Path to a Teleodynamic controller

Defines the concrete state, fast/slow loops, resource lanes, candidate actions, no-op semantics, traces, phase criteria, and falsification needed beyond ordinary routing.

Experimental
Last verified
2026-06-25 00:00 UTC
Updated
Reading time
2 minutes

Defines the concrete state, fast/slow loops, resource lanes, candidate actions, no-op semantics, traces, phase criteria, and falsification needed beyond ordinary routing.

Implementation evidence: this topic is grounded in the reviewed GGUF.MiRust.com source snapshot. It documents observed code and artifacts without claiming broad deployment, model quality, or production readiness.

State

A practical controller should separate current module structure H, trainable or adaptive parameters θ, endogenous resource state E, and trajectory τ. In an inference-first browser runtime, H can be the active module graph and θ can initially be router/adaptation parameters rather than base weights.

Fast loop

Route a request, execute bounded modules, measure result quality proxies and actual resource use, update short-lived confidence/state, and return output.

Slow loop

Periodically evaluate structural candidates: activate, deactivate, replace, reserve, merge compatible roles, split an overloaded role, retire, or no-op.

Resource lanes

  • Resident memory and cache quota.
  • Latency and UI responsiveness.
  • Energy/thermal proxy where measurable without invasive fingerprinting.
  • Uncertainty and error rate.
  • Governance/review burden.
Candidate structural score
V(a) = expected task benefit
     - memory cost
     - latency cost
     - uncertainty cost
     - governance cost

No-op

No-op must be an explicit candidate with a reason code. It wins when no affordable action exceeds the improvement threshold. A hard memory guard or timeout alone is not emergent halt.

Falsification

Compare against fixed routing, random activation, cost-only pruning, and externally scheduled growth. Publish phase criteria and traces that could show the claimed Teleodynamic behavior is absent.

Scope

This starter page defines the questions, boundaries, evidence, and failure modes that should be recorded before a capability is presented as supported.

Engineering considerations

  • Identify the source, version, target environment, and owner.
  • Separate observed values from estimates and externally reported values.
  • Record trade-offs, unsupported cases, and fallback behavior.
  • Link performance statements to a compatible benchmark methodology.

Verification questions

  • What exact artifact, revision, backend, and environment were reviewed?
  • Which assumptions could change the result?
  • Which data should be retained so another engineer can reproduce the conclusion?