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Automatic Categorization of GitHub Actions with Transformers and Few-shot Learning (2407.16946v1)

Published 24 Jul 2024 in cs.SE

Abstract: In the GitHub ecosystem, workflows are used as an effective means to automate development tasks and to set up a Continuous Integration and Delivery (CI/CD pipeline). GitHub Actions (GHA) have been conceived to provide developers with a practical tool to create and maintain workflows, avoiding reinventing the wheel and cluttering the workflow with shell commands. Properly leveraging the power of GitHub Actions can facilitate the development processes, enhance collaboration, and significantly impact project outcomes. To expose actions to search engines, GitHub allows developers to assign them to one or more categories manually. These are used as an effective means to group actions sharing similar functionality. Nevertheless, while providing a practical way to execute workflows, many actions have unclear purposes, and sometimes they are not categorized. In this work, we bridge such a gap by conceptualizing Gavel, a practical solution to increasing the visibility of actions in GitHub. By leveraging the content of README.MD files for each action, we use Transformer--a deep learning algorithm--to assign suitable categories to the action. We conducted an empirical investigation and compared Gavel with a state-of-the-art baseline. The experimental results show that our proposed approach can assign categories to GitHub actions effectively, thus outperforming the state-of-the-art baseline.

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Authors (6)
  1. Phuong T. Nguyen (22 papers)
  2. Juri Di Rocco (18 papers)
  3. Claudio Di Sipio (21 papers)
  4. Mudita Shakya (1 paper)
  5. Davide Di Ruscio (30 papers)
  6. Massimiliano Di Penta (31 papers)

Summary

  • The paper introduces Gavel, which leverages pre-trained Transformer models and few-shot learning to automatically categorize GitHub Actions based on README content.
  • The study empirically shows Gavel outperforms baseline methods in precision, recall, and F1-score across 1,200+ GitHub Actions.
  • The research highlights practical impacts by reducing manual categorization efforts and enhancing workflow automation in the GitHub ecosystem.

An In-depth Analysis of Automatic Categorization of GitHub Actions using Transformers and Few-shot Learning

The manuscript titled "Automatic Categorization of GitHub Actions with Transformers and Few-shot Learning" presents a sophisticated approach to enhancing the visibility and classification of GitHub Actions (GAs), pivotal components in automating workflows within the GitHub ecosystem. This research contributes a novel solution, named Gavel, that leverages deep learning architectures, particularly Transformers, complemented by few-shot learning strategies, to automate the categorization of GAs based on their README content. The approach is evaluated against existing tools, demonstrating superior accuracy and precision, hence positioning itself as a state-of-the-art solution to this classification task.

Problem Context and Implementation

In the GitHub (GH) marketplace, categorization of actions assists in enhancing discoverability and usability. However, many GitHub Actions remain uncategorized or inadequately classified due to ambiguous self-assigned categories by developers. Gavel addresses this lacuna by proposing an automated method to systematically categorize actions, which would facilitate seamless access and reuse by developers.

The researchers devised Gavel to mine information from README (.RM) files associated with GitHub Actions. Recognizing the potential within these documents, the authors applied pre-trained Transformer models adept at capturing semantic nuances in text data, thereby enabling accurate multi-label classification. Moreover, the problem of limited labeled data, often a hindrance in the effective training of deep learning models, is mitigated using few-shot learning techniques. The combination of these advanced methodologies showcases Gavel’s novel application in the domain of software engineering tools.

Evaluation and Results

The evaluation of Gavel is conducted using a dataset comprising over 1,200 unique GitHub Actions drawn from multiple sources. The performance of Gavel is scrutinized under various configurations that account for the textual, code, and commentary content of README files. The results are benchmarked against Complement Naïve Bayesian Network (CNB), recognized for categorizing GitHub repositories into tags. Gavel outperforms the baseline across precision, recall, and F1-score metrics, showcasing its robustness in accurately classifying GitHub Actions into appropriate categories. Notably, the research provides a fine-grained analysis of different configurations, highlighting scenarios where Gavel’s approach yields optimal results.

Implications and Future Prospects

The implications of this research extend both practically and theoretically. Practically, Gavel offers a tool that automates what is traditionally a subjective and manual process of categorization, thereby fostering the efficient reuse and discovery of GitHub Actions within the open-source community. For developers, this translates to reduced effort in configuring CI/CD pipelines and increased efficiency in project management. Theoretically, this paper reinforces the applicability of Transformers and few-shot learning in software engineering tasks, potentially inspiring further exploration into similar AI-driven solutions across diverse datasets.

Looking towards the future, the paper outlines potential enhancements such as integrating lightweight models capable of balancing efficiency with effectiveness. This line of work could propel the integration of Gavel’s technique with other task automation tools and workflows, thereby expanding its utility.

Overall, this research enriches the current understanding of employing cutting-edge AI techniques like Transformers and few-shot learning in tackling software engineering challenges, providing a robust model that significantly refines the process of categorizing GitHub Actions.

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