neoamorfic
Core Technology

QEIv15 Entropy-Physics Engine

The foundation of Physics Intelligence (PI), built on structural physics invariants—not statistical probability.

World-Model-Free Intelligence (WMFI)

NeoAmorfic systems operate without learned world simulators. Instead of training a model of reality, we measure reality through entropy-physics and structural invariants, then produce deployable judgments with explicit confidence, consistency auditing, and temporal coherence.

1) QEIv15™
Physics measurement (Φ, S/ΔS, κ, coherence/resonance, multiscale)
2) Deployable Intelligence Layer (DIL™)
Structural state, severity, trend, epistemic confidence, reason codes
3) Consistency Auditor
Cross-invariant coherence checks; confidence modulation under contradiction
4) Reflex Memory
Temporal coherence, transition tracking, hysteresis signaling
5) Outlook™ (Multi-horizon)
Constraint-based prediction: persistence, recovery likelihood, tail-risk activation

Institutional Proof: Auditability & Reproducibility

All PI outputs are schema-validated and audit-ready. Each run produces a reproducible core fingerprint (measurement_hash_core) over deterministic invariants, plus contextual evidence for operational traceability. Sensitive indicators (e.g., Lyapunov-style divergence) are treated as evidence, not as reproducibility anchors.

measurement_hash_coreconsistency_auditreflex_memoryoutlook.frames[]

Core Physics Invariants

Entropy (S) & ΔS

Structural disorder & flow

Deterministic multi-scale entropy and entropy-flow dynamics used to quantify regime stress, stability, and recovery behavior without training data.

Φ Integration

Structural integration invariant

Measures how tightly a system’s dynamics cohere as a structured whole—useful for detecting fragmentation, structural stress, and regime transitions.

Curvature (κ) & Stability

Stress geometry & structural change

Curvature expresses structural strain and local instability formation. Stability indicators support early warning under regime deformation and coherence breaks.

Supporting Metrics & Analysis Layers

  • multiscale entropy structures (MSE)
  • coherence & resonance analysis
  • cross-channel coupling analysis
  • phase-space / attractor geometry (where applicable)
  • consistency auditing & temporal coherence (DIL layer)

Input Requirement Note: QEIv15™ consumes time-series signals in standardized tabular form.

All integrated into a deterministic physics framework. The engine and derived technologies are protected under patent pending applications.

X-40 Structural Governance Layer

QEIv15 operates independently for deterministic analysis (e.g. EEG and climate structural metrics). X-40 extends that capability into production AI systems by enforcing governance policies over LLM and ML outputs.

X-40 returns a policy decision (ACCEPT / REQUIRE_VERIFICATION) using behavioral telemetry and a second evidence channel: QEIv15 structural anchors (Φ, κ, ΔS families) via ResearchCore. Where time-horizon claims matter, X-40 can optionally ingest DIL + Outlook frames as additional evidence—without making governance dependent on prediction.

The outcome is stronger operational safety: auditable evidence, deterministic envelopes, and reduced likelihood of incidents being shipped in production.

The PI Advantage Over Statistical AI

Deterministic & Auditable

Outputs are derived from structural invariants and can be inspected and challenged by domain experts with a reproducible core fingerprint.

Zero Training Required

PI does not require massive datasets. Physics invariants are universal across domains and regimes.

Resistant to Drift

Structural metrics remain meaningful under regime shifts, where purely statistical models often degrade.

Impacting Mission-Critical Domains

QEIv15 provides structural metrics for domains where “close enough” is costly: aerospace, finance, climate, neuro-structural dynamics, and industrial systems.