CN111949244A - Full-stack modular system integration method - Google Patents
Full-stack modular system integration method Download PDFInfo
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- CN111949244A CN111949244A CN202010763929.5A CN202010763929A CN111949244A CN 111949244 A CN111949244 A CN 111949244A CN 202010763929 A CN202010763929 A CN 202010763929A CN 111949244 A CN111949244 A CN 111949244A
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Abstract
The invention discloses a full-stack modular system integration method, which comprises the following steps: s1 packaging and splicing each module → S2 visual integrated system → S3 setting new system overall framework → S4 system compiling and publishing → S5 DevOps platform and server environment, concrete steps of building module and system integration and realizing the rapid disassembly of distributed architecture application system module and the code-free type recombination of system by building the platform.
Description
Technical Field
The invention relates to the field of full-stack systems, in particular to a full-stack modular system integration method.
Background
At present, the software of a common application system is developed by adopting a distributed architecture, the system consists of a plurality of functional modules, the front end and the back end of the modules are separated, a single front end can call a plurality of back end services, and a single back end can also be called by a plurality of front ends, so that the architecture solves the problem of back end service redundancy;
with the development of informatization, the updating of application system software is faster and faster, the requirement of functional module reuse is stronger and stronger, when the distributed architecture system is subjected to module recombination, the layering of front and back ends is needed, then the front and back ends after layering are respectively subjected to modular treatment, and then the recombination is carried out on codes, and a large amount of repeated work exists in the method, so that a large amount of labor and time can be consumed;
aiming at the problems, the current module management mainly aims at the rear end, mainly takes service as the main part, the mainstream technical direction is service management and micro-service, aiming at the front end module management, the recent mainstream is micro-front end technology, and the front end interfaces of different functional modules are integrated together in the engineering field.
However, the above techniques still have the following disadvantages:
1. the front end and the rear end are respectively treated in the horizontal direction, when the system needs to be vertically cut according to the functional modules, the parts needing to be cut at the front end and the rear end need to be redeveloped, and the single development cost is high;
2. when the split modules are recombined, the split modules are developed and assembled in a layered mode in the horizontal direction again, and communication and development cost is further improved;
3. the work result is not easy to precipitate, and when similar things are done next time, the repeated work needs to be carried out again, so that huge resource waste is caused.
Therefore, it is necessary to invent a full stack modular system integration method to solve the above problems.
Disclosure of Invention
The embodiment of the invention provides a full-stack modular system integration method, which comprises the specific steps of building modules and system integration, and realizes the quick disassembly of distributed architecture application system modules and the code-free recombination of a system by building the platform so as to solve the problems in the background art.
In order to achieve the purpose, the invention provides the following technical scheme: a full stack modular system integration method, the method comprising the steps of:
s1: defining a universal packaging mode for minimally modifying the source code of an original module, uniformly packaging the front end and the rear end of a functional module, enabling the functional modules to be spliced with each other in a uniform interface mode, storing the packaged modules in a package management tool in the form of a mirror image and a resource description file by using a container arrangement technology, and issuing the packaged modules to a visual system design tool;
s2: in a system design tool, splicing the associated function modules in a visual mode, and finally integrating a plurality of modules into a new application system;
s3: setting the whole frame content of the new system, such as a system LOGO, a menu, a user mode and the like, and forming a complete and available system;
s4: compiling modules in a system design tool and system frame source data to generate a configuration file required for deployment in an operation and maintenance system, publishing the configuration file to a DevOps operation and maintenance automation platform, realizing re-horizontal layering of a front end and a back end in the compiling process by utilizing a resource deployment technology and a dependence management tool in a container technology system, and performing re-arranging treatment on repeated service dependence;
s5: and automatically deploying on a DevOps platform to finally obtain an operable system.
Preferably, in step S1, the module development environment defines a set of process specifications and automation tools.
Preferably, the process specification includes a contract development process, the main objective is to complete the encapsulation of the module with the lowest modification to the original code, and the automation tool includes the completion of compiling, packaging and publishing the source code to the module.
Preferably, in step S2, the visualization integration application system includes a system library, an integration system, a module library, a system framework, and an infrastructure service library.
Preferably, the system library is used for managing an integrated system, performing publishing operation, and packaging integrated design source data into a resource which can be rapidly deployed on a DevOps platform through a system compiling and publishing process, the integrated system comprises a visual system design tool and a tool for configuring the integrated designed system, the module library stores material modules for the integrated system, all the modules are uniformly packaged by a packaging protocol which is irrelevant to the technical scheme of the modules, and are packaged in a full stack manner, and the packaging protocol comprises all information required by accessing the front end and the back end of the modules.
