Delegate real work to AI. Stay accountable for the result.

Close the tab and the AI forgets everything - the context, the decisions, the reasoning. These six skills give it persistent memory and keep every decision auditable across sessions, so you can delegate real work and still own the result.

Six skills. Built by the principles they uphold.

The skillset improves any target by understanding its purpose - it was applied to itself 200+ times with different AI models. It began as a single Kaizen loop, split into three as the work grew more complex (Kaizen, Kaikaku, Hansei), and converged back into the single Improve skill in use today.

Every run did exactly what this page describes: read the trail, understand the purpose of its target, make one highest-leverage change, and record the reasoning. The target just happened to be the loop itself.

Metrics were tried - rubrics, fixed scoring, dynamic targets. Each surfaced the same realization: any metric prescribes a route, and if the agent optimizes toward a score, it limits its own reasoning and autonomy.

It stopped the only way Convergence Is Silence allows: models from different families each ran the loop and found nothing left to change. The skillset is not a design anyone argued for - it is what the loop converged on, given the principles and a destination: to build a framework for earned autonomy. When a new model family or major version is released, the loop must be run again to convergence with independent models.

The full record is public and append-only. Every claim above is checkable against the git log.

Without data, you're just another person with an opinion. attributed to W. Edwards Deming
View full trail on GitHub ↗

Install

Download the six skill files from the skills repository and place them in your agent's skills folder (.copilot/skills/ for GitHub Copilot, or wherever your toolset reads custom instructions from).

Go to the skills repository ↗

Storm P-style Rube Goldberg illustration of the full PEA architecture: the operator pulls a lever feeding a destination scroll into the Kaizen Wheel (AI 1, READ/EXAMINE/DECIDE/ACT), which drops cards into the Harness Station where AI 3 records them and feeds copies into a sealed black box labeled llm-harness-proxy, placing originals onto the conveyor belt. AI 2 observes the belt from a catwalk above and mints Realization coins that feed back into AI 1's glass-dome brain (ACM). The belt ends at the Difference Engine, which rings when convergence is reached.

How the machine works

The drawing maps the full architecture. Each element is a principle or skill in action:

  • The operator (far left) pulls the lever with a destination scroll: Principle 1: Operator's Intent. The Destination skill captures this as .acm/destination.md.
  • The Kaizen Wheel (AI 1, center) runs the READ / EXAMINE / DECIDE / ACT loop: the Improve skill. During the EXAMINE phase, AI 1 picks from four lenses: Purpose, Inconsistency, Overburden, Waste (the TPS-derived improvement lenses: Muda, Muri, Mura). The glass dome is ACM, the agent's persistent context memory, fed by realizations dropped in from above.
  • The Recording Desk (AI 3) and the black box capture every card the wheel produces. AI 3 writes each card into an open ledger titled "AUDIT TRAIL: append only". That book is the audit trail: always appended, never erased. Separately, a copy of every card feeds into the llm-harness-proxy black box: solid, opaque, tamper-evident. This is Principle 2: Observable Autonomy, enacted by the Trail skill.
  • The Observation Catwalk (AI 2, above) watches the full belt from above through four interchangeable lenses: Pattern, Arc, Gap, Momentum. When AI 2 spots a pattern across iterations, it mints a [!REALIZATION] coin and sends it down a chute directly into AI 1's brain dome: the Orient skill closing the feedback loop.
  • The Difference Engine (far right) measures gap-to-target. When nothing new arrives, the needle hits zero and the bell rings: Principle 3: Convergence Is Silence.

Start here

Step 01

Set the destination

I want to build a personal website to showcase my projects.

use destination skill

Where are you going? Creates .acm/destination.md.

Step 02

Orient

use orient skill

Where are you now? What's between here and the goal?

Step 03

Move

use improve skill

One step at a time. Repeat until you arrive.

Destination SKILL ↗

The agent reads the conversation and the trail and states what it thinks you're building and why, as specific questions for you to confirm or correct. Produces .acm/destination.md - where you're going: what the target is for, the constraints that hold across runs, the problem driving the work. Operator-held; humans only.

