific rendering flow is as follows:
the logic engine logically arranges the atomic services, and simultaneously supports access to external atomic services through configuration and arrangement of the data operation nodes, so that data interconnection and intercommunication among forms are realized, and realization of data processing and automation business is met.
As shown in fig. 4, the business orchestration is performed by a logic designer tool. The component library provided by the logic designer contains various predefined business logic components, such as condition judgment, circulation, calculation, etc. The user can select the appropriate components from the library of components and drag them onto the design interface. Then, the user can build a complete business process model by connecting the components, and finally, the logic engine performs operation circulation according to the rules corresponding to the built business process model.
Further, the logical orchestration mainly consists of a start node, an end node, an active node, an external node, etc. Wherein the external node is mainly bound with the atomic service. The active node is a component in a component library provided by the binding logic designer.
Further, the atomic service is to decouple the traditional industrial application such as ERP (enterprise resource planning), MES (manufacturing execution system), WMS (warehouse management system), etc., split the complex application into independent atomic service modules, and adopt standardized design and shared architecture, so that the atomic service modules can be multiplexed in different service scenarios, the industrial atomic service refers to a service capability unit with minimum granularity facing the industrial scenario, and can perform various fragmented service-based assembly, and repackage a new lightweight industrial APP facing a specific scenario and a specific problem. The general atomic service mainly comprises coding rules, label printing, short messages, mails, OCR text recognition and the like. The industrial atomic service mainly comprises inventory management, material management, order management, personnel management, financial management, quality management, raw material purchase and the like.
The foregoing is merely a preferred embodiment of the present application, but the scope of the present application is not limited thereto, and any changes or substitutions easily conceivable by those skilled in the art within the technical scope of the present application should be covered in the scope of the present application. Therefore, the protection scope of the present application shall be subject to the protection scope of the claims.
Claims (10)
1. A flexible software development method facing to industrial complex business demands is characterized by comprising the following steps:
acquiring customer demand information and classifying the customer demand information, wherein the customer demand information is classified into general service demands and specific service demands;
if the general service demand is met, assembling components of industrial service atomic services according to the general service demand, and constructing a first field model, wherein the industrial service atomic services are constructed by multiplexing functions in an abstract industrial service scene;
if the specific service requirement is met, extracting a service data object, a service rule and a flow according to the client requirement information, and constructing a second field model;
and constructing the scene application based on the information of the first field model and the information of the second field model.
2. The flexible software development method for industrial complex business requirements according to claim 1, wherein abstracting reusable functions in an industrial business scenario to construct the industrial business atomic service comprises:
and decoupling the enterprise resource planning ERP, the manufacturing execution system MES and the warehouse management system WMS, and constructing the industrial business atomic service.
3. The flexible software development method for industrial complex business requirements of claim 2, wherein obtaining the customer requirement information comprises: and acquiring the client demand information through the service flow, the service rule and the data demand of the client.
4. The flexible software development method for industrial complex business requirements of claim 3, wherein constructing the second domain model comprises:
constructing a business data model according to the business data object;
constructing a specific business process model through a logic designer and an engine according to the business rules and processes;
and constructing the second domain model based on the business data model and the business process model.
5. The flexible software development method for industry complex business requirements according to claim 1, wherein the industry business atomic service is a business capability unit with minimum granularity, and is used for providing business atomic service for scenes and general atomic service, wherein the business atomic service for scenes comprises inventory management, material management, order management, personnel management, financial management, quality management and raw material purchasing, and the general atomic service comprises coding rules, label printing, short messages, mails and OCR text recognition.
6. The flexible software development method for industrial complex business requirements according to claim 4, wherein constructing a scenic application based on the information of the first domain model or the information of the second domain model comprises:
designing a page through a page visual designer, arranging the visually dragged page through a page engine to generate a JSON Schema, and obtaining a page effect through analyzing the JSON Schema when the page is displayed;
the business is arranged through a logic designer, and a logic engine runs and flows according to rules corresponding to the established business process model, wherein the logic designer comprises a predefined business logic component, and the business process model is constructed through connecting the business logic component.
7. The flexible software development method for industrial complex business requirements of claim 4, wherein constructing a business data model from the business data objects comprises:
constructing a business data model by adopting a graphical domain object modeling designer, wherein the domain object modeling designer abstracts a business object into an entity object by extracting attributes and verbs for describing the characteristics of the specific demand business object, and establishes association between entities;
the definitions of the entities, the relationships and the relationship types created from the domain object modeling designer are parsed by a domain object modeling engine, and database tables, fields and relationships are generated from the definitions.
8. The flexible software development kit for the industrial complex business requirement is characterized by comprising a field construction module, a scene application construction module and an atomic service capability module;
the atomic service capability module is used for constructing industrial service atomic service through a reusable function in an abstract industrial service scene;
the domain construction module is used for acquiring client demand information, dividing the client demand information into general service demands and specific service demands, if the client demand information is the general service demands, assembling the components of the industrial service atomic service according to the general service demands to construct a first domain model, and if the client demand information is the specific service demands, extracting service data objects, service rules and flows according to the client demand information to construct a second domain model;
the scene application construction module is used for constructing scene applications based on the information of the first field model and the information of the second field model.
9. The flexible software development kit for industrial complex business requirements of claim 8, wherein the domain building module comprises a domain modeling unit, a model field unit, a model method unit, and a model page unit;
the domain modeling unit is used for constructing the first domain model by assembling components of the industrial business atomic service module according to requirements; constructing a business data model according to the business data object, constructing a specific business process model through a logic designer and an engine according to the business rule and process, and constructing the second field model based on the business data model and the business process model;
the model field unit is used for associating the data table field with the page component and configuring the field format and the check rule;
the model method unit is used for automatically generating an add-drop-check API atomic service for the first domain model and the second domain model;
the model page unit is used for automatically generating basic pages of the first domain model and the second domain model, and the basic pages automatically bind the add-delete-change-check API atomic service, wherein the basic pages comprise a list page, a detail page and an edit page.
10. The flexible software development kit for industrial complex business requirements of claim 8, wherein the scenerized application building module comprises a page visualization designer and page engine, a logic designer and logic engine;
the page visual designer and the page engine are used for designing pages, generating JSON Schema by arranging the pages after visual dragging, and displaying the pages by analyzing the JSON Schema to obtain page effects;
the logic designer and the logic engine are used for providing a predefined business logic component through the logic designer, logically arranging the atomic service through the logic engine, and simultaneously accessing the external atomic service through the configuration and arrangement of the data operation node.
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