CN113253983A - Modeling method and system for discrete industry network collaborative manufacturing platform based on drive design - Google Patents
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Abstract
The invention discloses a modeling method of a discrete industry network collaborative manufacturing platform based on a drive design, which comprises the following steps: s1, dividing the field of the three basic architectures of the system to be modeled to obtain a primary system field layer, wherein the system field layer comprises an equipment customer field layer, an equipment manufacturer field layer and a part manufacturer field layer; s2, determining the service invariants to select and divide the auxiliary fields according to the actual service condition of the system; s3, fusing the system field layer and the CQRS read-write separation framework in the step S1, designing boundaries of each field, and fusing the CQRS read-write separation framework, so that the pressure of a database is reduced when the system interacts information; and S4, obtaining the relation between the basic field and the auxiliary field, and carrying out detail design to form a final overall architecture model. According to the invention, all processes in the discrete industry can be effectively combined, so that interconnection and intercommunication among the processes are realized, the difficulty of industrial digitization and intelligent manufacturing is reduced, and the system has good expansibility and reusability.
Description
Technical Field
The invention relates to the technical field of software modeling, in particular to a discrete industry network collaborative manufacturing platform modeling method and system based on drive design.
Background
With the arrival of the 4.0 era of industry, the industrial model of "internet + manufacturing" has become the trend and mainstream of development of various industries, and this model can significantly improve the research and development production efficiency, optimize the resource allocation, and innovate the business model. New business states and new technologies are promoted, complex business architectures and logic systems often exist behind the implementation of the manufacturing model, and the application of the common architecture model construction method and the system have obvious disadvantages, so that a new architecture design mode is introduced.
The Domain-Driven Design (Domain-Driven Design) provides a Domain Design idea, and the key point of the problem to be solved is to understand the Domain of the system and maintain the integrity of the business concept; organizing business logic through a domain model to avoid procedural system design; and a reusable field model is established, so that the development of codes can be better guided, and meanwhile, the function iteration is more convenient and quick in the future, and the whole system framework is not easily influenced.
At present, the problems of enterprise digital transformation, particularly discrete manufacturing, are very complex, and the optimization and promotion space is very large from the discrete manufacturing to the enterprise and from the business to the management. The method for manufacturing the platform model by the discrete industry network collaboration based on the field-driven design is just to solve the problem.
Disclosure of Invention
Aiming at the defects in the prior art, the invention aims to provide a discrete industry network collaborative manufacturing platform modeling method and system based on drive design, which can effectively combine all working procedures in the discrete industry, thereby realizing interconnection and intercommunication among the working procedures, reducing the difficulty of industrial digitization and intelligent manufacturing, and enabling the system to have good expansibility and reusability. To achieve the above objects and other advantages in accordance with the present invention, there is provided a modeling method for a discrete industry network collaborative manufacturing platform based on a driving design, comprising the steps of:
s1, dividing the field of the three basic architectures of the system to be modeled to obtain a primary system field layer, wherein the system field layer comprises an equipment customer field layer, an equipment manufacturer field layer and a part manufacturer field layer;
s2, determining the service invariants to select and divide the auxiliary fields according to the actual service condition of the system;
s3, fusing the system field layer and the CQRS read-write separation architecture in the step S1, and designing the boundary of each field;
and S4, obtaining the relation between the basic field and the auxiliary field, and carrying out detail design to form a final overall architecture model.
Preferably, the auxiliary domain comprises pre-sale operation and maintenance, post-sale operation and logistics operation and maintenance domain layers, the auxiliary domain and the system domain layer perform information interaction through a root cluster, and the root cluster is one and only one.
Preferably, the equipment customer domain layer comprises entities such as requirements, plans, quotes and contracts; the equipment manufacturer domain layer comprises project planning, design, procurement subcontracting, manufacturing, installation and debugging after-sale services; the field layer of the part manufacturer comprises drawing, price checking, production progress and manufacturing.
Preferably, in step S3, the client module is in signal connection with a command interface end and an inquiry interface end, the command interface end is input to the write database through the aggregation root, the write database is transmitted to the read database, the read database transmits data to the inquiry module, and the inquiry module is connected to the client through the inquiry interface.