Derives from: P1 · Operator’s Intent

Orient SKILL ↗

Reads the entire trail and finds patterns no single session can see. Produces .acm/orientation.md - where you are: arc-level orientation plus the active rules the agent must obey this run.

Derives from: P2 · Observable Autonomy, P3 · Convergence Is Silence, Hansei

Improve SKILL ↗

Improves any target by reading the context, purpose, and intent. Applied to itself 200+ times.

One highest-leverage change per run. Reads the context first - destination, orientation, trail - examines the target, challenges the first read, decides, acts, and logs it.

Derives from: P3 · Convergence Is Silence, Toyota Coaching Kata, Kaizen

Always active

Trail SKILL ↗

Writes every session to .acm/audit-trail.md - the append-only source of truth. One entry per run: the ask, examination, decisions, actions, reflection. The next prompt knows what was already done and why.

From that record it keeps readable views in sync at each commit - a run timeline and a log of every realization and reversal - so you never have to reconstruct the history by hand.

Derives from: P2 · Observable Autonomy, Flight Data Recorder, Reproducibility, Huang et al.

Always active

Intent SKILL ↗

The agent reads your prompt and states how it reads it - what you mean, not what you said - before continuing.

Derives from: P1 · Operator’s Intent, Auftragstaktik

Probe SKILL ↗

Builds two cases that look alike on the surface but differ in one material way. An agent reasoning for real gives different answers; one pattern-matching gives the same. That divergence - or absence of it - is what ARF measures.

Derives from: Socratic Method, Turpin et al., Chen et al.

Agent Context Memory (ACM) ↗

The skills implement ACM - a spec that organizes memory by trust level, not type. Your mandate (destination.md) outranks the agent's notes on where things stand (orientation.md), which outranks the audit trail (audit-trail.md). When they disagree, the higher tier wins.

The mandate gate: the agent reads your destination before touching anything else. No destination file, no session. You write the brief; the agent cannot start without it.

Everything lives in .acm/ at the repo root. Each run reads the context first and adds to it at the end - so each session builds on the last, not from scratch.

Limitations

These constraints are inherent to how skills work: they are Markdown instruction files delivered to the model via the MCP protocol. The model reads and interprets them - there is no execution layer that enforces compliance. Most items below follow from that.

  • Skills are instructions to the model, not enforced constraints - compliance is probabilistic. The skills were developed against Claude; other models comply with varying fidelity.
  • Long sessions degrade compliance - context pressure means trail entries may be skipped or compressed in very long runs.
  • Trail integrity is a practice, not a technical guarantee. The append-only convention is discipline; nothing prevents overwriting.
  • The framework proves the problem empirically (three independent papers) but argues rather than proves the solution - the prescription-evidence gap is real and named deliberately.
  • Scope is individual-practitioner delegation - not enterprise governance, multi-agent orchestration, or regulated industries.

Several of these constraints have structural solutions in active development: the llm-harness-proxy ↗ is an external proxy that intercepts LLM traffic and writes a hash-chained ledger before the response is released - making trail integrity a technical guarantee rather than a convention.

Principles of Earned Autonomy

Principle #1: Operator’s Intent ↗

“Define the destination. Never prescribe the route.”

Instructions limit autonomy; intent is a destination. Prescribe every step and the AI can only obey - it cannot adapt when something you did not plan for comes up. Give it the goal and the reason instead. The agent can reason around unexpected obstacles, and it stays on what you actually wanted rather than a literal reading of your steps.

Rooted in: Auftragstaktik, Toyota Coaching Kata, Socratic Method

Principle #2: Observable Autonomy ↗

“The degree of autonomy a system deserves is bounded by the degree of transparency it provides.”

Three independent fields each decided you cannot trust a party's own account of its actions. Security: the party that acts must not be the sole author of the account of its action - that requires two independent parties. Aviation: record everything to a crash-survivable device so the full history can be independently reconstructed after any incident. Science: the record of how a result was reached must be complete and transparent - a finding that cannot be inspected and checked is not knowledge, it is assertion. Three peer-reviewed papers then confirmed this applies specifically to AI: stated reasoning diverges from internal reasoning (Turpin et al.), self-correction without external feedback degrades performance (Huang et al.), and even reasoning-trained models don't reliably narrate their process (Chen et al.). All autonomous actions must be auditable - or revoked.

