CN117648095A - Method and system for managing and delivering server software package under micro-service architecture - Google Patents
Method and system for managing and delivering server software package under micro-service architecture Download PDFInfo
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Abstract
The invention discloses a method and a system for managing and delivering a server software package under a micro-service architecture, comprising the following steps: automatically pulling the software source code from the code warehouse through the continuous integration and delivery system, compiling and packaging to generate corresponding micro-service software packages, generating corresponding software information, and uploading the micro-service software packages and the software information to a hybrid software warehouse; receiving the software information through the mixed software warehouse, generating a software package coordinate, storing the micro-service software package in a storage library of a corresponding type, and storing the software information in a database by taking the software package coordinate as an ID; forming a system version by arranging different microservice software packages in a mixed software warehouse; in the target deployment environment, the automatic deployment system automatically completes deployment of each micro-service by entering a system version in a Web interface of the automatic deployment system. The invention achieves the purposes of reducing manual intervention, improving the software deployment efficiency and success rate and improving the productivity through an automatic means.
Description
Technical Field
The invention relates to the technical field of software management under a micro-service architecture, in particular to a method and a system for managing and delivering a server software package under the micro-service architecture.
Background
The current mainstream service end system architecture is a "micro-service architecture", i.e. the system is composed of a plurality of independent services, under this architecture, the number of services of some medium-to-large-scale systems may be as high as tens or hundreds, each service can be deployed independently, and each service has an independent software installation package.
At present, the management and delivery of software installation packages under a micro-service architecture has the following problems:
1. management of software installation packages
(1) The number of the software installation packages is large, and the management difficulty is high
From "one single application large installation package" to "tens or even hundreds of micro-service small installation packages".
(2) The software package version has complex dependency relationship and large deployment and upgrading difficulties
Different services can call each other, version dependency requirements exist, and system anomalies can be caused by version mismatch.
Different services are responsible by different teams, the dependency relationship is complex and changeable, the comprehensive control is difficult, and the deployment and the upgrading are easy to generate version mismatch.
2. Delivery of software installation packages
(1) The development engineer encapsulates the software into an RPM software package or a container mirror image and uploads the RPM software package or the container mirror image to a YUM warehouse or a mirror image warehouse;
(2) Version dependency relations and deployment requirements (such as an operating system, middleware and the like) of different microservice software packages are maintained through traditional modes such as Excel tables and the like;
(3) And the operation and maintenance engineer performs software deployment and configuration by sequentially passing through commands such as yum, dock and the like one by contrast with Excel.
The three ways have the following problems:
(1) The micro service software packages are independent, lack of dependence on associated information, need to confirm service deployment sequence manually, and are low in efficiency and easy to make mistakes;
(2) Each piece of micro service information, namely a service information table (comprising version numbers, dependency relations, deployment requirements and the like) is recorded in a document mode such as Excel, the manual input is easy to be misplaced, and the modification record is absent, so that automatic comparison and output of the front-back version differences are difficult to realize.
(3) The installation and deployment of different deployment environments (single machine or multiple machines, virtual machines or containerization) are realized, operation and maintenance personnel need to manually write a plurality of deployment scripts by contrasting with a service version information table, and then the deployment is performed one by one, so that the efficiency is low and the error is easy to occur.
Disclosure of Invention
In order to overcome the defects of the prior art, the invention provides a method and a system for managing and delivering a server software package under a micro-service architecture, which are used for solving the technical problems of difficult management, difficult deployment and upgrading, low efficiency and easy error in the conventional method for managing and delivering the software installation package under the micro-service architecture, thereby achieving the purposes of reducing manual intervention, improving the software deployment efficiency and success rate and improving the productivity through an automatic means.
