CN111897538A - Container platform deployment method and system based on CPU and operating system - Google Patents
Container platform deployment method and system based on CPU and operating system Download PDFInfo
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- CN111897538A CN111897538A CN202010668121.9A CN202010668121A CN111897538A CN 111897538 A CN111897538 A CN 111897538A CN 202010668121 A CN202010668121 A CN 202010668121A CN 111897538 A CN111897538 A CN 111897538A
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- G06F8/60—Software deployment
- G06F8/61—Installation
- G06F8/63—Image based installation; Cloning; Build to order
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- G06F8/71—Version control; Configuration management
Abstract
The invention relates to the technical field of platform deployment, and provides a container platform deployment method and a container platform deployment system based on a CPU (central processing unit) and an operating system, wherein the method comprises the following steps: after the local software library is configured, when a container platform is deployed for the first time based on a CPU and an operating system, a plurality of local platform operating systems based on local are controlled to depend on library files and parameter configuration files of each component in each stage to deploy and construct the container platform; and controlling to perform container platform deployment and installation on the domestic CPU and the operating system with the same configuration based on local support, so that local construction steps are required only for the first deployment and installation, and subsequent deployment and installation components are directly provided by a local mirror library, thereby simplifying steps for batch installation and improving efficiency and success rate. Is beneficial to the wide application of the domestic CPU and the operating system container platform.
Description
Technical Field
The invention belongs to the technical field of platform deployment, and particularly relates to a container platform deployment method and system based on a CPU and an operating system.
Background
With the development of informatization of domestic enterprises and government electronic government affairs, large and medium-sized enterprises and government organizations increasingly rely on information systems to develop business operations, and the information business systems are changed from single architectures to containerization so as to meet the requirements of business systems on elastic load and unified management. Meanwhile, with the continuous advance of the domestic wave, the brand new technical requirement that the existing containerization service system platform is transferred to the domestic CPU and the operating system to continue to operate gradually emerges.
At present, most of the mainstream containerization platforms are open-source docker and kubernates container platforms, and when the containerization platforms are deployed in a domestic CPU and an operating system, a general x86 platform deployment scheme is mainly referred to. Because the instruction set architecture of the current mainstream domestic CPU is generally different from that of the current mainstream CPU, for example, the domestic loongson CPU adopts a mips instruction set, and the domestic soar CPU adopts an arm instruction set, this results in that the starting kernel and the bottom dependent library are also different for the bottom operating system of the container platform, and the container platform running on the operating system needs to be adjusted for the parameter adjustment of the operating system and the dependent library file during the installation, deployment and operation, thereby causing compatibility problems during the installation and deployment processes, and easily causing performance degradation and other problems during the platform operation.
Disclosure of Invention
Aiming at the defects in the prior art, the invention provides a container platform deployment method based on a CPU and an operating system, aiming at solving the problems that the compatibility problem occurs in the installation and deployment process of a domestic CPU and the operating system, the performance is easy to be reduced when a platform runs, and the like in the prior art.
The technical scheme provided by the invention is as follows: a CPU and operating system based container platform deployment method, the method comprising the steps of:
after the local software library is configured, when a container platform is deployed for the first time based on a CPU and an operating system, a plurality of local platform operating systems based on local are controlled to depend on library files and parameter configuration files of each component in each stage to deploy and construct the container platform;
control is again based on the locally supported container platform deployment installation of the same configured domestic CPU and operating system.
As an improvement, the method further comprises the steps of:
deploying three local software libraries in a local deployment environment, wherein the three local software libraries comprise a platform source code and configuration dependent library, a parameter configuration library and a local mirror image library;
the platform source code and configuration dependency library is used for storing the container platform source code and building a plurality of homemade platform operating system dependency library files required by the container platform;
the parameter configuration library is used for storing parameter configuration files of each component of the externally input container platform in each stage of building compiling, initializing and deploying operation;
the local mirror library is used for storing and exporting the environment mirror image generated in the building process and the container platform mirror image after compiling is completed.