A modeling system of a discrete industry network collaborative manufacturing platform based on a driving design comprises:
the system domain module is used for establishing a domain driving model after identifying domain attributes on the basis of business processes and business logic for a discrete industry system application domain driving design technology;
the system comprises a pre-sale operation and maintenance coordination module, a post-sale and logistics field module and a post-sale and logistics field module, wherein the pre-sale operation and maintenance coordination module is used for interacting with the post-sale and logistics field module;
the workshop operation and maintenance coordination module is used for acquiring the real-time production condition of a workshop;
the after-sale operation and maintenance coordination module is used for interacting with the modules in the pre-sale and logistics fields;
and the logistics operation and maintenance coordination module is interacted with the modules in the pre-sale field and the post-sale field.
Preferably, the interaction among the pre-sale operation and maintenance cooperation module, the post-sale operation and maintenance cooperation module and the logistics operation and maintenance cooperation module is communicated through the aggregation root access to realize the connection among the entities.
Compared with the prior art, the invention has the beneficial effects that:
1. the method for manufacturing the platform model by the aid of the discrete industry network cooperation based on the field-driven design can overcome the defects of management and coordination of traditional industrial points, has certain complexity in informatization modification, and is more complex and variable in process control due to the fact that the processing and production process of the platform model contains more variation and uncertainty factors. The field-driven design idea is provided for solving the problem of large-scale complex systems, and the application of the field-driven design idea in the field can well solve the industrial pain point, thereby improving the efficiency of the enterprise from the tradition to the intellectualization and informatization.
2. A plurality of modeling methods of the system architecture exist, but the problem can be solved skillfully by solving the problem of unrealistic large-scale solution from the current situation of the discrete industry and applying the domain-oriented idea of the domain-driven design idea.
3. A method for manufacturing a platform model in cooperation with a discrete industry network based on field-driven design is finally aimed at recombining all business processes related to the discrete industry, so that seamless transmission of information flow can be realized, the error probability is reduced, the response capability is improved, and the monitoring at any time is facilitated.
4. The traditional code writing mode separates system analysis from design, which shows that a difference exists between modeling and codes and the difference cannot be smoothly connected, introduces the real business background and the integration complexity of a project into a design stage, increases the complexity of the design, improves the practicability of the design and improves the development efficiency of each link.
5. The invention provides a discrete industry network collaborative manufacturing platform model method based on field driven design, which designs three basic field layers and a plurality of auxiliary field layers and combines a CQRS (read-write separation architecture) architecture method, thereby simplifying the design of a system architecture. The method can also reduce the access pressure on the database, thereby realizing high cohesion low coupling of the whole system, further improving the performance of the system, improving the code repeatability and establishing a premise for future expansion.
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FIG. 1 is a flow chart diagram of a modeling method for a discrete industry network collaborative manufacturing platform based on a driver design according to the present invention;
FIG. 2 is a blueprint of a domain of a discrete industry network collaborative architecture for a discrete industry network collaborative manufacturing platform modeling method based on a driver design according to the present invention;
fig. 3 is an exemplary diagram of a domain-level fusion CQRS architecture of the modeling method for the discrete industry network collaborative manufacturing platform based on the driver design according to the present invention.
Detailed Description
The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the drawings in the embodiments of the present invention, and it is obvious that the described embodiments are only a part of the embodiments of the present invention, and not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.
Referring to fig. 1-3, a modeling method for a discrete industry network collaborative manufacturing platform based on a drive design includes the following steps: s1, dividing the field of the three basic architectures of the system to be modeled to obtain a primary system field layer, wherein the system field layer comprises an equipment customer field layer, an equipment manufacturer field layer and a part manufacturer field layer;
s2, determining the service invariants to select and divide the auxiliary fields according to the actual service condition of the system;
s3, fusing the system field layer and the CQRS read-write separation framework in the step S1, designing boundaries of each field, and fusing the CQRS read-write separation framework, so that the pressure of a database is reduced when the system interacts information;
and S4, obtaining the relation between the basic field and the auxiliary field, and carrying out detail design to form a final overall architecture model.