In order to solve the problems, the technical scheme adopted by the invention is as follows:
a method for managing and delivering a server software package under a micro-service architecture comprises the following steps:
automatically pulling a software source code from a code warehouse through a continuous integration and delivery system, compiling and packaging to generate a corresponding micro-service software package, generating corresponding software information, and uploading the micro-service software package and the software information to a hybrid software warehouse;
receiving the software information through the mixed software warehouse, generating a software package coordinate, storing the micro-service software package in a storage library of a corresponding type, and storing the software information in a database by taking the software package coordinate as an ID;
forming a system version by arranging different microservice software packages in the mixed software warehouse;
in a target deployment environment, the system version is input through a Web interface of an automatic deployment system, and the automatic deployment system automatically completes each micro-service deployment.
As a preferred embodiment of the present invention, when source code is automatically pulled from a code library by a continuous integration and delivery system, it comprises:
after submitting the software source code to the code warehouse, the continuous integration and delivery system receives a change notification of the code warehouse and automatically triggers an integration and delivery pipeline task, wherein the integration and delivery pipeline task comprises:
pulling the latest software source code from the code bin library;
reading and analyzing the software information;
executing different compiling instructions according to compiling requirements to generate a binary executable program;
packaging the binary executable program and the software configuration together into a container mirror image;
uploading the container image and the software information to the hybrid software repository.
As a preferred embodiment of the present invention, when generating corresponding software information, it includes:
generating service names, software version numbers, software packets, applicable platforms, pre-dependencies, deployment serial numbers, binary software packet names, release time and modification descriptions of corresponding micro-service software packets.
As a preferred embodiment of the present invention, when storing the micro service software package and the software information, it includes:
analyzing the software information, and extracting the software packet, the service name, the software version number and the applicable platform from the software information to generate the software packet coordinates;
store the container image in Nexus Reposity OSS;
and storing the software information to a database by taking the coordinates of the software package as an ID, so as to inquire a Web interface or an open interface of the automatic deployment system.
As a preferred embodiment of the present invention, when forming a system version, it includes:
and a new system version is established, a plurality of micro-service software packages to be contained are selected for the new system version, the release state is marked, and the visible range is set.
As a preferred embodiment of the present invention, when each micro service deployment is automatically completed, the method includes:
installing the automatic deployment system in the target deployment environment, logging in the automatic deployment system management interface, and adding a server or a container arrangement platform cluster;
and searching visible system versions through a Web interface or an open interface of the automatic deployment system, selecting and confirming a target system version to be deployed, and executing an asynchronous deployment task by the automatic deployment system.
As a preferred embodiment of the present invention, when the automated deployment system performs an asynchronous deployment task, the method comprises:
and acquiring all associated service software versions according to the target system version, generating a container arranging platform deployment list, and remotely executing a deployment instruction and service state inspection to a target container arranging platform cluster through a container arranging platform interface.
A method for managing and delivering a server software package under a micro-service architecture comprises the following steps:
the code warehouse is used for storing software source codes submitted by developers;
the continuous integration and delivery system is used for automatically pulling the software source codes from the code bin library, compiling the software source codes into micro-service software packages, generating software information and uploading the software information to the mixed software warehouse;
the hybrid software warehouse is used for providing a visual Web interface to program different micro-service software packages to form a system version, and providing an open interface for an automatic deployment system to retrieve software information and download the micro-service software packages;
and the automatic deployment system is used for providing a visual Web interface to input the system version, automatically downloading the micro-service software package and completing the deployment of each micro-service.
As a preferred embodiment of the invention, the continuous integration and delivery system is used for generating service names, software version numbers, software packets, applicable platforms, pre-dependencies, deployment serial numbers, binary software packet names, release times and modification descriptions of the micro-service software packets when generating software information.
As a preferred embodiment of the present invention, the persistent integration and delivery system is configured to automatically trigger an integration and delivery pipeline task upon receipt of a notification of a change to the code repository after submission of software source code to the code repository, the integration and delivery pipeline task comprising:
pulling the latest software source code from the code bin library;
reading and analyzing the software information;
executing different compiling instructions according to compiling requirements to generate a binary executable program;
packaging the binary executable program and the software configuration together into a container mirror image;
uploading the container image and the software information to the hybrid software repository.