As an improved scheme, when the container platform is deployed based on the CPU and the operating system for the first time after the local software library configuration is completed, the step of controlling the plurality of local-based platform operating systems to deploy and construct the container platform by relying on the library file and the parameter configuration file of each component at each stage specifically includes the following steps:
determining deployment parameters according to project requirements, and importing configuration parameters into the parameter configuration library in a file form;
deriving an environment container source code from the platform source code and the configuration dependency library, deriving configuration parameters from the parameter configuration library, and constructing a customized version environment container locally compiled for a subsequent container platform in a domestic CPU and an operating system;
deriving a dependency library source code from a platform source code and a configuration dependency library, deriving a configuration parameter from a parameter configuration library, and compiling the domestic platform customized version dependency library in the constructed customized version environment container;
exporting container platform source codes from the platform source codes and the configuration dependency library, exporting configuration parameters from the parameter configuration library, compiling and constructing container platform components in the constructed customized version environment container, constructing container platform component images compatible with foreign platforms, and importing the container platform component images into the local image library;
and exporting the container platform component mirror image from the local mirror image library, exporting configuration parameters from the parameter configuration library, and deploying and installing the container platform mirror image in the designated domestic CPU and operating system environment.
As an improved solution, the step of controlling the container platform deployment and installation of the same configured domestic CPU and operating system based on the local support again specifically includes the following steps:
determining deployment parameters according to project requirements, and importing configuration parameters into a parameter configuration library in a file form;
and exporting the container platform component mirror image from the local mirror image library, exporting the configuration from the parameter configuration library, and deploying and installing the container platform mirror image again in the environment of the specified domestic CPU and the operating system.
Another object of the present invention is to provide a container platform deployment system based on a CPU and an operating system, the system comprising:
the first deployment and installation module is used for controlling a plurality of local platform-based operating systems to rely on library files and parameter configuration files of each component at each stage to deploy and construct a container platform when the container platform is deployed based on a CPU and an operating system for the first time after the local software library is configured;
and the subsequent deployment and installation module is used for controlling the deployment and installation of the container platform on the basis of the locally supported domestic CPU and the operating system with the same configuration.
As an improvement, the system further comprises:
the system comprises a local software library deployment module, a parameter configuration module and a local mirror image library, wherein the local software library deployment module is used for deploying three local software libraries in a local deployment environment, and the three local software libraries comprise a platform source code and configuration dependency library, a parameter configuration library and a local mirror image library;
the platform source code and configuration dependency library is used for storing the container platform source code and building a plurality of homemade platform operating system dependency library files required by the container platform;
the parameter configuration library is used for storing parameter configuration files of each component of the externally input container platform in each stage of building compiling, initializing and deploying operation;
the local mirror library is used for storing and exporting the environment mirror image generated in the building process and the container platform mirror image after compiling is completed.
As an improved scheme, the first deployment and installation module specifically includes:
the first configuration parameter importing module is used for determining deployment parameters according to project requirements and importing the configuration parameters into the parameter configuration library in a file form;
the customized version environment container construction module is used for deriving an environment container source code from the platform source code and the configuration dependency library, deriving configuration parameters from the parameter configuration library and constructing a customized version environment container locally compiled for a subsequent container platform in a domestic CPU and an operating system;
the platform dependent compiling module is used for deriving the dependent library source code from the platform source code and the configuration dependent library, deriving the configuration parameter from the parameter configuration library and compiling the domestic platform customized version dependent library in the constructed customized version environment container;
the container platform component mirror image construction module is used for deriving a container platform source code from the platform source code and the configuration dependency library, deriving configuration parameters from the parameter configuration library, compiling and constructing a container platform component in the constructed customized version environment container, and constructing a container platform component mirror image compatible with a domestic product platform;
the container platform component mirror image import module is used for importing the container platform component mirror image into the local mirror image library;
and the first deployment and installation module is used for exporting the container platform component mirror image from the local mirror image library, exporting configuration parameters from the parameter configuration library and deploying and installing the container platform mirror image in the designated domestic CPU and operating system environment.