The unified communication language in the system design is the core of DDD, the unified language is used for expressing ideas and exploration problems in the system design process and defining a solution, and the introduction of the unified language can shorten the distance from the overall architecture ideas of the system to a program, so that the compiling of codes is better guided, and a program writer can avoid various unnecessary pains. The running time of the whole service is improved, and other problems can be better treated by the saved time.
Further, the auxiliary field includes the before-sale operation and maintenance, after-sale operation and logistics operation and maintenance field layer, just the auxiliary field and the system field layer carry out the interaction of information through the root of polymerization, just the root of polymerization has and only one.
Further, the equipment customer domain layer comprises entities such as requirements, schemes, quotes and contracts; the equipment manufacturer domain layer comprises project planning, design, procurement subcontracting, manufacturing, installation and debugging after-sale services; the field layer of the part manufacturer comprises drawing, price checking, production progress and manufacturing.
Further, in step S3, the client module is respectively connected to a command interface end and an inquiry interface end through signals, the command interface end is input to the write database through the aggregation root, the write database is transmitted to the read database, the read database transmits data to the inquiry module, and the inquiry module is connected to the client through the inquiry interface.
A modeling system of a discrete industry network collaborative manufacturing platform based on a driving design comprises:
the system domain module is used for establishing a domain driving model after identifying domain attributes on the basis of business processes and business logic for a discrete industry system application domain driving design technology;
the system comprises a pre-sale operation and maintenance coordination module, a post-sale and logistics field module and a post-sale and logistics field module, wherein the pre-sale operation and maintenance coordination module is used for interacting with the post-sale and logistics field module;
the workshop operation and maintenance coordination module is used for acquiring the real-time production condition of a workshop;
the after-sale operation and maintenance coordination module is used for interacting with the modules in the pre-sale and logistics fields;
and the logistics operation and maintenance coordination module is interacted with the modules in the pre-sale field and the post-sale field.
Further, the method comprises the following steps: the interaction among the pre-sale operation and maintenance coordination module, the post-sale operation and maintenance coordination module and the logistics operation and maintenance coordination module is communicated through the access of the aggregation root, so that the connection among the entities can be realized.
Example 1
01. Based on the service of the system to be modeled, three major core parts corresponding to the discrete industry service system are divided into three major fields, including an equipment customer field layer, an equipment manufacturer field layer and a component manufacturer field layer.
02. And (3) carrying out field-driven design technical concept division on the three field layers, and for the equipment client field: the method comprises the steps of equipping a client as a root of aggregation, taking demands, schemes and quotes as entities, taking contracts as value objects and taking a sale policy as a service; for the equipment manufacturer domain: project planning, purchasing, subpackaging and manufacturing are entities which are designed as value objects, and sales policies are services; for the field of component manufacturers: drawings, price verification and manufacturing are entities, the production progress is a value object, and the sales policy is service.
03. The division standard of the technical concept of the field drive design is as follows: entity: the objective things have unique identification; value object: for describing other concepts outside the domain, attributes of entities; service: some behavioral methods cannot be put into an entity or value object, which hardly embodies the aggregation properties.
04. According to the basic framework, the CQRS read-write separation framework is introduced, so that the pressure of the database can be effectively relieved during data reading and writing, and system crash is prevented.
05. The invention puts different types of data into different databases according to different domain concepts in the domain layer.
06. The invention relates to a pre-sale operation and maintenance coordination module which is still divided according to the technical principle of field-driven design, and comprises purchasing coordination and outsourcing coordination, wherein the purchasing coordination field relates to: planning coordination, purchasing coordination, supply coordination and receiving coordination. Wherein the plan is collaborative: a requisition plan and delivery schedule; and (3) purchasing cooperation: order pushing, order changing and order filing; supply coordination: receiving an order, confirming the order, replying a delivery date, printing a delivery bill, a material code and labeling a commodity; harvesting and cooperating: scan code receive and harvest/return notifications. The field of outsourcing relates to: outsourcing the list, recommending the supplier, and suggesting a quote. Wherein the outsourcing list: requirements and drawings; the recommendation provider: manufacturer data and historical purchase orders; and (4) proposing a quote: process records, historical quotations, material sending records and work reporting records.