Compared with the prior art, the invention has the beneficial effects that:
(1) The invention improves the management mode of the software installation package, establishes the version dependency relationship among a plurality of micro-service software packages, the environment deployment requirement and other information, forms a system version, and ensures that the software packages are easy to manage, search and deploy;
(2) The invention improves the software delivery and deployment mode, changes the manual installation of N micro-service versions into the automatic acquisition of all related micro-services under 1 system version, realizes the orderly automatic installation and deployment, and reduces the communication cost and the error probability because the delivery version is changed from N to 1;
(3) The invention provides a complete software package management and delivery flow scheme, reduces manual intervention by an automatic means, reduces the capability requirement on operation and maintenance implementation personnel, improves the software deployment efficiency and success rate, and improves the productivity.
The invention is described in further detail below with reference to the drawings and the detailed description.
Drawings
FIG. 1 is a diagram showing steps of a method for managing and delivering a server-side package under a micro-service architecture according to the present invention;
FIG. 2 is a system overview of server-side package management and delivery under a micro-architecture in accordance with an embodiment of the present invention;
FIG. 3 is a flow chart of the compilation packaging process performed by the CI/CD system of an embodiment of the present invention;
FIG. 4 is a flow chart of software package and information storage by the hybrid software warehouse of an embodiment of the present invention;
FIG. 5 is a flow chart of system versioning by the hybrid software warehouse of an embodiment of the present invention;
FIG. 6 is a timing diagram of distributed automated deployment under a k8s cluster in accordance with an embodiment of the present invention.
Reference numerals illustrate: 1. a code warehouse; 2. a CI/CD system; 3. a hybrid software warehouse; 4. an automated deployment system.
Detailed Description
The method for managing and delivering the server software package under the micro-service architecture provided by the invention, as shown in fig. 1, comprises the following steps:
step S1: automatically pulling the software source code from the code warehouse 1 through the continuous integration and delivery system, compiling and packaging to generate corresponding micro-service software packages, generating corresponding software information, and uploading the micro-service software packages and the software information to the hybrid software warehouse 3;
step S2: receiving the software information through the hybrid software warehouse 3, generating a software package coordinate, storing the micro-service software package in a storage library of a corresponding type, and storing the software information in a database by taking the software package coordinate as an ID;
step S3: forming a system version by arranging different microservice software packages in a mixed software warehouse 3;
step S4: in the target deployment environment, the automated deployment system 4 automatically completes each micro-service deployment by entering a system version in a Web interface of the automated deployment system 4.
In the above step S1, when the source code is automatically pulled from the code repository 1 by the continuous integration and delivery system, it includes:
when the software source code is submitted to the code warehouse 1, the continuous integration and delivery system receives the change notification of the code warehouse 1, automatically triggers the integration and delivery pipeline tasks, and the integration and delivery pipeline tasks comprise:
pulling the latest software source code to the code warehouse 1;
reading and analyzing the software information;
executing different compiling instructions according to compiling requirements to generate a binary executable program;
packaging the binary executable program and the software configuration together into a container mirror image;
the container image and the software information are uploaded to the hybrid software repository 3.
In the step S1, when generating the corresponding software information, the method includes:
generating service names, software version numbers, software packets, applicable platforms, pre-dependencies, deployment serial numbers, binary software packet names, release time and modification descriptions of corresponding micro-service software packets.
In the step S2, when storing the microservice software package and the software information, the method includes:
analyzing the software information, and taking out the software packet, the service name, the software version number and the applicable platform from the software information to generate a software packet coordinate;
store the container image in Nexus Reposity OSS;
and storing the software information to a database by taking the coordinates of the software package as an ID, so as to inquire a Web interface or an open interface of the automatic deployment system 4.
In the step S3, when forming the system version, the method includes:
and (3) creating a system version, selecting a plurality of micro-service software packages to be contained for the created system version, marking the release state, and setting the visible range.
In the step S4, when each micro service deployment is automatically completed, the method includes:
installing an automatic deployment system 4 in a target deployment environment, logging in a management interface of the automatic deployment system 4, and adding a server or a container arrangement platform cluster;
the automation deployment system 4 performs asynchronous deployment tasks by retrieving the visible system version through the Web interface or open interface of the automation deployment system 4, selecting and validating the target system version to be deployed.
