bug-tracing

Diagnose hard-to-reproduce bugs with hypothesis-driven debugging and instrumented logs.

Updated Aug 27, 2026
One-click install
npx skills add https://github.com/Fohlio/ai-tools --skill bug-tracing
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: bug-tracing
Source: https://github.com/Fohlio/ai-tools/tree/main/skills/bug-tracing
Command: npx skills add https://github.com/Fohlio/ai-tools --skill bug-tracing

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes scripts (resource) components.

What problem does it solve?

Diagnoses hard-to-reproduce bugs by guiding architecture analysis, hypothesis-driven debugging, and instrumented logging to confirm root causes.

Core Features & Use Cases

  • Structured bug-diagnosis workflow analyzing architecture, reproduction steps, and logs to pinpoint root causes.
  • Lightweight, zero-dependency debug logger that can be injected into the target project to capture runtime traces without altering behavior.
  • End-to-end process from hypothesis generation through instrumentation to verification and cleanup, suitable for complex systems with multiple execution paths.

Quick Start

Instrument the included debug logger in the target project, reproduce the bug with instrumentation active, and review the generated logs to identify the root cause.

Frequently Asked Questions about bug-tracing

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I debug hard-to-reproduce bugs in a complex software system?

Debug hard-to-reproduce bugs by guiding architecture analysis and using hypothesis-driven debugging with instrumented logs to confirm root causes. This workflow is applicable to complex software projects where root causes are obscured by multiple interacting components and intermittent failures.

What is hypothesis-driven debugging and how does it work with instrumented logs?

Hypothesis-driven debugging uses structured traces with hypothesis tags to systematically confirm root causes. You generate hypotheses, inject a lightweight debug logger to capture runtime traces, reproduce the bug, and review the structured logs to pinpoint the root cause.

How do I add non-invasive logging to capture runtime traces without altering software behavior?

Inject a lightweight, zero-dependency debug logger into the target project to capture runtime traces without altering behavior. This non-invasive logging approach ensures the target system's behavior remains stable while generating structured traces for analysis.

Can I use this debugging workflow for intermittent failures in systems with multiple execution paths?

Yes, this workflow is suitable for complex systems with multiple execution paths and intermittent failures. It provides an end-to-end process from hypothesis generation through instrumentation to verification and cleanup, allowing you to systematically isolate interacting components.

What is the best way to structure a bug-diagnosis workflow from setup to cleanup?

The best way is a structured bug-diagnosis workflow analyzing architecture, reproduction steps, and logs. It provides an end-to-end reproducible setup-to-cleanup workflow: instrument the logger, reproduce the bug, review logs to identify the root cause, and then clean up.

Do I need external dependencies to instrument debug logs for root-cause analysis?

No, you do not need external dependencies to instrument debug logs for root-cause analysis. The workflow satisfies zero-dependency instrumentation, providing a lightweight debug logger that can be injected directly into the target project without requiring external libraries.