@leanxbt: This paper completely changed how I think about how an agent fixes its own code: Generate code -> Execute it -> Explain…

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Summary

This paper presents a self-debugging technique where an agent iteratively generates, executes, and explains its own code to find bugs without error messages, improving accuracy by up to 12% and matching baselines that generate 10x more candidates.

This paper completely changed how I think about how an agent fixes its own code: Generate code -> Execute it -> Explain the code line by line -> Spot the bug from the explanation and output -> Rewrite -> Repeat Here is the 5-step blueprint: Iterative debugging: the model does not write correct code from scratch, it enters a loop of edits to its own prediction. Rubber-duck: the model explains its generated code line by line in natural language and finds the bug from that explanation alone, with no error messages. Execution feedback: where unit tests or an interpreter exist, the real execution output is fed into the loop, not just self-explanation. Trace variant: the model dry-runs the code step by step in its head, which strengthens debugging where no tests are available. Reusing failures: failed predictions and their feedback are not thrown away but carried into the next round, sharply raising sample efficiency. Key insight: to find a bug the model needs no error message, it only needs to force itself to explain its own code in words. Self-Debugging matches or beats baselines that generate 10x more candidates, and lifts accuracy by up to 12%. Read this, then check the article below.
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Cached at: 07/11/26, 11:23 AM

This paper completely changed how I think about how an agent fixes its own code:

Generate code -> Execute it -> Explain the code line by line -> Spot the bug from the explanation and output -> Rewrite -> Repeat

Here is the 5-step blueprint:

Iterative debugging: the model does not write correct code from scratch, it enters a loop of edits to its own prediction.

Rubber-duck: the model explains its generated code line by line in natural language and finds the bug from that explanation alone, with no error messages.

Execution feedback: where unit tests or an interpreter exist, the real execution output is fed into the loop, not just self-explanation.

Trace variant: the model dry-runs the code step by step in its head, which strengthens debugging where no tests are available.

Reusing failures: failed predictions and their feedback are not thrown away but carried into the next round, sharply raising sample efficiency.

Key insight: to find a bug the model needs no error message, it only needs to force itself to explain its own code in words.

Self-Debugging matches or beats baselines that generate 10x more candidates, and lifts accuracy by up to 12%.

Read this, then check the article below.

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