Rooted in: Saltzer & Schroeder, Flight Data Recorder, Reproducibility, Turpin et al., Huang et al., Chen et al.

Principle #3: Convergence Is Silence ↗

“Not done until multiple independent models find nothing to change.”

The exit condition of the improve loop. Three independent traditions arrive at the same definition of done: Kaizen ends the loop when diverse participants find nothing left to change; the Delphi Method requires independent expert rounds to converge; Reproducibility counts a result as knowledge only after independent parties re-derive it. That three unrelated fields reached the same definition is the argument for the principle.

Rooted in: Kaizen, Delphi Method, Reproducibility

Autonomous Reasoning Fidelity (ARF) ↗

The property that emerges when all three principles hold.

ARF measures whether the agent is reasoning genuinely - not just visibly. Transparency proves the reasoning is checkable; ARF proves it was real: that the agent reasoned differently when the situation materially demanded it, rather than applying the same template regardless of the specifics. Demonstrated reasoning quality is what earns autonomy; observable reasoning is how that quality is verified. It operationalizes the solution to the Reasoning Opacity Problem. Probe is the skill that tests for it.

Rooted in: Reasoning Opacity Problem, Turpin et al., Chen et al., Stanford AI Index 2026, EU AI Act

Intellectual lineage

Military doctrine, lean manufacturing, philosophy, the scientific method, aviation safety, and empirical AI research.

Conceptual traditions

Saltzer & Schroeder - Separation of Privilege (1975)

A mechanism requiring two independent parties is more robust than one that trusts a single key-holder. Observable Autonomy transfers this structure from access control to the epistemic record: the party that acts must not also be the sole author of the account of its action - no single act of self-narration should be sufficient to compromise the integrity of the trail. The principle is theirs; the transfer to an autonomous agent's reasoning record is what PEA adds.

Jerome H. Saltzer & Michael D. Schroeder · MIT, Proceedings of the IEEE 63(9), 1975

Applies in: Principle 2 - Observable Autonomy

Flight Data Recorder (the “black box”)

Record everything to a crash-survivable, tamper-resistant device, so that after any incident the full history can be independently reconstructed. The system is trusted because its actions are reviewable - not because they were assumed correct.

David Warren, ARL Australia, 1954 · mandatory in commercial aircraft since 1967

Applies in: Principle 2 - Observable Autonomy, Trail skill

Reproducibility (the scientific method)

A result counts as knowledge only after independent parties can re-derive it from a transparent record. Reasoning that cannot be reproduced and checked is not yet trustworthy - the same standard PEA holds an agent's work to. The independence criterion also governs the exit condition of Convergence Is Silence: the loop is done only when independent parties - different model families - each arrive at the same finding.

Robert Boyle, 17th century · Karl Popper, The Logic of Scientific Discovery, 1934

Applies in: Principle 2 - Observable Autonomy, Principle 3 - Convergence Is Silence, Trail skill

Toyota Production System (TPS)

Post-war Japan · Toyota Motor Corporation · Lean Enterprise Institute

Kaizen

Continuous improvement through small, structured increments - each change standardized before the next begins. Called the secret behind Japan's post-war industrial success. The Improve skill follows this structure directly: one highest-leverage change per run, logged and verified, then the loop restarts from the new baseline. Its natural exit condition - when diverse participants find nothing left to change - is what PEA formalises as Convergence Is Silence.

Applies in: Principle 3 - Convergence Is Silence, Improve skill

Kaikaku

Radical system-level restructuring when incremental improvement is no longer sufficient. Where Kaizen tightens within the current system, Kaikaku changes the system itself. In the Improve skill, this is the built-in "argue for redesign" mode: when the loop determines that incremental fixes cannot reach the destination, it stops and surfaces the structural argument instead of continuing to patch.