As an improved scheme, the subsequent deployment and installation module specifically includes:
the second configuration parameter import module is used for determining the deployment parameters according to the project requirements and importing the configuration parameters into the parameter configuration library in a file form;
and the second deployment and installation module is used for exporting the container platform component mirror image from the local mirror image library, exporting configuration from the parameter configuration library, and carrying out deployment and installation of the container platform mirror image again in the designated domestic CPU and operating system environment.
In the embodiment of the invention, after the local software library is configured, when the container platform is deployed for the first time based on a CPU and an operating system, the container platform is deployed and constructed by controlling a plurality of local platform operating systems based on local dependence library files and parameter configuration files of each component at each stage; and controlling to perform container platform deployment and installation on the domestic CPU and the operating system with the same configuration based on local support, so that local construction steps are required only for the first deployment and installation, and subsequent deployment and installation components are directly provided by a local mirror library, thereby simplifying steps for batch installation and improving efficiency and success rate. Is beneficial to the wide application of the domestic CPU and the operating system container platform.
Drawings
In order to more clearly illustrate the detailed description of the invention or the technical solutions in the prior art, the drawings that are needed in the detailed description of the invention or the prior art will be briefly described below. Throughout the drawings, like elements or portions are generally identified by like reference numerals. In the drawings, elements or portions are not necessarily drawn to scale.
FIG. 1 is a flow chart of an implementation of a CPU and operating system based container platform deployment method provided by the present invention;
FIG. 2 is a flow chart of the implementation of the present invention for controlling the deployment and construction of a container platform based on the local multi-homemade platform operating system dependent library files and the parameter configuration files of each component at each stage when the container platform is deployed based on the CPU and the operating system for the first time after the local software library configuration is completed;
FIG. 3 is a flow chart of an implementation of the control provided by the present invention to perform a container platform deployment installation, again based on locally supported native CPUs and operating systems of the same configuration;
FIG. 4 is a block diagram of a CPU and operating system based container platform deployment system provided by the present invention;
FIG. 5 is a block diagram of a first deployment installation module provided by the present invention;
FIG. 6 is a block diagram of a subsequent deployment installation module provided by the present invention.
Detailed Description
Embodiments of the present invention will be described in detail below with reference to the accompanying drawings. The following examples are merely for illustrating the technical solutions of the present invention more clearly, and therefore are only examples, and the protection scope of the present invention is not limited thereby.
Fig. 1 is a flowchart of an implementation of a container platform deployment method based on a CPU and an operating system, which specifically includes the following steps:
in step S101, after the local software library configuration is completed, when a container platform is deployed for the first time based on the CPU and the operating system, the container platform is deployed and constructed by controlling a plurality of local platform operating systems based on the local relying library files and parameter configuration files of each component at each stage;
in step S102, control again performs a container platform deployment installation based on the native support for the same configuration of domestic CPUs and operating systems.
In the embodiment of the present invention, before executing the above step S101, the following steps need to be executed:
deploying three local software libraries in a local deployment environment, wherein the three local software libraries comprise a platform source code and configuration dependent library, a parameter configuration library and a local mirror image library;
the platform source code and configuration dependency library is used for storing the container platform source code, constructing a plurality of homemade platform operating system dependency library files required by the container platform and supporting the import and export of the source code and the dependency;
the parameter configuration library is used for storing parameter configuration files of each component of an externally input container platform in each stage of compiling, initializing and deploying operation, and supporting import and export of the parameter configuration files;
the local mirror image library is used for storing and exporting the environment mirror image generated in the construction process and the compiled container platform mirror image, and supports the import and export of the mirror image.
