CN114265595B - Cloud native application development and deployment system and method based on intelligent contracts - Google Patents
Cloud native application development and deployment system and method based on intelligent contracts Download PDFInfo
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Abstract
The invention discloses a cloud native application development and deployment system and method based on an intelligent contract, wherein the system comprises: the system comprises a user interaction component, an application development component, a configuration component, an inspection component and an application deployment component; the method comprises the following steps: outputting the contract code to a contract code compiling module, developing the contract code, initiating a code storage request, uploading the contract code to a container application cluster server, configuring intelligent contract description information to be deployed and block chain link point information to be deployed, receiving configuration information and returning a configuration success result, configuring an application development language and selecting a deployment mirror image, checking whether user block chain configuration and application configuration are correct, if so, sending an application deployment request to an application deployment component, if not, returning information to a user interaction component, receiving an application issuing request, and executing a contract application deployment workflow. The invention has the advantages that: shielding developers from cumbersome underlying technologies and saving unnecessary time costs.
Description
Technical Field
The invention relates to the technical field of block chain intelligent contracts, in particular to a cloud native application development and deployment system and method based on an intelligent contract.
Background
The intelligent contract is computer code for executing a group of instructions, is designed to execute a series of instructions, is deployed in a blockchain node in a digital form, guarantees that the execution process of the code is transparent and trackable and cannot be tampered based on cryptocurrency and blockchain technology, and a developer can construct a decentralized application program based on the intelligent contract.
The development under the cloud native environment is the mainstream direction of future application development, the continuously developed cloud native full-stack technology brings brand-new resource, tool and architecture view angles to developers, so that the developers can embrace more modern technical methods, tools and best practices, the developers effectively ensure the modernization level of a research and development and operation and maintenance team by means of the cloud native, and the research and development and operation and maintenance capacity is promoted to be improved from the tool level. The technical capability standardization greatly improves the working efficiency of developers, including the configuration efficiency of development and test environments, the software development efficiency of functional components and business systems, and the deployment efficiency of servitization and componentization applications.
In the process of carrying out application development based on intelligent contracts under cloud native environment, no systematic solution is formed, and the invention of Chinese patent is as follows: a code editing method and device based on cloud native program development and deployment are disclosed as follows: CN111857694A, filed as 2020-10-30, which explains the development and deployment of traditional application development under cloud-native, does not consider a block chain as an infrastructure, and combines the application development under an intelligent contract with a cloud-native environment; the invention relates to the following patents in China: a method for automatically generating a identity intelligent contract Java client program comprises the following steps: CN110633076B, application date: 2021-05-04, the method for generating Java client program by the identity intelligent contract is explained, the combination with DevOps under cloud native environment in the actual development process is not considered, the learning time of the developer in the development process is long, the template is not considered to be provided as reference to improve the efficiency of the developer, and the problem of unified management of the version of the intelligent contract class library is not considered in the team development process.
At present, in the process of developing an application program based on an intelligent contract, different programming languages call the class libraries and the class library versions of the intelligent contract, so that the unified maintenance is difficult, the code generation and the intelligent contract deployment of a block chain intelligent contract are mostly operated by a command line, the operation of a developer is complicated, the reference of an intelligent contract template is lacked in the actual development process, the difficulty of the developer is high, the time consumption of the processes of application development, deployment and the like is long, and the requirement of business development cannot be met.
Technical terms appearing in the present invention:
block chains: the block chain is a technology for decentralized data recording, and all nodes participating in a block chain network do not belong to a certain organization and do not trust each other; the block chain data is maintained by all nodes together, and each node participating in maintenance can obtain a copy of a complete data record; the block chain is essentially a distributed database, and has the characteristics of decentralization, no tampering, trace tracing, collective maintenance, high transparency and the like.
Intelligent contract: the code execution process is distributed in the blockchain nodes in a digital form, and is guaranteed to be transparent and traceable and cannot be tampered based on encryption currency and blockchain technology.
Decentralized application: refers to a contract or set of contracts that run on a distributed network that are executed according to conditions set on the blockchain.