Preferably, the system framework is used for bearing a system exo-framework of the module, and comprises a page framework structure for bearing each interface, a user and authority system of the system, and ensures that the visual style of the skin system of the system is uniform, the infrastructure service library comprises a database, a big data system, a basic AI service and the like, the module encapsulation information comprises services which the module depends on, and the services can be finally deployed to the operation and maintenance platform along with the system in a micro-service mode
Preferably, in the step S4, the system compiles a description publishing data according to the design source, compiles the system into a series of configuration files that the DevOps platform can understand and deploy, and synchronizes the system deployment information on the DevOps platform back to the system integration design platform.
Preferably, in step S5, the DevOps platform stores the compiled complete system, and implements one-key deployment of the system, managing and monitoring the hardware resources and the operating status of the system.
The invention has the technical effects and advantages that:
the invention can fully utilize the existing functional module or rapidly package a new module according to the requirement, flexibly respond to the requirements of the deconstruction and the recombination of a complex system, integrate the system required by a client by using the existing functional module with the lowest labor and time cost and the lowest development amount, and realize the effective precipitation of the functional module which is realized or used in the past and the system case.
Drawings
FIG. 1 is a schematic diagram of the system configuration of the present invention.
Fig. 2 is a schematic diagram of a module packaging process according to the present invention.
FIG. 3 is a schematic diagram of a system integration design platform according to the present invention.
FIG. 4 is a schematic diagram of the system rearrangement process of the present invention.
Fig. 5 is a schematic diagram of a DevOps platform and server environment in 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.
The invention provides a full-stack modular system integration method, which comprises the following steps:
s1: defining a universal packaging mode for minimally modifying the source code of an original module, uniformly packaging the front end and the rear end of a functional module, enabling the functional modules to be spliced with each other in a uniform interface mode, storing the packaged modules in a package management tool in the form of a mirror image and a resource description file by using a container arrangement technology, and issuing the packaged modules to a visual system design tool;
s2: in a system design tool, splicing the associated function modules in a visual mode, and finally integrating a plurality of modules into a new application system;
s3: setting the whole frame content of the new system, such as a system LOGO, a menu, a user mode and the like, and forming a complete and available system;
s4: compiling modules in a system design tool and system frame source data to generate a configuration file required for deployment in an operation and maintenance system, publishing the configuration file to a DevOps operation and maintenance automation platform, realizing re-horizontal layering of a front end and a back end in the compiling process by utilizing a resource deployment technology and a dependence management tool in a container technology system, and performing re-arranging treatment on repeated service dependence;
s5: and automatically deploying on a DevOps platform to finally obtain an operable system.
Example 1: DevOps platform and server environment functions:
1. the application store is used for storing the compiled complete system and managing system deployment;
2. the resource arrangement platform is mainly responsible for managing and distributing hardware and container resources, flexible management and flexible capacity expansion of the resources are realized, and the hardware resources can be used in a container cluster mode;
3. monitoring the system operation condition and the hardware condition, and giving an alarm when a problem occurs;
4. the basic hardware settings may be real hardware or virtual machine resources on various public private cloud platforms.
Preferably, in step S1, the module development environment defines a set of process specifications and automation tools.
Preferably, the process specification includes a contract development process, the main objective is to complete the encapsulation of the module with the lowest modification to the original code, and the automation tool includes the completion of compiling, packaging and publishing the source code to the module.
Preferably, in step S2, the visualization integration application system includes a system library, an integration system, a module library, a system framework, and an infrastructure service library.
Preferably, the system library is used for managing an integrated system, performing publishing operation, and packaging integrated design source data into a resource which can be rapidly deployed on a DevOps platform through a system compiling and publishing process, the integrated system comprises a visual system design tool and a tool for configuring the integrated designed system, the module library stores material modules for the integrated system, all the modules are uniformly packaged by a packaging protocol which is irrelevant to the technical scheme of the modules, and are packaged in a full stack manner, and the packaging protocol comprises all information required by accessing the front end and the back end of the modules.
Preferably, the system framework is used for bearing a system exo-framework of the module, and comprises a page framework structure for bearing each interface, a user and authority system of the system, and ensures that the visual style of the skin system of the system is uniform, the infrastructure service library comprises a database, a big data system, a basic AI service and the like, the module encapsulation information comprises services which the module depends on, and the services can be finally deployed to the operation and maintenance platform along with the system in a micro-service mode
Preferably, in the step S4, the system compiles a description publishing data according to the design source, compiles the system into a series of configuration files that the DevOps platform can understand and deploy, and synchronizes the system deployment information on the DevOps platform back to the system integration design platform.
Preferably, in step S5, the DevOps platform stores the compiled complete system, and implements one-key deployment of the system, managing and monitoring the hardware resources and the operating status of the system.
Example 2: module and system library functions: the system is used for storing the full stack configuration information of each module and the full stack configuration information of the system, and integrating the front end and the back end of the module and integrating and depending on management of the module. There are now more sophisticated solutions, such as Helm in the K8S ecology; source code library function: source code for the storage module; container mirror library function: various images on which the module depends are stored.
