Predictive Technique To Improve Classification On Continuous System Deployment

Y. S. Dwivedi, Ganesh Semalty, Amit Moondra
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Abstract

We introduce Last in First Focus (LIFF) approach for any system deployment. As per current market need most of the system deployment follow continues integration (CI) and continues deployment (CD) approach. In CI/CD, regular system release comes for deployment and it requires lot of post system deployment focus on last deployed or updated system. Continuous development, delivery and deployment is one of the essential parts of a product lifecycle. With addition of new features or major redesign with latest technology e.g. containerization, there may be sudden increase in tickets, which need to be handled effectively. When system does not perform expected behavior then system monitory module generates tickets. These tickets need to be analyzed and forward to corresponding department for resolution. With increase in number of tickets, more human resources may be required to perform this task. Here machine learning can provide helping hand in this job via analyzing the ticket and predicting the impacted system component for the resolution of ticket. The dataset collected after deployment of redesigned system component may be imbalanced due to more tickets on one system component only. This impacts the accuracy of classification metrics. This article resolved this problem by using Algorithmic level solution or Data level solution. Data level solution has achieved by oversampling of minority classes or under sampling of majority classes. Synthetic Minority Oversampling Technique, or SMOTE is used to address imbalanced dataset problem.
改进连续系统部署分类的预测技术
我们为任何系统部署引入了后进先焦点(LIFF)方法。根据当前的市场需求,大多数系统部署遵循持续集成(CI)和持续部署(CD)方法。在CI/CD中,定期的系统发布是为了部署而进行的,它需要大量的后期系统部署,重点关注上次部署或更新的系统。持续的开发、交付和部署是产品生命周期的重要组成部分之一。随着新功能的增加或采用最新技术(例如集装箱化)进行重大重新设计,船票可能会突然增加,需要有效处理。当系统没有执行预期的行为时,系统监控模块生成票据。这些票需要分析并转交给相应部门解决。随着门票数量的增加,可能需要更多的人力资源来执行这项任务。在这里,机器学习可以通过分析票证并预测受影响的系统组件来解决票证问题,从而为这项工作提供帮助。重新设计的系统组件部署后收集的数据集可能不平衡,因为只有一个系统组件上有更多的票证。这影响了分类指标的准确性。本文采用算法级解决方案和数据级解决方案解决了这一问题。数据级的解决方案是通过少数类的过采样或多数类的欠采样来实现的。合成少数派过采样技术(Synthetic Minority Oversampling Technique, SMOTE)用于解决数据集不平衡问题。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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