Web3 j: a lightweight, highly modular, responsive, type-safe Java and Android class library provides rich APIs for processing Etherhouse intelligent contracts and integration with nodes on the Etherhouse network.
Cloud-native: the distributed cloud based on distributed deployment and unified management and control is a cloud technology product system established on the basis of technologies such as containers, micro-services, DevOps and the like.
DevOps (a combination of Development and Operations) is a culture, sport or practice that attaches importance to the communication and cooperation between "software developers (Dev)" and "IT operation and maintenance technicians (Ops)". Through the automatic flow of 'software delivery' and 'architecture change', the software can be constructed, tested and released more quickly, frequently and reliably.
Docker: an open source application container engine that allows developers to package their applications and dependencies into a portable image and then distribute it to any popular Linux or Windows machine, as well as to implement virtualization.
Kubernetes: the abbreviation K8s is an abbreviation formed by replacing 8 characters "ubernet" with 8 characters, and is an open source for managing containerized applications on multiple hosts of a cloud platform.
Helm: the Kubernetes software package, defined by Helm Charts, is used to install and upgrade containerized applications running in a complex configuration Kubernetes environment.
Jenkins, a continuous integration tool developed based on Java, is used for monitoring continuous and repeated work and aims to provide an open and easy-to-use software platform so that software projects can be continuously integrated.
Container application cluster server: the server cluster is characterized in that a plurality of servers are gathered together to run a Kubernetes containerized application, and when any server fails, the application running on the server is switched to other servers.
Disclosure of Invention
Aiming at the defects of the prior art, the invention provides a cloud native application development and deployment system and method based on an intelligent contract, which are used for simplifying the application development process based on the intelligent contract and improving the decentralized application development and deployment efficiency based on the block chain intelligent contract.
In order to realize the purpose, the technical scheme adopted by the invention is as follows:
a smart contract-based cloud-native application development and deployment system, comprising: the system comprises a user interaction component, an application development component, a configuration component, an inspection component and an application deployment component;
the user interaction component is used for providing a user operation interface, initiating a request to communicate with other components, receiving results returned by the other components and presenting the results to a user;
an application development component comprising: the contract code editing system comprises a contract template module, an application template module, a code uploading module and a contract code compiling module;
the contract template module is used for providing an intelligent contract code template and calling an intelligent contract class library, and managing an intelligent contract language version and a corresponding class library version;
the application template module is used for providing a template for constructing a software mirror image and a universal software package template for constructing a decentralized application;
the code uploading module is used for uploading the intelligent contract codes, the intelligent contract templates, the files for constructing the mirror images and the software package templates which are developed by the users to the container application cluster server;
the contract code compiling module is used for providing online development and storage of intelligent contract codes;
a configuration component comprising: a block chain configuration module and an application deployment configuration module;
the block chain configuration module is used for configuring an intelligent contract version to be deployed, an intelligent contract identity to be deployed and block chain link point information to be deployed;
the application deployment configuration module is used for configuring template information of the application to be deployed and constructing mirror image information of the application;
an inspection assembly comprising: a template checking module and a configuration checking module;
the template checking module is used for checking whether a contract template and an application template are selected or not, if not, the contract template and the application template are selected, if so, the contract template information is output to the contract code compiling module, and the application template information is output to the application configuration module;
the configuration checking module is used for checking whether the block chain configuration is configured or not, if not, outputting information to the block chain configuration module, and if so, outputting the information to the application deployment configuration module;
an application deployment component comprising: the contract issuing system comprises a contract deployment module and an application issuing module;
the contract deployment module is used for executing a contract deployment workflow and deploying the intelligent contract to the preconfigured block chain node;
and the application issuing module calls the contract codes to generate a workflow, applies the packaging workflow, applies the deployment workflow and deploys the application to the container application cluster server.