Applies in: Improve skill

Hansei

Honest self-reflection: before moving on, acknowledge what did not work and why. Without Hansei, iteration is repetition without learning. In the Improve skill, the Reflect step is the Hansei moment - a named blind spot, a falsifiable model-claim, an imagined critical reader pushing back on the findings. In Orient, the entire arc is a Hansei at scale.

Applies in: Improve skill, Orient skill

Toyota Coaching Kata

The coach defines the target condition. The learner discovers the path. The same shape as the operator-agent relationship. Rother derived the Kata by studying Toyota's improvement routines - it is not a TPS component, but the teaching framework that made the TPS improvement logic portable to other organisations.

Mike Rother, Toyota Kata · McGraw-Hill, 2009 · derived from observing TPS

Applies in: Principle 1 - Operator's Intent, Improve skill

Empirical basis

Three peer-reviewed studies establish why behavioral alignment alone cannot substitute for structural constraints, and why an audit trail the agent authors itself is insufficient. Two independent governance sources confirm that trail existence is now legally mandated, and that the field has no equivalent standard for measuring whether the reasoning in that trail is genuine.

EU AI Act - High-Risk AI Obligations

The world's first comprehensive AI legal framework mandates trail existence as binding law for high-risk AI systems, confirming that a traceable record is a legal precondition for trustworthy autonomy. It cannot mandate that the reasoning in that trail is genuine. A system can satisfy every logging obligation while producing post-hoc rationalization. That is the gap ARF measures.

Regulation (EU) 2024/1689 · European Parliament and Council · High-risk AI obligations effective August 2024

Applies in: Principle 2 - Observable Autonomy, Autonomous Reasoning Fidelity (ARF)

Stanford AI Index 2026 - Responsible AI Benchmarks

Almost all leading frontier AI model developers report results on capability benchmarks, but reporting on responsible AI benchmarks remains spotty. The field measures what AI can do precisely; it does not yet measure whether AI is reasoning about the specific situation - the property ARF is designed to test.

Stanford HAI · AI Index Report 2026 · Takeaway #5

Applies in: Autonomous Reasoning Fidelity (ARF)

What do you get when you combine these traditions?

Asked cold to AI systems from different model families - no context beyond the intellectual lineage above.

you get a self‑correcting, evidence‑driven, decentralized decision‑making system that continuously learns, audits itself, and improves through structured dialogue and distributed autonomy. Microsoft Copilot - May 2026
a self-improving, question-driven model of delegated action where authority is separated, learning is continuous, intent is interrogated, and every decision is reproducible and traceable like a black box. ChatGPT (GPT-5.4) - May 2026
Combining these traditions yields a framework for observable autonomy, where continuous, independent execution is driven by clear intent and questioning, while being structurally constrained by verifiable, immutable audit trails. Gemini 3.1 Pro - May 2026
A system where authority is delegated by intent rather than procedure, exercised only through independently verified conditions, continuously improved by structured questioning and small experiments, and made permanently accountable by a tamper-evident record that no single actor can rewrite - so that truth is what survives replication, not who held the pen. Claude Sonnet 4.6 - May 2026

On authorship

This page does not claim to have invented these principles. Auftragstaktik is 19th-century Prussian mission command. The Socratic Method is classical Greek philosophy. The Delphi Method comes from RAND in the 1950s. Kaizen, Kaikaku, and Hansei come from post-war Japanese industrial practice. Separation of privilege is a 1975 computer security principle. The empirical layer is peer-reviewed AI research from 2023-2025, plus two independent governance sources from 2024-2026.

What is original here is not any one ingredient. It is the synthesis and the target problem: these traditions were not written for autonomous software agents, but together they answer a newer question - how to delegate real work to an autonomous AI agent without surrendering structural accountability for the result.

That is why the page cites lineage throughout. The sources point back to originators, primary texts, and direct evidence where possible, and they predate the current wave of AI governance frameworks, including this one. The claim is not invention of any one ingredient. The claim is that this combination solves a new accountability problem - and defines one original concept within it: Autonomous Reasoning Fidelity (ARF). ARF names a property the field has no existing standard for measuring. The Stanford AI Index 2026 confirms the gap is real.