07. The invention relates to an after-sale operation and maintenance coordination module, which comprises a client and a service center, wherein the client comprises: repair reporting and satisfaction degree; the service center: spare part transactions and live services. Spare part transaction: claim, shipment, replacement, and return; field service: distribution, dispatch, departure, arrival, maintenance, receipt, evaluation, and review.
08. The logistics coordination module comprises intelligent management, core functions, a deployment mode, an internet of things drive and multi-terminal application, wherein the intelligent logistics: task allocation and pushing, warehouse management strategy suggestion and related data report analysis and presentation; the core function is as follows: the system comprises the following steps of cargo input management, in-warehouse management, production management, cargo output management, tracing management, basic management, authority management, system monitoring, log management and interface management; the deployment mode is as follows: deployment of a cloud terminal and a ground terminal; and (3) driving through Internet of things: ERP/SRM/MES and WCS/AS/RS; multi-terminal application: cell phones, tablets, PDAs, wearable devices, PCs, and electronic signs.
09. The workshop collaborative management module comprises personnel management and task management, wherein the personnel management comprises the following steps: a planner, a production supervisor, a production person, a quality protection person, a maintenance person and a dispatching person; task management: the device comprises a crystal ball, an ampere lamp system, a device console and a device cloud field of view.
The interactions within and between the fields related to the complaints 06, 07, 08, 09 are all access and data interactions in the aggregate root, which cannot be performed by other entities or value objects.
What is the premise that time-of-day attention and backtracking analysis is required throughout the DDD modeling deduction process. The business domain is considered by using the logic of the domain, and in addition, in the modeling process, the UML time sequence diagram is required to be used for expressing and combining color labels in the event storm, namely different colors represent event elements such as aggregation roots, entities, value objects and the like. By continuously adjusting the combination of the concentrated notes, the aggregation and the boundaries of each other can be gradually discovered, the aggregation embodies the aggregation, and the boundaries can embody the boundaries of the context.
The domain objects in the present invention are all concentrated in the domain layer, and since the conventional MVC architecture has three layers, the DDD architecture becomes four layers after the domain objects are introduced, wherein the database layer is used as the infrastructure layer, the application layer is used to coordinate the domain layer and the infrastructure layer, and the presentation layer is also complicated to coordinate the domain layer and the infrastructure layer as the user interface. The logic change and modification of the business are all operated in the field, while the traditional business logic is all concentrated in the database table section and SQL or storage process, which is difficult to realize the intuitive and direct mapping of the business object.
Wherein the CQRS schema is based on a message queue that maintains consistency between the database and the write database by persisting user command requests and using the message queue. Aiming at the problem that the traditional object-oriented programming method can not well reduce the coupling degree of each module in the system and separate system-level focus and service focus, the dependent injection and AOP technology is introduced, the modularization characteristic is increased through the dependent injection, the focus is transversely cut through the AOP management, the high-cohesion low-coupling code style is realized, and convenience is provided for code writing after the model is established.
The invention discloses a discrete industry network collaborative manufacturing platform model method based on field-driven design, which is shown in figure 3. The method comprises the following steps: firstly, dividing a system to be modeled into three basic architecture fields, namely an equipment client field, an equipment manufacturer field and a component manufacturing field; secondly, according to the actual service condition of the system, the auxiliary field division is carried out on the premise of determining the service invariants, and the method comprises the following steps: the field of pre-sale collaboration, post-sale collaboration and logistics collaboration; combining a CQRS read-write separation framework to integrate the CQRS read-write separation framework into the framework design, and designing the boundaries of each field; and finally, acquiring the relation between the basic field and the auxiliary field aiming at the inter-field relation of the system field, and carrying out detail design to form a final integral architecture model.
