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Proceedings of the Fifteenth International Conference on Predictive Models and Data Analytics in Software Engineering最新文献

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On Usefulness of the Deep-Learning-Based Bug Localization Models to Practitioners 基于深度学习的Bug定位模型对从业者的有用性
Sravya Polisetty, A. Miranskyy, A. Bener
Background: Developers spend a significant amount of time and effort to localize bugs. In the literature, many researchers proposed state-of-the-art bug localization models to help developers localize bugs easily. The practitioners, on the other hand, expect a bug localization tool to meet certain criteria, such as trustworthiness, scalability, and efficiency. The current models are not capable of meeting these criteria, making it harder to adopt these models in practice. Recently, deep-learning-based bug localization models have been proposed in the literature. They show a better performance than the state-of-the-art models. Aim: In this research, we would like to investigate whether deep learning models meet the expectations of practitioners or not. Method: We constructed a Convolution Neural Network and a Simple Logistic model to examine their effectiveness in localizing bugs. We train these models on five open source projects written in Java and compare their performance with the performance of other state-of-the-art models trained on these datasets. Results: Our experiments show that although the deep learning models perform better than classic machine learning models, they meet the adoption criteria set by the practitioners only partially. Conclusions: This work provides evidence that the practitioners should be cautious while using the current state of the art models for production-level use-cases. It also highlights the need for standardization of performance benchmarks to ensure that bug localization models are assessed equitably and realistically.
背景:开发人员花费大量的时间和精力来定位bug。在文献中,许多研究人员提出了最先进的bug定位模型来帮助开发人员轻松地定位bug。另一方面,从业者期望bug定位工具能够满足某些标准,例如可靠性、可伸缩性和效率。目前的模型不能满足这些标准,这使得在实践中采用这些模型更加困难。最近,文献中提出了基于深度学习的bug定位模型。它们比最先进的型号表现得更好。目的:在本研究中,我们想要调查深度学习模型是否满足从业者的期望。方法:构建卷积神经网络和简单逻辑模型,考察二者在bug定位中的有效性。我们在用Java编写的五个开源项目上训练这些模型,并将它们的性能与在这些数据集上训练的其他最先进模型的性能进行比较。结果:我们的实验表明,尽管深度学习模型比经典机器学习模型表现得更好,但它们仅部分满足从业者设定的采用标准。结论:这项工作提供了证据,证明从业者在为生产级用例使用当前状态的最先进的模型时应该谨慎。它还强调了标准化性能基准的必要性,以确保公平和现实地评估bug定位模型。
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引用次数: 15
Patterns of Effort Contribution and Demand and User Classification based on Participation Patterns in NPM Ecosystem NPM生态系统中基于参与模式的努力、贡献、需求和用户分类模式
Tapajit Dey, Yuxing Ma, A. Mockus
Background: Open source requires participation of volunteer and commercial developers (users) in order to deliver functional high-quality components. Developers both contribute effort in the form of patches and demand effort from the component maintainers to resolve issues reported against it. Open source components depend on each other directly and transitively, and evidence suggests that more effort is required for reporting and resolving the issues reported further upstream in this supply chain. Aim: Identify and characterize patterns of effort contribution and demand throughout the open source supply chain and investigate if and how these patterns vary with developer activity; identify different groups of developers; and predict developers' company affiliation based on their participation patterns. Method: 1,376,946 issues and pull-requests created for 4433 NPM packages with over 10,000 monthly downloads and full (public) commit activity data of the 272,142 issue creators is obtained and analyzed and dependencies on NPM packages are identified. Fuzzy c-means clustering algorithm is used to find the groups among the users based on their effort contribution and demand patterns, and Random Forest is used as the predictive modeling technique to identify their company affiliations. Result: Users contribute and demand effort primarily from packages that they depend on directly with only a tiny fraction of contributions and demand going to transitive dependencies. A significant portion of demand goes into packages outside the users' respective supply chains (constructed based on publicly visible version control data). Three and two different groups of users are observed based on the effort demand and effort contribution patterns respectively. The Random Forest model used for identifying the company affiliation of the users gives a AUC-ROC value of 0.68, and variables representing aggregate participation patterns proved to be the important predictors. Conclusion: Our results give new insights into effort demand and supply at different parts of the supply chain of the NPM ecosystem and its users and suggests the need to increase visibility further upstream.
背景:开源需要志愿者和商业开发人员(用户)的参与,以交付功能高质量的组件。开发人员以补丁的形式贡献工作,并要求组件维护者努力解决针对它报告的问题。开源组件直接和传递地相互依赖,并且有证据表明,报告和解决供应链上游报告的问题需要更多的努力。目标:识别和描述整个开源供应链中工作贡献和需求的模式,并调查这些模式是否以及如何随着开发人员的活动而变化;确定不同的开发人员群体;并根据开发者的参与模式预测他们的公司隶属关系。方法:获取并分析了4433个月下载量超过1万次的NPM包的1,376,946个问题和下拉请求,以及272,142个问题创建者的完整(公开)提交活动数据,并确定了对NPM包的依赖关系。利用模糊c均值聚类算法根据用户的努力贡献和需求模式找到用户群体,并利用随机森林作为预测建模技术识别用户的公司隶属关系。结果:用户主要从他们直接依赖的包中贡献和需求工作,只有一小部分贡献和需求进入了传递依赖。很大一部分需求进入了用户各自供应链之外的包(基于公开可见的版本控制数据构建)。根据努力需求模式和努力贡献模式分别观察到三组和两组不同的用户。用于识别用户公司隶属关系的随机森林模型给出了0.68的AUC-ROC值,代表总体参与模式的变量被证明是重要的预测因子。结论:我们的研究结果对NPM生态系统及其用户的供应链不同部分的努力需求和供应提供了新的见解,并建议需要进一步提高上游的可见性。
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引用次数: 23
期刊
Proceedings of the Fifteenth International Conference on Predictive Models and Data Analytics in Software Engineering
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