harness-engineering

Enforce a harness-first execution framework with tiered permissions and iteration budgets.

55|7|Updated Sep 5, 2025
One-click install
npx skills add https://github.com/2217173240/Coding-Agent-prompt-best-practice --skill harness-engineering-2217173240
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: harness-engineering
Source: https://github.com/2217173240/Coding-Agent-prompt-best-practice/tree/main/harness-engineering
Command: npx skills add https://github.com/2217173240/Coding-Agent-prompt-best-practice --skill harness-engineering-2217173240

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

Unstructured AI agent execution often leads to repeated failed attempts, unclear handoffs to human operators, and untraceable delivery with hidden failures, wasting time and increasing risk in complex development tasks.

Core Features & Use Cases

  • Harness-First Execution Framework: Defines clear success boundaries, tiered permissions, and verifiable milestones before the agent starts work, eliminating ambiguous task scopes.
  • Autonomous Iteration Budgets: Sets time and attempt limits for agent self-exploration, requiring evidence-based progress instead of unproductive retries.
  • Structured Proactive Collaboration: Triggers help requests with pre-filled evidence, root cause hypotheses, and A/B/C decision options when thresholds are hit, reducing back-and-forth with humans.
  • Traceable Delivery: Mandates full change logs, verification evidence, and risk disclosures for all completed work, eliminating silent downgrades or hidden failures. Ideal for long-chain troubleshooting, cross-module code fixes, CI pipeline failure resolution, operations in restricted permission environments, and tasks requiring explicit human decision checkpoints.

Quick Start

Use the harness-engineering skill to plan and execute the task of fixing the failing CI pipeline for the user authentication module, defining success boundaries, autonomous iteration budget, and help thresholds before starting work.

Frequently Asked Questions about harness-engineering

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

FAQPage Schema
How do I make autonomous AI agent execution traceable in software development workflows?

To make autonomous agent execution traceable, implement a harness-first execution framework that enforces verifiable milestones, full change logs, and evidence-based progress tracking for all completed tasks. This eliminates silent downgrades and hidden failures.

What is the best way to resolve CI pipeline failures using an AI agent without causing unproductive retries?

Resolving CI pipeline failures with an AI agent requires setting autonomous iteration budgets that enforce time and attempt limits for self-exploration, demanding concrete evidence of progress instead of unproductive repeated failed attempts.

How does structured human-agent collaboration work during long-chain troubleshooting?

Structured human-agent collaboration works by triggering proactive help requests equipped with pre-filled evidence, root cause hypotheses, and A/B/C decision options when an agent hits explicit thresholds, reducing back-and-forth communication.

Can I use tiered permission controls for AI agents operating in restricted permission environments?

Yes, you can apply tiered permission controls to AI agents operating in restricted environments, defining clear success boundaries and explicit human decision checkpoints before work begins to ensure low-risk, observable delivery.

When do I need an autonomous iteration budget for cross-module code fixes?

You need an autonomous iteration budget for cross-module code fixes when unstructured agent execution risks repeated failed attempts, requiring time and attempt limits to mandate evidence-based progress instead of unproductive retries.

Why does unstructured AI agent execution lead to untraceable delivery and hidden failures?

Unstructured AI agent execution leads to untraceable delivery because it lacks verifiable milestones and full change logs, resulting in unclear handoffs to human operators and hidden failures that increase risk in complex development tasks.