gstack-openclaw-investigate

Enforces hypothesis-driven root cause investigation before code fixes in debugging workflows.

Updated May 27, 2026
One-click install
npx skills add https://github.com/Shmurdoc/EasyRide-v1 --skill gstack-openclaw-investigate-shmurdoc
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: gstack-openclaw-investigate
Source: https://github.com/Shmurdoc/EasyRide-v1/tree/main/.opencode/skills/gstack/openclaw/skills/gstack-openclaw-investigate
Command: npx skills add https://github.com/Shmurdoc/EasyRide-v1 --skill gstack-openclaw-investigate-shmurdoc

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This Skill eliminates the ineffective whack-a-mole debugging pattern where quick symptom fixes lead to recurring bugs and accumulating technical debt, by enforcing mandatory root cause investigation before any code changes are made.

Core Features & Use Cases

  • Structured 5-Phase Debugging Workflow: Guides users through root cause investigation, pattern matching, hypothesis testing, minimal fix implementation, and verification with a formal debug report.
  • Built-in Guardrails: Includes rules like the 3-strike hypothesis limit and blast radius checks for changes touching more than 5 files to prevent guesswork and risky overhauls.
  • Use Case: When a critical user-facing feature stops working after a recent deploy, this Skill guides you to trace the root cause (e.g., a misconfigured environment variable) instead of applying a temporary patch that will break again later.

Quick Start

Use the gstack-openclaw-investigate skill to debug the intermittent checkout failures our e-commerce platform is experiencing after the latest feature release.

Frequently Asked Questions about gstack-openclaw-investigate

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

FAQPage Schema
How do I stop recurring bugs from quick symptom-only debugging?

To stop recurring bugs, root cause debugging enforces mandatory investigation of underlying issues before applying any code fixes. This structured workflow eliminates the whack-a-mole pattern by validating hypotheses and assessing blast radius, ensuring permanent resolutions rather than temporary patches.

What is the best way to investigate error causes using stack trace analysis?

Stack trace analysis is best executed through a structured 5-phase debugging workflow: root cause investigation, pattern matching, hypothesis testing, minimal fix implementation, and verification. This process includes guardrails like a 3-strike hypothesis limit to prevent guesswork.

How do I perform regression testing after fixing unexpected software behavior?

Regression testing after fixing unexpected behavior requires creating validation tests during the verification phase of a root cause investigation. The debugging workflow mandates test creation alongside minimal fix implementation to confirm the resolution and prevent future regressions.

When do I need blast radius assessment for bug fixing in production environments?

Blast radius assessment for bug fixing is needed when code changes touch more than 5 files. This guardrail prevents risky overhauls during production environment issue resolution by enforcing evaluation of the potential impact before deploying fixes.

Does root cause analysis debugging work for intermittent checkout failures?

Root cause analysis debugging works for intermittent failures by tracing underlying triggers like misconfigured environment variables instead of applying temporary patches. It systematically resolves unexpected behavior through hypothesis validation rather than guessing at symptoms.

What are the limitations of guesswork in software debugging?

The limitation of guesswork in software debugging is that quick symptom fixes lead to accumulating technical debt and recurring bugs. Without structured root cause investigation and hypothesis validation limits, guesswork fails to permanently resolve production issues.