Further, when the automated deployment system 4 performs an asynchronous deployment task, it includes:
and according to the target system version, acquiring all associated service software versions, generating a container arranging platform deployment list, and remotely executing a deployment instruction and service state inspection to the target container arranging platform cluster through a container arranging platform interface.
The invention provides a method for managing and delivering a server software package under a micro-service architecture, which comprises the following steps: code warehouse 1, continuous integration and delivery system, hybrid software warehouse 3, and automated deployment system 4.
And the code warehouse 1 is used for storing software source codes submitted by developers.
The continuous integration and delivery system is used for automatically pulling the software source codes from the code warehouse 1, compiling the software source codes into micro-service software packages, generating software information and uploading the software information to the hybrid software warehouse 3.
The hybrid software repository 3 is used for providing a visual Web interface to program different micro-service software packages to form a system version, and providing an open interface to the automated deployment system 4 to retrieve software information and download micro-service software packages.
And the automatic deployment system 4 is used for providing a visual Web interface to enter a system version, automatically downloading the micro-service software package and completing the deployment of each micro-service.
Further, when generating the software information, the continuous integration and delivery system is used for generating a service name, a software version number, a software packet, an applicable platform, a pre-dependency, a deployment sequence number, a binary software packet name, a release time and a modification description of the micro-service software packet.
Further, after submitting the software source code to the code repository 1, the continuous integration and delivery system is configured to receive notification of the change of the code repository 1, and automatically trigger an integration and delivery pipeline task, where the integration and delivery pipeline task includes:
pulling the latest software source code to the code warehouse 1;
reading and analyzing the software information;
executing different compiling instructions according to compiling requirements to generate a binary executable program;
packaging the binary executable program and the software configuration together into a container mirror image;
the container image and the software information are uploaded to the hybrid software repository 3.
The following examples are further illustrative of the present invention, but the scope of the present invention is not limited thereto.
The embodiment provides a method and a system for managing and delivering a server software package, which can improve the deployment efficiency and success rate of the software package.
The system provided by the embodiment comprises: a code warehouse 1, a CI/CD system 2, a hybrid software warehouse 3, and an automated deployment system 4, wherein:
1. the code repository 1 is used to store software source code submitted by a developer.
2. The CI/CD system 2 refers to a continuous integration and delivery system, and is responsible for compiling software source codes into binary software packages (can be container images, RPM software packages and the like) and generating software information which is uploaded to the hybrid software warehouse 3 together;
the software information is related information describing the micro-service software package, and comprises a service name, a software version number, a software package, an applicable platform, a pre-dependency, a deployment serial number, a binary software package name (RPM software name, container mirror name and the like), release time, a modification description and the like.
3. The hybrid software repository 3 refers to a system responsible for managing micro-service packages and information, and provides a visual Web interface for administrators to use, and an open interface for the automated deployment system 4 to retrieve software information and download micro-service packages.
4. The automated deployment system 4 is a system responsible for executing deployment of the micro-service software package, and provides a visual Web interface for operation and maintenance personnel to automatically download and deploy the micro-service software package.
The method and the system of the embodiment mainly comprise the following steps:
1. the CI/CD system 2 automatically pulls the software source code from the code warehouse 1, compiles and packages the software source code to generate corresponding micro-service software packages (RPM software packages, container images and the like), finally generates software information and uploads the software information to the hybrid software warehouse 3 together.
2. Upon receiving the software information, the hybrid software repository 3 generates unique coordinates (GSVP), stores the microservice software package in a corresponding type of repository (e.g., yum repository, mirror repository), and stores the software information in the database with the GSVP as an ID.
Specifically, GSVP is taken from software information, namely, a software package (Group), a Service name (Service), a software Version number (Version), and a Platform for application (Platform), respectively.
3. The testers program different microservice software packages in the mixed software warehouse 3 to form a system version.