In summary, the method for the collaborative manufacturing of the platform model based on the domain-driven design for the network collaborative manufacturing of the discrete industry provided by the invention provides a new idea for the intelligentization of the discrete industry, and the main problem is that the method can effectively solve the problems of large volume and more details in the face of various complicated problems in the transformation of the discrete industry, can efficiently cooperate with various fields related to the system, and reduces the problems of large volume and repeated occurrence in the transformation process. In summary, the domain-driven design technology can solve the problem of pain points faced by a large-scale system and can also solve the pain points faced by a code development process, the problem of network collaboration in discrete industries can be solved by adopting the domain-driven design technology, the effect of one-arrow double carving can be achieved, the system architecture is not only concise, but also can be embodied in an entity, and the method is also an advantage of the modification of an actual system.
The number of devices and the scale of the processes described herein are intended to simplify the description of the invention, and applications, modifications and variations of the invention will be apparent to those skilled in the art.
While embodiments of the invention have been described above, it is not limited to the applications set forth in the description and the embodiments, which are fully applicable in various fields of endeavor to which the invention pertains, and further modifications may readily be made by those skilled in the art, it being understood that the invention is not limited to the details shown and described herein without departing from the general concept defined by the appended claims and their equivalents.
Claims (6)
1. A modeling method of a discrete industry network collaborative manufacturing platform based on a drive design is characterized by comprising the following steps:
s1, dividing the field of the three basic architectures of the system to be modeled to obtain a primary system field layer, wherein the system field layer comprises an equipment customer field layer, an equipment manufacturer field layer and a part manufacturer field layer;
s2, determining the service invariants to select and divide the auxiliary fields according to the actual service condition of the system;
s3, fusing the system field layer and the CQRS read-write separation architecture in the step S1, and designing the boundary of each field;
and S4, obtaining the relation between the basic field and the auxiliary field, and carrying out detail design to form a final overall architecture model.
2. The modeling method for the discrete industry network collaborative manufacturing platform based on the driving design as claimed in claim 1, wherein the auxiliary domain comprises pre-sale operation and maintenance, post-sale operation and logistics operation and maintenance domain layers, and the auxiliary domain and the system domain layer perform information interaction through a polymeric root, and there is only one polymeric root.
3. The modeling method for the discrete industry network collaborative manufacturing platform based on the driving design according to claim 1, wherein the equipment customer domain layer comprises entities such as requirements, schemes, quotes and contracts; the equipment manufacturer domain layer comprises project planning, design, procurement subcontracting, manufacturing, installation and debugging after-sale services; the field layer of the part manufacturer comprises drawing, price checking, production progress and manufacturing.
4. The modeling method for the discrete industry network collaborative manufacturing platform based on the driver design as claimed in claim 1, wherein the step S3 is implemented by signal connection of a command interface terminal and a query interface terminal through a client module, the command interface terminal is input to a write database through a root cluster, the write database is transmitted to a read database, the read database transmits data to a query module, and the query module is connected to the client through a query interface.
5. The modeling system for a discrete industry network collaborative manufacturing platform based on a driven design according to claim 1, comprising:
the system domain module is used for establishing a domain driving model after identifying domain attributes on the basis of business processes and business logic for a discrete industry system application domain driving design technology;
the system comprises a pre-sale operation and maintenance coordination module, a post-sale and logistics field module and a post-sale and logistics field module, wherein the pre-sale operation and maintenance coordination module is used for interacting with the post-sale and logistics field module;
the workshop operation and maintenance coordination module is used for acquiring the real-time production condition of a workshop;
the after-sale operation and maintenance coordination module is used for interacting with the modules in the pre-sale and logistics fields;
and the logistics operation and maintenance coordination module is interacted with the modules in the pre-sale field and the post-sale field.
6. The modeling system for a discrete industry network collaborative manufacturing platform based on a driven design according to claim 5, comprising: the interaction among the pre-sale operation and maintenance coordination module, the post-sale operation and maintenance coordination module and the logistics operation and maintenance coordination module is communicated through the access of the aggregation root, so that the connection among the entities can be realized.
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