The invention also discloses a cloud native application development and deployment method based on the intelligent contract, which comprises the following steps:
s1: a user accesses the contract template component through the user interaction component to select an intelligent contract code template;
s2: the application development component receives the contract template and outputs the contract template to the contract code compiling module;
s3: a user accesses the contract code compiling module through the user interaction component to develop the contract code;
s4: after contract code development is finished, a user initiates a code storage request through a user interaction component;
s5: the code uploading module receives the code storage request, uploads the contract code to the container application cluster server and returns an uploading success result;
s6: the user interaction component receives the code uploading success result and configures intelligent contract description information to be deployed and block link point information to be deployed;
s7: the block chain allocation module is connected with the allocation information and returns the successful allocation result;
s8: the user interaction component receives the successful configuration result, accesses the application deployment configuration module, configures the application development language and selects a deployment mirror image;
s9: after configuration is completed, a user initiates an application deployment configuration check request through an application deployment component;
s10: the configuration checking component receives the application deployment configuration checking request, checks whether the user block chain configuration and the application configuration are correct, if so, sends the application deployment request to the application deployment component, and if not, returns information to the user interaction component;
s11: and the application deployment component receives the user application issuing request and executes the contract application deployment workflow.
Further, the application deployment workflow comprises: contract deployment workflow, calling contract code generation workflow, application packaging workflow and application deployment workflow, and deploying the application to the cluster server.
Further, the user interaction component provides a user operation interface to communicate with other components through a RESTful interface calling mode.
Further, the contract deployment workflow will deploy the intelligent contract to the preset block chain node through the Web3j class library.
Further, the application packaging workflow generates a calling contract code according to a preselected development language and a corresponding calling contract class library version and packages the calling contract code into a Docker image file.
Further, the application deployment workflow deploys an application image to a kubernets cluster work node of the container application cluster server through Jenkins.
Further, the application deployment workflow component receives and communicates contract deployment workflows, invokes contract code generation workflows, applies packaging workflows, states and results of application deployment workflows to the user interaction component.
Compared with the prior art, the invention has the advantages that: the block chain and container application cluster server is regarded as infrastructure, the cloud native thought and the block chain intelligent contract application development process are combined, the development and deployment process of intelligent contract application is simplified through the DevOps thought, cloud native components and tools are fully utilized, an intelligent contract template and a general function application template are provided, the intelligent contract language version and the version of a corresponding class library are uniformly managed, a complex underlying technology is shielded for developers, unnecessary time cost is saved, the developers can focus on business value creation and innovation more attentively, and a cloud native application program based on the intelligent contract is constructed.
Drawings
For the purpose of clearly explaining the embodiments and technical solutions of the present invention, the following brief descriptions of the embodiments or technical solutions and drawings will make it obvious for those skilled in the art that other drawings can be obtained based on these drawings without inventive efforts.
FIG. 1 is a diagram of the system components for cloud-native application development and deployment of the present invention.
FIG. 2 is a flowchart of a method for cloud-native application development and deployment in accordance with the present invention.
Fig. 3 is a flowchart of a method for cloud-native application development and deployment according to an embodiment of the present invention.
Detailed Description
In order to make the objects, technical solutions and advantages of the present invention more apparent, the present invention will be further described in detail below with reference to the accompanying drawings by way of examples.
As shown in fig. 1, a system for cloud native application development and deployment based on a blockchain smart contract includes the following components:
the user interaction component is used for providing a user operation interface and initiating a request to communicate with other components;
an application development component comprising: the contract code editing system comprises a contract template module, an application template module, a code uploading module and a contract code compiling module;
the contract template module is used for providing an intelligent contract code template and managing the version of the class library corresponding to the version of the intelligent contract language;
the application template module is used for providing a template for constructing a mirror image and constructing a software package template of an application;
the code uploading module is used for constructing a mirror image file by using the developed intelligent contract codes and the intelligent contract template, and uploading the software package template to the application cluster server;
the contract code compiling module is used for providing online development and storage of intelligent contract codes;
the configuration component comprises a block chain configuration module and an application deployment configuration module;
the block chain configuration module is used for configuring an intelligent contract version to be deployed, an intelligent contract identity to be deployed and block chain link point information to be deployed;
the application deployment configuration module is used for configuring template information of the application to be deployed and constructing mirror image information of the application;
the inspection assembly comprises a template inspection module and a configuration inspection module;
the template checking module is used for checking whether a contract template and an application template are selected or not, if not, the contract template and the application template are selected, if so, the contract template information is output to the contract code compiling module, and the application template information is output to the application configuration module;
the configuration checking module is used for checking whether the block chain configuration is configured or not, if not, outputting information to the block chain configuration module, and if so, outputting the information to the application deployment configuration module;
the application deployment component comprises a contract deployment module and an application publishing module;
the contract deployment module is used for executing a contract deployment workflow and deploying the intelligent contract to the preconfigured block chain nodes;
and the application issuing module calls the contract codes to generate a workflow, applies the packaging workflow, applies the deployment workflow and deploys the application to the container application cluster server.