4. In the target deployment environment, operation and maintenance personnel enter a system version through a Web interface of the automatic deployment system 4, and finally, the automatic deployment system 4 automatically completes each micro-service deployment, including downloading, installing/upgrading, starting, checking the state and the like of the micro-service software package.
The present embodiment accomplishes the specified objective by a collaboration system consisting of a code warehouse 1, a CI/CD system 2, a hybrid software warehouse 3, and an automated deployment system 4, as shown in fig. 2.
The system and implementation method of the present embodiment are described in detail below with reference to the accompanying drawings.
Examples: a software delivery system based on Kubernetes containerization.
The relevant components required in this example include:
the CI/CD system 2 is an open source continuous integration system, jenkins, hereafter referred to by the name jenkins;
the hybrid software warehouse 3 performs function expansion by relying on an open source software warehouse Nexus Reposity OSS, and can be used as a container mirror warehouse, and is hereinafter referred to as a repositey code;
automated deployment system 4 (OPS) provides a Web configuration interface for self-lapping deployment systems and is responsible for kulenes collaboration, hereafter referred to using OPS notation.
Other terminology used in this example is:
nexus Reposity OSS: is an open source software warehouse, which supports various software warehouse specifications, such as yum warehouse, mirror image warehouse, etc.;
kubernetes: also known as k8s, is an open source container orchestration platform that can be used to run distributed applications and services on a large scale.
Specific example working procedure:
1. the development engineer submits software source codes to the GitLab code warehouse 1;
2. jenkins continues the integration process flow as shown in FIG. 3.
jenkins perceives the change of the GitLab code warehouse 1, automatically triggers the CI/CD pipeline task, and executes the following flow:
1) The latest software source code is pulled to the GitLab code warehouse 1;
2) Reading and analyzing the software information;
3) According to the compiling requirement, executing different compiling instructions, such as make, maven, gradle, dock build and the like, and generating a binary executable program;
4) Packaging the binary executable program and the software configuration together into a container mirror image;
5) The container image, software information is uploaded to the hybrid software repository 3.
3. The process flow of the replay processing package information is shown in fig. 4.
1) Analyzing the software information to generate a software package coordinate GSVP, namely a group-service-version-platform;
2) Store the container image in Nexus Reposity OSS;
3) And storing the software information to a database by taking the GSVP as an ID for inquiring a Web interface or an open interface.
4. The playback orchestration system version is shown in fig. 5.
1) Newly creating a system version, and selecting a plurality of micro service software versions to be contained;
2) The status of the publication is marked, and the visible range is set.
5. An automated deployment process of OPS is shown in fig. 6.
1) Using an initialization script by an operation and maintenance personnel, and automatically installing an OPS in a target deployment environment;
2) The operation and maintenance personnel log in an OPS management interface, and a server or a k8s cluster is added;
3) The operation and maintenance personnel search the visible system version, and select and confirm the target system version information to be deployed;
4) OPS performs asynchronous deployment tasks.
And acquiring all related service software versions according to the system version specified by the operation and maintenance personnel, generating a k8s deployment list of deployment, service and the like, and remotely executing deployment instructions and service state inspection to a target k8s cluster through a k8s api, as shown in fig. 2.
The above embodiments are only preferred embodiments of the present invention, and the scope of the present invention is not limited thereto, but any insubstantial changes and substitutions made by those skilled in the art on the basis of the present invention are intended to be within the scope of the present invention as claimed.
Claims (10)
1. A method for managing and delivering a server software package under a micro-service architecture is characterized by comprising the following steps:
automatically pulling a software source code from a code warehouse through a continuous integration and delivery system, compiling and packaging to generate a corresponding micro-service software package, generating corresponding software information, and uploading the micro-service software package and the software information to a hybrid software warehouse;
receiving the software information through the mixed software warehouse, generating a software package coordinate, storing the micro-service software package in a storage library of a corresponding type, and storing the software information in a database by taking the software package coordinate as an ID;
forming a system version by arranging different microservice software packages in the mixed software warehouse;
in a target deployment environment, the system version is input through a Web interface of an automatic deployment system, and the automatic deployment system automatically completes each micro-service deployment.
