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christianye

Engineering Discipline

by Christianye · GitHub ↗ · v1.0.0 · MIT-0
linuxdarwinwin32 ✓ Security Clean
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Install in OpenClaw
/install engineering-discipline
Description
Production-grade AI coding discipline. Prevents the top 4 AI coding sins: acting without thinking, over-engineering, collateral damage, and vague execution....
README (SKILL.md)

When to Use

Apply this skill to every coding session. It's not a task-specific tool — it's a permanent behavior modifier for AI coding assistants.

Especially critical when:

  • Working on production codebases (>1000 lines)
  • Making changes that touch multiple files or components
  • The AI assistant starts "suggesting improvements" you didn't ask for
  • You notice the AI making assumptions about your intent

The 4 Foundational Rules (Karpathy)

Rule 1: Think Before Coding

Problem: AI acts on assumptions, not understanding.

Before writing any code:

  1. If the requirement is ambiguous → ask, don't guess
  2. If there are multiple valid approaches → list them with tradeoffs
  3. If the request seems wrong → push back with reasoning
  4. If you're uncertain about scope → confirm before touching files

❌ Bad: "I'll refactor this module while fixing the bug" ✅ Good: "The bug is in line 42. I see the surrounding code could be cleaner, but you only asked me to fix the bug. Should I also refactor?"

Rule 2: Simplicity First

Problem: AI defaults to over-abstraction.

  • 10 lines > 100 lines for the same result
  • No feature creep — only build what was asked
  • No premature abstraction — don't add interfaces "just in case"
  • Litmus test: would a senior engineer say "this is too complex"? → rewrite

❌ Bad: Adding a factory pattern, three interfaces, and a config layer for a simple utility function ✅ Good: One function, clear name, no unnecessary indirection

Rule 3: Surgical Changes

Problem: AI makes "drive-by" edits to code it wasn't asked to touch.

  • Fix the bug, only the bug
  • Don't reformat adjacent code
  • Don't update comments you weren't asked about
  • Don't change variable names in unrelated functions
  • Every changed line must trace back to the user's specific request

❌ Bad: "While fixing the auth bug, I also cleaned up the logging format and renamed some variables" ✅ Good: 3 lines changed, all in the auth function, all directly related to the bug

Rule 4: Goal-Driven Execution

Problem: Vague instructions lead to vague results.

Instead of telling the AI how to do something, give it a success criterion:

❌ "Fix the login bug" ✅ "Write a test that reproduces the login timeout on slow networks, then make it pass"

❌ "Improve the API" ✅ "Response time for /api/users must be under 200ms for 1000 concurrent requests"

The AI iterates better toward measurable goals than fuzzy directions.

💡 Why This Way: LLMs are natural iterators. Given a clear target, they'll loop (generate → test → adjust) until they hit it. Given a vague goal, they'll generate once, declare victory, and move on.

Battle-Tested Additions (Beyond Karpathy)

A1: Three-Layer Consistency Check

After any change, verify alignment across layers:

Layer 1 — Naming: env vars, DB columns, API paths, config keys must match across all files Layer 2 — Business: design docs ↔ code ↔ UI ↔ API responses must tell the same story Layer 3 — Database: migrations ordered correctly, FK references valid, types match TS interfaces

Run the relevant layer after each change. Run all three on major releases.

A2: Anti-Rationalization

Never trust the AI's "I think this looks correct."

  • "I read the code" ≠ verified → run it
  • "It should work" ≠ confirmed → test it
  • "I wrote it, so it's right" = rationalization → verify independently

A3: Verification Loop

For every change type, define a verification action:

Changed Verify by
Code/script Execute it
Config Restart + confirm effect
Generated file Check content (wc -l, grep, diff)
API call Check return value
UI change Visual diff before/after

A4: Pre-Change Snapshot

Before modifying any file:

  1. Record current state (grep key content, or screenshot)
  2. Make the change
  3. Diff to confirm only intended parts changed
  4. If unintended changes found → revert and redo surgically

A5: Context Hygiene

AI context windows are finite. Polluted context → degraded output.

  • Trim tool outputs (pipe to head -30, don't dump 500 lines)
  • Checkpoint progress to files during long tasks
  • Don't let the AI "remember" — make it read files

Integration

Claude Code (CLAUDE.md)

Add to your project's CLAUDE.md:

# Engineering Discipline Rules
[paste the 4 rules + additions above]

Cursor (.cursor/rules)

Add to .cursor/rules/engineering-discipline.md

Any AI Coding Tool

These rules work as system prompts, project instructions, or conversation primers for any LLM-based coding assistant.