In the embodiment of the present invention, as shown in fig. 2, when the container platform is deployed based on the CPU and the operating system for the first time after the local software library configuration is completed, the step of controlling the multiple local platform operating systems based on the local dependence library files and the parameter configuration files of the components at each stage to deploy and construct the container platform specifically includes the following steps:
in step S201, determining deployment parameters according to project requirements, and importing configuration parameters into the parameter configuration library in a file form;
in step S202, an environment container source code is derived from the platform source code and the configuration dependency library, a configuration parameter is derived from the parameter configuration library, and a customized version environment container locally compiled for a subsequent container platform is constructed in a domestic CPU and an operating system;
in step S203, deriving a dependency library source code from the platform source code and the configuration dependency library, deriving a configuration parameter from the parameter configuration library, and compiling the home-made platform customized version dependency library in the customized version environment container;
in step S204, deriving a container platform source code from the platform source code and the configuration dependency library, deriving a configuration parameter from the parameter configuration library, compiling and constructing a container platform component in the constructed customized version environment container, constructing a container platform component mirror image compatible with the foreign product platform, and importing the container platform component mirror image into the local mirror image library;
in step S205, the container platform component image is exported from the local image library, the configuration parameters are exported from the parameter configuration library, and the container platform image is deployed and installed in the designated domestic CPU and operating system environment.
As shown in fig. 3, the step of controlling the container platform deployment and installation of the domestic CPU and the operating system of the same configuration based on the local support again specifically includes the following steps:
in step S301, determining a deployment parameter according to a project requirement, and importing a configuration parameter into a parameter configuration library in a file form;
in step S302, the container platform component image is exported from the local image library, the configuration is exported from the parameter configuration library, and the deployment and installation of the container platform image are performed again in the designated domestic CPU and operating system environment.
In the embodiment of the invention, the container platform deployment method based on the CPU and the operating system adopts a local library mode to avoid repeated compilation and adopts a staged method to improve the deployment efficiency.
Fig. 4 is a block diagram of a container platform deployment system based on a CPU and an operating system according to the present invention, and for convenience of description, only the parts related to the embodiment of the present invention are shown in the diagram.
The container platform deployment system based on the CPU and the operating system comprises:
the first deployment and installation module 11 is used for controlling a plurality of local platform-based operating systems to rely on library files and parameter configuration files of each component at each stage to deploy and construct a container platform when the container platform is deployed based on a CPU and an operating system for the first time after the local software library is configured;
and the subsequent deployment and installation module 12 is used for controlling the container platform deployment and installation of the domestic CPU and the operating system with the same configuration based on the local support.
In this embodiment, the system further comprises:
the local software library deployment module 13 is configured to deploy three local software libraries in a local deployment environment, where the three local software libraries are a platform source code and configuration dependency library, a parameter configuration library, and a local mirror library;
the platform source code and configuration dependency library is used for storing the container platform source code and building a plurality of homemade platform operating system dependency library files required by the container platform;
the parameter configuration library is used for storing parameter configuration files of each component of the externally input container platform in each stage of building compiling, initializing and deploying operation;
the local mirror library is used for storing and exporting the environment mirror image generated in the building process and the container platform mirror image after compiling is completed.