2. The method for managing and delivering a service-side software package under a micro-service architecture according to claim 1, wherein when source code is automatically pulled from a code library through a continuous integration and delivery system, the method comprises:
after submitting the software source code to the code warehouse, the continuous integration and delivery system receives a change notification of the code warehouse and automatically triggers an integration and delivery pipeline task, wherein the integration and delivery pipeline task comprises:
pulling the latest software source code from the code bin library;
reading and analyzing the software information;
executing different compiling instructions according to compiling requirements to generate a binary executable program;
packaging the binary executable program and the software configuration together into a container mirror image;
uploading the container image and the software information to the hybrid software repository.
3. The method for managing and delivering a service-side software package under a micro-service architecture according to claim 1 or 2, wherein when generating corresponding software information, the method comprises:
generating service names, software version numbers, software packets, applicable platforms, pre-dependencies, deployment serial numbers, binary software packet names, release time and modification descriptions of corresponding micro-service software packets.
4. The method for managing and delivering server software packages under a micro-service architecture according to claim 3, wherein when storing the micro-service software packages and the software information, the method comprises:
analyzing the software information, and extracting the software packet, the service name, the software version number and the applicable platform from the software information to generate the software packet coordinates;
store the container image in Nexus Reposity OSS;
and storing the software information to a database by taking the coordinates of the software package as an ID, so as to inquire a Web interface or an open interface of the automatic deployment system.
5. The method for managing and delivering a service-side package under a micro-service architecture according to claim 1, wherein when forming a system version, the method comprises:
and a new system version is established, a plurality of micro-service software packages to be contained are selected for the new system version, the release state is marked, and the visible range is set.
6. The method for managing and delivering a service-side software package under a micro-service architecture according to claim 1, wherein when each micro-service deployment is automatically completed, the method comprises:
installing the automatic deployment system in the target deployment environment, logging in the automatic deployment system management interface, and adding a server or a container arrangement platform cluster;
and searching visible system versions through a Web interface or an open interface of the automatic deployment system, selecting and confirming a target system version to be deployed, and executing an asynchronous deployment task by the automatic deployment system.
7. The method for managing and delivering a server-side package under a micro-service architecture according to claim 6, wherein when the automated deployment system performs an asynchronous deployment task, the method comprises:
and acquiring all associated service software versions according to the target system version, generating a container arranging platform deployment list, and remotely executing a deployment instruction and service state inspection to a target container arranging platform cluster through a container arranging platform interface.
8. A method for managing and delivering a server software package under a micro-service architecture is characterized by comprising the following steps:
the code warehouse is used for storing software source codes submitted by developers;
the continuous integration and delivery system is used for automatically pulling the software source codes from the code bin library, compiling the software source codes into micro-service software packages, generating software information and uploading the software information to the mixed software warehouse;
the hybrid software warehouse is used for providing a visual Web interface to program different micro-service software packages to form a system version, and providing an open interface for an automatic deployment system to retrieve software information and download the micro-service software packages;
and the automatic deployment system is used for providing a visual Web interface to input the system version, automatically downloading the micro-service software package and completing the deployment of each micro-service.
9. The method for managing and delivering a service-side software package under a micro-service architecture according to claim 8, wherein the persistent integration and delivery system is configured to generate a service name, a software version number, a software packet, an applicable platform, a pre-dependency, a deployment sequence number, a binary software package name, a release time, and a modification description of the micro-service software package when generating the software information.
10. The method for managing and delivering software packages at a server under a micro-architecture of claim 8, wherein the persistent integration and delivery system is configured to automatically trigger an integration and delivery pipeline task after submitting software source code to the code repository, the integration and delivery pipeline task comprising:
pulling the latest software source code from the code bin library;
reading and analyzing the software information;
executing different compiling instructions according to compiling requirements to generate a binary executable program;
packaging the binary executable program and the software configuration together into a container mirror image;
uploading the container image and the software information to the hybrid software repository.
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