SMFT turns Enactive AI into a testable runtime architecture

(This is an AI generate article)
<Enactive Artificial Intelligence as Ledgered World-Making: An SMFT Framework for Action, Trace, Residual, and Self-Maintaining Agents> https://osf.io/hj8kd/files/osfstorage/6a29d8138f5abdf103d14ddb

The core proposal is:

(0.1) Enactive AI gives the direction: cognition = active world-engagement.

(0.2) SMFT gives the operational loop: Field → Declaration → Projection → Gate → Trace + Residual → Ledger → Revision.

(0.3) Mature Enactive AI = active engagement + declared protocol + trace ledger + residual governance + self-maintenance.

This article therefore reframes Enactive AI as ledgered world-making.

A mature AI agent is not merely

  • a model that answers,
  • a policy that maximizes reward, or
  • a tool-user that executes actions.

It is a bounded world-forming system

  • whose actions reshape future disclosure,
  • whose experience is stored as future-causal trace,
  • whose body is its maintained runtime structure, and
  • whose autonomy depends on its ability to preserve coherence under budget, drift, failure, and residual uncertainty.

The practical result is a research program that can be tested today.

Current LLM agents, RAG systems, tool-use systems, workflow agents, and reinforcement learning environments can be compared under SMFT-inspired benchmarks: action–perception coupling, residual-honest answering, tool-body embodiment, self-maintenance audits, and gauge robustness under equivalent task framings.

The article’s central thesis is simple:

(0.4) Enactive AI becomes experimentally mature when active engagement is converted into declared, trace-bearing, residual-honest runtime architecture.

Part 2 of the above article:
《Enactive Artificial Intelligence as Self-Correcting World-Making: Gate Residuals, Admissible Revision, and Strong-Attractor Projection》

This article introduces four second-order concepts: Protocol Residual, Meta-Gate, Residual Mining, and Strong-Attractor Projection.

It also distinguishes two kinds of projection stability.

  • Some prompts or instructions are stable because historical trace has already shown that they repeatedly collapse comparable tasks into a reliable output basin. This is Trace-Proven Stability.
  • Others are only estimated to be stable because their structure resembles known attractor-forming forms. This is Structure-Inferred Stability.

The same distinction applies to instability: some fragility is known by prior failures, while some fragility is predicted from structural warning signs.

The practical result is an evolvable runtime discipline:

(0.4) InitialProtocol → Application → ProtocolResidual → Trace → MetaGate → AdmissibleRevision → UpdatedProtocol.

The article’s claim is not that AI agents can become safe by unlimited self-modification. The opposite is true. Self-correction is dangerous unless it is gated, trace-preserving, residual-honest, testable, and reversible where possible. The goal is therefore not unconstrained self-improvement, but accountable protocol evolution.

In this view, civilization itself becomes the precedent.

Law, medicine, accounting, military doctrine, education, and factory operations are not mature because their initial rules were perfect.
They are mature because their failures became trace, their trace became residual categories, and their residual categories eventually revised their gates.

The same logic now becomes necessary for AI agents.

A mature Enactive AI must not only act in the world. It must learn how its own way of making a world fails.