In the embodiment of the present invention, as shown in fig. 5, the first deploying and installing module 11 specifically includes:
a first configuration parameter importing module 14, configured to determine deployment parameters according to project requirements, and import configuration parameters into the parameter configuration library in a file form;
a customized version environment container construction module 15, configured to derive an environment container source code from the platform source code and the configuration dependency library, derive configuration parameters from the parameter configuration library, and construct a customized version environment container locally compiled for a subsequent container platform in a domestic CPU and an operating system;
the platform dependent compiling module 16 is used for deriving the dependency library source code from the platform source code and the configuration dependency library, deriving the configuration parameter from the parameter configuration library, and compiling the domestic platform customized version dependency library in the constructed customized version environment container;
the container platform component mirror image construction module 17 is used for deriving a container platform source code from the platform source code and the configuration dependency library, deriving configuration parameters from the parameter configuration library, compiling and constructing a container platform component in the constructed customized version environment container, and constructing a container platform component mirror image compatible with a domestic product platform;
a container platform component mirror import module 18, configured to import the container platform component mirror into the local mirror library;
and the first deployment and installation module 19 is configured to export the container platform component image from the local image library, export configuration parameters from the parameter configuration library, and perform deployment and installation of the container platform image in a specified domestic CPU and operating system environment.
As shown in fig. 6, the subsequent deployment and installation module 12 specifically includes:
the second configuration parameter importing module 20 is configured to determine a deployment parameter according to the project requirement, and import the configuration parameter into the parameter configuration library in a file form;
and the second deployment and installation module 21 is configured to export the container platform component image from the local image library, export the configuration from the parameter configuration library, and perform deployment and installation of the container platform image again in a specified domestic CPU and operating system environment.
In the embodiment of the invention, after the local software library is configured, when the container platform is deployed for the first time based on a CPU and an operating system, the container platform is deployed and constructed by controlling a plurality of local platform operating systems based on local dependence library files and parameter configuration files of each component at each stage; and controlling to perform container platform deployment and installation on the domestic CPU and the operating system with the same configuration based on local support, so that local construction steps are required only for the first deployment and installation, and subsequent deployment and installation components are directly provided by a local mirror library, thereby simplifying steps for batch installation and improving efficiency and success rate. Is beneficial to the wide application of the domestic CPU and the operating system container platform.
The above embodiments are only used to illustrate the technical solution of the present invention, and not to limit the same; while the invention has been described in detail and with reference to the foregoing embodiments, it will be understood by those skilled in the art that: the technical solutions described in the foregoing embodiments may still be modified, or some or all of the technical features may be equivalently replaced; such modifications and substitutions do not depart from the spirit and scope of the present invention, and they should be construed as being included in the following claims and description.
Claims (8)
1. A CPU and operating system based container platform deployment method, comprising the steps of:
after the local software library is configured, when a container platform is deployed for the first time based on a CPU and an operating system, a plurality of local platform operating systems based on local are controlled to depend on library files and parameter configuration files of each component in each stage to deploy and construct the container platform;
control is again based on the locally supported container platform deployment installation of the same configured domestic CPU and operating system.
2. The CPU and operating system based container platform deployment method of claim 1, further comprising the steps of:
deploying three local software libraries in a local deployment environment, wherein the three local software libraries comprise a platform source code and configuration dependent library, a parameter configuration library and a local mirror image library;
the platform source code and configuration dependency library is used for storing the container platform source code and building a plurality of homemade platform operating system dependency library files required by the container platform;
the parameter configuration library is used for storing parameter configuration files of each component of the externally input container platform in each stage of building compiling, initializing and deploying operation;
the local mirror library is used for storing and exporting the environment mirror image generated in the building process and the container platform mirror image after compiling is completed.
3. The CPU and os based container platform deployment method according to claim 2, wherein the step of controlling deployment and construction of the container platform based on the local home platform os dependent library files and the parameter configuration files of each component at each stage when the container platform is first deployed based on the CPU and os after the local software library configuration is completed comprises the following steps:
determining deployment parameters according to project requirements, and importing configuration parameters into the parameter configuration library in a file form;
deriving an environment container source code from the platform source code and the configuration dependency library, deriving configuration parameters from the parameter configuration library, and constructing a customized version environment container locally compiled for a subsequent container platform in a domestic CPU and an operating system;
deriving a dependency library source code from a platform source code and a configuration dependency library, deriving a configuration parameter from a parameter configuration library, and compiling the domestic platform customized version dependency library in the constructed customized version environment container;
exporting container platform source codes from the platform source codes and the configuration dependency library, exporting configuration parameters from the parameter configuration library, compiling and constructing container platform components in the constructed customized version environment container, constructing container platform component images compatible with foreign platforms, and importing the container platform component images into the local image library;
and exporting the container platform component mirror image from the local mirror image library, exporting configuration parameters from the parameter configuration library, and deploying and installing the container platform mirror image in the designated domestic CPU and operating system environment.
