The systematic-debugging skill enhances the debugging process by automating systematic checks and error identification in code. This results in faster issue resolution, saving developers valuable time and effort.
git clone https://github.com/obra/superpowers.gitThe systematic-debugging skill is designed to streamline the debugging process by automating systematic checks and error identification in codebases. By leveraging advanced algorithms, this Claude Code skill helps developers quickly pinpoint issues that may otherwise go unnoticed. This automation not only speeds up the debugging process but also enhances code quality, allowing for more reliable software development. Key benefits of the systematic-debugging skill include significant time savings and improved productivity. Developers can reduce the hours spent on manual debugging by automating repetitive tasks and focusing on more complex issues that require human intervention. This skill is particularly beneficial in large projects where tracking down bugs can be time-consuming and tedious. This skill is ideal for developers, product managers, and AI practitioners who are looking to enhance their debugging workflows. It is particularly useful in environments where rapid development and deployment cycles are critical. For example, a developer working on a large-scale application can use systematic-debugging to quickly identify and resolve bugs during the testing phase, ensuring a smoother release. Implementation of the systematic-debugging skill is straightforward, making it accessible even for those with limited experience in AI automation. Integrating this skill into AI-first workflows allows teams to leverage AI agents for enhanced debugging capabilities, ensuring that code quality remains high while reducing the time to market. Overall, systematic-debugging represents a valuable addition to any developer's toolkit, facilitating more efficient and effective debugging processes.
1. Prepare your code and error message before starting. Copy the relevant section of code that's causing issues. 2. Identify your debugging tools. Note which debugger or testing framework you're using. 3. Input the details into the prompt template. Be specific about the error message and code context. 4. Review the AI's suggestions. Prioritize the most likely root causes based on your knowledge of the system. 5. Implement the suggested tests and fixes. Verify each change to ensure it resolves the issue without introducing new problems. Tip: For complex issues, break the debugging process into smaller chunks and address them sequentially.
Automate error checks in large codebases to quickly identify issues before deployment.
Enhance debugging efficiency during Agile development cycles by reducing manual checks.
Minimize manual debugging time in software testing, allowing for faster release cycles.
Identify hidden bugs in legacy systems that traditional debugging methods may overlook.
No install command available. Check the GitHub repository for manual installation instructions.
git clone https://github.com/obra/superpowersCopy the install command above and run it in your terminal.
Launch Claude Code, Cursor, or your preferred AI coding agent.
Use the prompt template or examples below to test the skill.
Adapt the skill to your specific use case and workflow.
I'm debugging a [PROGRAMMING_LANGUAGE] script that's throwing an error: [ERROR_MESSAGE]. Here's the relevant code: [CODE_SNIPPET]. Perform a systematic debug by: 1) Identifying potential root causes, 2) Suggesting specific tests to isolate the issue, and 3) Proposing fixes for each possible cause. Assume I'm using [DEBUGGING_TOOL] for testing.
Based on the Python script and the 'TypeError: 'int' object is not subscriptable' error, here's a systematic debug approach: 1. Root causes: - The error occurs when trying to access an element of an integer (line 15) - This suggests 'data' might be an integer when it should be a list or dictionary - Possible causes: data type conversion issue, incorrect API response handling, or logic error in data processing 2. Isolation tests: - Add print statements before line 15 to verify the type of 'data' - Check the API response structure (line 8) to confirm expected data format - Test with mock data that matches both expected and unexpected formats 3. Proposed fixes: - If data type conversion issue: Add type checking and conversion (lines 10-12) - If API response handling: Update the response parsing logic (lines 8-10) - If logic error: Review the data processing algorithm (lines 12-15) Recommend using Python's built-in 'type()' function and 'pdb' debugger for these tests.
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