As shown in fig. 2, a method for cloud native application development and deployment based on a block chain intelligent contract includes the following steps:
a. the user selects an intelligent contract code template, an intelligent contract language version and a corresponding class library version through the system interaction component, and writes the user's own intelligent contract in the system according to the code template;
b. after the intelligent contract codes are developed, the intelligent contract codes are stored and uploaded to the application development component through the user interaction component;
c. the application development component returns a code storage result to the user interaction component;
d. a user configures the configuration information of the blockchain nodes and the configuration information of application deployment through a user interaction component;
e. the checking component executes configuration checking, and checks block link point configuration information configured by a user and application deployment configuration information;
f. the checking component returns various configuration checking results;
g. a user initiates an application deployment request through a user interaction component;
h. the application deployment component receives an application deployment request, and deploys the intelligent contract to the configured blockchain nodes through a class library such as web3 j;
i. the block chain node point interface returns intelligent contract deployment result information and stores an intelligent contract deployment address;
j. the application deployment component generates intelligent contract calling codes of a user pre-configured development language through a class library such as web3 j;
k. performing mirror image packaging through jenkins to package the generated codes into mirror images and uploading the mirror images to a mirror image warehouse;
jenkins deploys the Helm application template to the K8s cluster nodes through the K8s Api;
m. jenkins receives the results of application deployment;
n, jenkins returns the application deployment result to the application deployment component;
the application deployment component transmits the application deployment execution result to the user interaction component;
and p, displaying the application deployment result to the user by the user interaction component.
In the following, a specific example is used, as shown in fig. 3, in this embodiment, the intelligent contract language is used as identity, and the intelligent contract development language is called as Java;
(1) selecting a simple Key-Value storage identity intelligent contract template, wherein the intelligent contract language version is 0.4.26 template corresponding to support contract class library web3j version 4.8.2;
(2) developing a identity intelligent contract template code;
(3) saving the developed identity intelligent contract code;
(4) selecting a software package template of the Java application;
(5) configuring and storing block link point information and application deployment configuration information;
(6) executing configuration check, if the configuration check passes, prompting that the check passes, otherwise, prompting that the reconfiguration fails;
(7) initiate a deployment request, the application deployment component executes a contract deployment workflow, executing via the web3j
deploying the intelligent contract to the configured block chain node by using a deployment command, and returning a deployment result and an intelligent contract address;
(8) the application deployment component executes the application packaging workflow, and generates Java codes for calling the intelligent contracts by running a generate-sources command through the web3 j;
(9) the application deployment component packages the generated calling contract Java code and the application template code into a Docker mirror image through jenkins;
(10) the application deployment component pushes the packed Docker mirror image to a container application cluster server through jenkins;
(11) the application deployment component executes kubernetesDeploy through jenkins to deploy the application to the container application cluster server;
(12) and viewing the intelligent contract deployment result and the application deployment result through the user interaction component.
It will be appreciated by those of ordinary skill in the art that the examples described herein are intended to assist the reader in understanding the practice of the invention, and it is to be understood that the scope of the invention is not limited to such specific statements and examples. Those skilled in the art can make various other specific changes and combinations based on the teachings of the present invention without departing from the spirit of the invention, and these changes and combinations are within the scope of the invention.