4. The CPU and operating system based container platform deployment method according to claim 2, wherein said step of controlling container platform deployment installation of the same configured domestic CPU and operating system, again based on local support, comprises in particular the steps of:
determining deployment parameters according to project requirements, and importing configuration parameters into a parameter configuration library in a file form;
and exporting the container platform component mirror image from the local mirror image library, exporting the configuration from the parameter configuration library, and deploying and installing the container platform mirror image again in the environment of the specified domestic CPU and the operating system.
5. A CPU and operating system based container platform deployment system, the system comprising:
the first deployment and installation module is used for controlling a plurality of local platform-based operating systems to rely on library files and parameter configuration files of each component at each stage to deploy and construct a container platform when the container platform is deployed based on a CPU and an operating system for the first time after the local software library is configured;
and the subsequent deployment and installation module is used for controlling the deployment and installation of the container platform on the basis of the locally supported domestic CPU and the operating system with the same configuration.
6. The CPU and operating system based container platform deployment system of claim 5, further comprising:
the system comprises a local software library deployment module, a parameter configuration module and a local mirror image library, wherein the local software library deployment module is used for deploying three local software libraries in a local deployment environment, and the three local software libraries comprise a platform source code and configuration dependency library, a parameter configuration library and a local mirror image library;
the platform source code and configuration dependency library is used for storing the container platform source code and building a plurality of homemade platform operating system dependency library files required by the container platform;
the parameter configuration library is used for storing parameter configuration files of each component of the externally input container platform in each stage of building compiling, initializing and deploying operation;
the local mirror library is used for storing and exporting the environment mirror image generated in the building process and the container platform mirror image after compiling is completed.
7. The CPU and operating system based container platform deployment system of claim 6, wherein said first deployment installation module specifically comprises:
the first configuration parameter importing module is used for determining deployment parameters according to project requirements and importing the configuration parameters into the parameter configuration library in a file form;
the customized version environment container construction module is used for deriving an environment container source code from the platform source code and the configuration dependency library, deriving configuration parameters from the parameter configuration library and constructing a customized version environment container locally compiled for a subsequent container platform in a domestic CPU and an operating system;
the platform dependent compiling module is used for deriving the dependent library source code from the platform source code and the configuration dependent library, deriving the configuration parameter from the parameter configuration library and compiling the domestic platform customized version dependent library in the constructed customized version environment container;
the container platform component mirror image construction module is used for deriving a container platform source code from the platform source code and the configuration dependency library, deriving configuration parameters from the parameter configuration library, compiling and constructing a container platform component in the constructed customized version environment container, and constructing a container platform component mirror image compatible with a domestic product platform;
the container platform component mirror image import module is used for importing the container platform component mirror image into the local mirror image library;
and the first deployment and installation module is used for exporting the container platform component mirror image from the local mirror image library, exporting configuration parameters from the parameter configuration library and deploying and installing the container platform mirror image in the designated domestic CPU and operating system environment.
8. The CPU and operating system based container platform deployment system of claim 6, wherein said subsequent deployment installation module specifically comprises:
the second configuration parameter import module is used for determining the deployment parameters according to the project requirements and importing the configuration parameters into the parameter configuration library in a file form;
and the second deployment and installation module is used for exporting the container platform component mirror image from the local mirror image library, exporting configuration from the parameter configuration library, and carrying out deployment and installation of the container platform mirror image again in the designated domestic CPU and operating system environment.
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