Example 3: the integrated system includes:
1. defining vertical full-stack module encapsulation, visual system design, system framework configuration, fusion compiling of module horizontal layering and system automatic deployment;
2. decomposing the modules of the distributed architecture system, and uniformly packaging the front end and the rear end to obtain a full stack module;
3. modules are stored using container technology, orchestration technology, and related package management tools;
4. the visualization system is integrated, and the module interface is connected in a wired and butt joint mode to realize module communication and function association;
5. generating a full-stack module fusion framework, compiling the module through a container arrangement and rearrangement technology, and generating a resource configuration file which can be deployed in an operation and maintenance environment;
6. carrying, deploying and managing the generated system through the operation and maintenance automation platform;
the integrated system can fully utilize the existing functional modules through the visual integration of all module packages, quickly package new modules according to requirements, flexibly respond to the requirements of the deconstruction and the recombination of a complex system, integrate the system required by a client by using the existing functional modules with the lowest labor and time cost and the lowest development amount, and realize the effective precipitation of the functional modules which are realized or used in the past and system cases.
The points to be finally explained are: first, in the description of the present application, it should be noted that, unless otherwise specified and limited, the terms "mounted," "connected," and "connected" should be understood broadly, and may be a mechanical connection or an electrical connection, or a communication between two elements, and may be a direct connection, and "upper," "lower," "left," and "right" are only used to indicate a relative positional relationship, and when the absolute position of the object to be described is changed, the relative positional relationship may be changed;
secondly, the method comprises the following steps: in the drawings of the disclosed embodiments of the invention, only the structures related to the disclosed embodiments are referred to, other structures can refer to common designs, and the same embodiment and different embodiments of the invention can be combined with each other without conflict;
and finally: the above description is only for the purpose of illustrating the preferred embodiments of the present invention and is not to be construed as limiting the invention, and any modifications, equivalents, improvements and the like that are within the spirit and principle of the present invention are intended to be included in the scope of the present invention.
Claims (8)
1. A full stack modularization system integration method is characterized in that: the method comprises the following steps:
s1: defining a universal packaging mode for minimally modifying the source code of an original module, uniformly packaging the front end and the rear end of a functional module, enabling the functional modules to be spliced with each other in a uniform interface mode, storing the packaged modules in a package management tool in the form of a mirror image and a resource description file by using a container arrangement technology, and issuing the packaged modules to a visual system design tool;
s2: in a system design tool, splicing the associated function modules in a visual mode, and finally integrating a plurality of modules into a new application system;
s3: setting the whole frame content of the new system, such as a system LOGO, a menu, a user mode and the like, and forming a complete and available system;
s4: compiling modules in a system design tool and system frame source data to generate a configuration file required for deployment in an operation and maintenance system, publishing the configuration file to a DevOps operation and maintenance automation platform, realizing re-horizontal layering of a front end and a back end in the compiling process by utilizing a resource deployment technology and a dependence management tool in a container technology system, and performing re-arranging treatment on repeated service dependence;
s5: and automatically deploying on a DevOps platform to finally obtain an operable system.
2. The full stack modular system integration method of claim 1, wherein: in step S1, the module development environment defines a set of process specifications and automation tools.
3. The full stack modular system integration method of claim 2, wherein: the flow specification comprises an appointment development process, the main goal is to complete the encapsulation of the module under the condition of the lowest modification quantity of the original code, and the automation tool comprises the steps of compiling, packaging and releasing from the source code to the module.
4. The full stack modular system integration method of claim 1, wherein: in step S2, the visualization integration application system includes a system library, an integration system, a module library, a system framework, and an infrastructure service library.
5. The full stack modular system integration method of claim 4, wherein: the system library is used for managing an integrated system, issuing operation is carried out, integrated design source data are packaged into resources which can be rapidly deployed by a DevOps platform through the process of system compiling and issuing, the integrated system comprises a visual system design tool and a tool for configuring the integrated designed system, the module library stores material modules for the integrated system, all the modules are packaged in a unified mode by a packaging protocol which is irrelevant to the technical scheme of the modules, the modules are packaged in a full stack mode, and the packaging protocol comprises all information required by accessing the front end and the rear end of the modules.
6. The full stack modular system integration method of claim 4, wherein: the system framework is used for bearing a system outer framework of the module, comprises a page framework structure used for bearing each interface, a user and an authority system of the system and ensures that the visual style of a skin system of the system is uniform, the infrastructure service library comprises a database, a big data system, basic AI (artificial intelligence) services and the like, the module packaging information comprises services depending on the module, and the services can be finally deployed to an operation and maintenance platform along with the system in a micro-service mode.
7. The full stack modular system integration method of claim 1, wherein: in the step S4, the system compiles a description publishing data according to the design source, compiles the system into a series of configuration files that the DevOps platform can understand and deploy, and synchronizes the system deployment information on the DevOps platform back to the system integration design platform.
8. The full stack modular system integration method of claim 1, wherein: in the step S5, the DevOps platform stores the compiled complete system, and implements one-key deployment of the system, and manages and monitors the hardware resources and the operating state of the system.
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