Claims (8)
1. A cloud native application development and deployment system based on smart contracts, comprising: the system comprises a user interaction component, an application development component, a configuration component, an inspection component and an application deployment component;
the user interaction component is used for providing a user operation interface, initiating a request to communicate with other components, receiving results returned by other components and presenting the results to a user;
an application development component comprising: the contract code editing system comprises a contract template module, an application template module, a code uploading module and a contract code compiling module;
the contract template module is used for providing an intelligent contract code template and calling an intelligent contract class library, and managing an intelligent contract language version and a corresponding class library version;
the application template module is used for providing a template for constructing a software mirror image and a general software package template for constructing a decentralized application;
the code uploading module is used for uploading the intelligent contract codes, the intelligent contract templates, the files for constructing the mirror images and the software package templates which are developed by the users to the container application cluster server;
the contract code compiling module is used for providing online development and storage of intelligent contract codes;
a configuration component comprising: a block chain configuration module and an application deployment configuration module;
the block chain configuration module is used for configuring an intelligent contract version to be deployed, an intelligent contract identity to be deployed and block chain link point information to be deployed;
the application deployment configuration module is used for configuring template information of the application to be deployed and constructing mirror image information of the application;
an inspection assembly comprising: a template checking module and a configuration checking module;
the template checking module is used for checking whether a contract template and an application template are selected or not, if not, the contract template and the application template are selected, if so, the contract template information is output to the contract code compiling module, and the application template information is output to the application configuration module;
the configuration checking module is used for checking whether the block chain configuration is configured or not, if not, outputting information to the block chain configuration module, and if so, outputting the information to the application deployment configuration module;
an application deployment component comprising: the contract issuing system comprises a contract deployment module and an application issuing module;
the contract deployment module is used for executing a contract deployment workflow and deploying the intelligent contract to the preconfigured block chain node;
and the application issuing module calls the contract codes to generate a workflow, applies the packaging workflow, applies the deployment workflow and deploys the application to the container application cluster server.
2. The cloud-native application development and deployment method of the system of claim 1, comprising the steps of:
s1: a user accesses the contract template component through the user interaction component to select an intelligent contract code template;
s2: the application development component receives the contract template and outputs the contract template to the contract code compiling module;
s3: a user accesses the contract code compiling module through the user interaction component to develop the contract code;
s4: after contract code development is finished, a user initiates a code storage request through a user interaction component;
s5: the code uploading module receives the code storage request, uploads the contract code to the container application cluster server and returns an uploading success result;
s6: the user interaction component receives the code uploading success result and configures intelligent contract description information to be deployed and block link point information to be deployed;
s7: the block chain allocation module is connected with the allocation information and returns the successful allocation result;
s8: the user interaction component receives the successful configuration result, accesses the application deployment configuration module, configures the application development language and selects a deployment mirror image;
s9: after configuration is completed, a user initiates an application deployment configuration check request through an application deployment component;
s10: the configuration checking component receives the application deployment configuration checking request, checks whether the user block chain configuration and the application configuration are correct, if so, sends the application deployment request to the application deployment component, and if not, returns information to the user interaction component;
s11: and the application deployment component receives the user application issuing request and executes the contract application deployment workflow.
3. The cloud-native application development and deployment method of claim 2, wherein: the application deployment workflow comprises: contract deployment workflow, calling contract code generation workflow, application packaging workflow and application deployment workflow, and deploying the application to the cluster server.
4. The cloud-native application development and deployment method of claim 2, wherein: and the user interaction component provides a user operation interface to communicate with other components in a RESTful interface calling mode.
5. The cloud-native application development and deployment method of claim 2, wherein: the contract deployment workflow deploys the intelligent contracts to the preset block chain nodes through the Web3j class library.
6. The cloud-native application development and deployment method of claim 2, wherein: and the application packaging workflow generates a calling contract code according to the preselected development language and the corresponding calling contract class library version and packages the calling contract code into a Docker image file.
7. The cloud-native application development and deployment method of claim 2, wherein: and the application deployment workflow deploys an application mirror image to a Kubernet es cluster working node of the container application cluster server through Jenkins.
8. The cloud-native application development and deployment method of claim 2, wherein: the application deployment workflow component receives contract deployment workflows, invokes contract code generation workflows, applies packaging workflows, states and results of the application deployment workflows, and passes to the user interaction component.
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