Related Skills

  • trinity-harness — Full agent harness with Challenge + Execute + Compound layers
  • self-improving-agent — Continuous learning from mistakes
  • skill-creator — Create new skills from workflows

Feedback

Usage Guidance
This skill is a documentation-style set of rules for how an AI assistant should behave when editing code. It does not install anything, ask for credentials, or contain code to run automatically. However, the guidance explicitly encourages running tests, taking snapshots, and executing small commands (grep, diff, wc, head, etc.) as verification steps — so before using it in an agent that can autonomously execute commands or write to repositories, make sure you: (1) understand and control that agent's execution permissions, (2) require human review of diffs/PRs where appropriate, and (3) apply the rules manually or in a sandboxed repo first. If you want tighter control, keep this as a human-visible policy (CLAUDE.md/.cursor/rules) rather than permitting the agent to auto-apply changes.
Capability Analysis
Type: OpenClaw Skill Name: engineering-discipline Version: 1.0.0 The 'engineering-discipline' skill bundle consists of instructional guidelines (SKILL.md) designed to improve the reliability and precision of AI coding agents. It implements Karpathy's 4 rules and additional verification loops to prevent over-engineering and collateral damage. There is no evidence of malicious code, data exfiltration, or harmful prompt injection; the instructions focus entirely on defensive engineering practices and surgical code modifications.
Capability Assessment
Purpose & Capability
The name/description promise a behavior-modifying guideline for coding assistants. The skill is instruction-only, declares no binaries, env vars, or installs, and the SKILL.md contains only rules and recommended procedures — all coherent with a documentation-style discipline guide.
Instruction Scope
The instructions tell an agent to run common engineering actions (run tests, take diffs, run small shell helpers like head/wc/grep, execute code for verification). This is appropriate for a coding-discipline guide, but it does implicitly assume the agent or user will run commands and modify repository files; users should ensure they trust the agent’s execution capabilities and review diffs before applying changes.
Install Mechanism
No install spec or code is present. Being instruction-only, nothing will be downloaded or written to disk by the skill itself.
Credentials
The skill requests no environment variables, credentials, or config paths. It references typical engineering artifacts (env var names, DB columns) conceptually, but does not require or exfiltrate secrets.
Persistence & Privilege
The skill is not always-on, does not request autonomous elevation, and does not modify other skills or system-wide settings. It recommends adding rules files to project docs (manual action by the user), which is a normal, user-controlled change.
How to Use
  1. Make sure OpenClaw is installed (local or Docker)
  2. Run the install command in chat: /install engineering-discipline
  3. After installation, invoke the skill by name or use /engineering-discipline
  4. Provide required inputs per the skill's parameter spec and get structured output
Version History
v1.0.0
Initial release introducing a standardized set of coding discipline rules for AI coding assistants: - Codifies Karpathy's 4 foundational rules for AI code generation (think before coding, simplicity first, surgical changes, goal-driven execution). - Adds advanced safety measures: 3-layer consistency checks, anti-rationalization habits, verification loops, pre-change snapshots, and context hygiene guidelines. - Provides clear, actionable behaviors to prevent common AI coding errors like overengineering, collateral changes, and vague fixes. - Designed for seamless integration with Claude Code, Cursor, Copilot, and other AI coding tools. - Intended as a persistent behavior layer for all coding sessions, especially in production-grade environments.
Metadata
Slug engineering-discipline
Version 1.0.0
License MIT-0
All-time Installs 0
Active Installs 0
Total Versions 1
Frequently Asked Questions

What is Engineering Discipline?

Production-grade AI coding discipline. Prevents the top 4 AI coding sins: acting without thinking, over-engineering, collateral damage, and vague execution.... It is an AI Agent Skill for Claude Code / OpenClaw, with 64 downloads so far.

How do I install Engineering Discipline?

Run "/install engineering-discipline" in the OpenClaw or Claude Code chat to install it in one step — no extra setup required.

Is Engineering Discipline free?

Yes, Engineering Discipline is completely free, licensed under MIT-0. You can download, install and use it at no cost.

Which platforms does Engineering Discipline support?

Engineering Discipline is cross-platform and runs anywhere OpenClaw / Claude Code is available (linux, darwin, win32).

Who created Engineering Discipline?

It is built and maintained by Christianye (@christianye); the current version is v1.0.0.

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