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ArXiv Paper Title:
RepoGraph: Enhancing AI Software Engineering with Repository-level Code Graph

October 22, 2024

Keywords:
AI Software Engineering, Code Graph, Repository-level, LLMs

Read the paper on ArXiv RepoGraph: Function vs Repository-level coding problems. Visual comparison highlighting RepoGraph's repository-level focus.

RepoGraph: Boosting AI Software Engineering

Introduction: Level Up Your AI Software Engineering with RepoGraph

Are you tired of AI software engineering tools that only scratch the surface? Many existing tools focus on individual functions or files, missing the crucial context of the entire repository. This is like trying to fix a car engine without understanding how all the parts work together! That's where RepoGraph comes in.

This groundbreaking research introduces RepoGraph, a plugin module designed to revolutionize AI software engineering by providing a comprehensive, repository-level understanding of your code. Imagine having a bird's-eye view of your entire codebase, revealing hidden dependencies and relationships. That's the power of RepoGraph.

What is RepoGraph and Why Does it Matter?

RepoGraph constructs a repository-wide graph. Each node represents a single line of code, and edges connect lines that depend on each other. This graph allows for fine-grained analysis, enabling more effective solutions to complex, repository-level coding problems.

Why is this significant? Because real-world software isn't just a collection of isolated files – it's a complex ecosystem of interconnected components. Existing AI tools often struggle with this complexity, leading to inefficient solutions or missed opportunities. RepoGraph changes the game by providing the holistic view necessary for superior performance.

How RepoGraph Works: A Three-Step Process

RepoGraph's magic lies in its three-step construction process:

  1. Code Line Parsing: RepoGraph uses tree-sitter to parse your code, creating an Abstract Syntax Tree (AST) and identifying key elements like functions, classes, variables, and their relationships.

  2. Project-Dependent Relation Filtering: RepoGraph intelligently filters out irrelevant dependencies, focusing only on the project-specific relationships crucial for understanding your codebase.

  3. Graph Organization: Finally, RepoGraph organizes the parsed information into a comprehensive graph structure, where nodes represent code lines and edges represent dependencies. This graph becomes the foundation for powerful analysis and interaction.

RepoGraph in Action: Integration and Evaluation

The researchers integrated RepoGraph into four different AI software engineering frameworks (two agent-based and two procedural) and evaluated its performance on two benchmarks: SWE-bench (for repository-level tasks) and CrossCodeEval (for general coding tasks).

The results were impressive. RepoGraph led to a significant average relative improvement of 32.8% in success rate on SWE-bench. CrossCodeEval results also showed substantial improvements in code and identifier matching. The best results were achieved by using LLMs to summarize information extracted from the graph.

Beyond the Benchmarks: Real-World Applications

RepoGraph's potential extends far beyond the benchmarks. Imagine its applications in:

Limitations and Future Directions

While RepoGraph shows immense promise, some limitations exist:

Future research will focus on addressing these limitations and exploring new applications for RepoGraph.

Conclusion: The Future of AI Software Engineering is Graph-Based

RepoGraph represents a significant leap forward in AI software engineering. By providing a repository-level understanding of code, RepoGraph empowers developers and AI tools to tackle more complex tasks more effectively. This is not just an incremental improvement—it's a paradigm shift. The future of AI software engineering is graph-based, and RepoGraph is leading the way.