A single mathematical spine — the Shannon → Von Neumann → Riemannian entropy hierarchy — producing validated predictions across multiple maximally distant domains. When it works on materials AND disease dynamics AND dynamical systems, the "overfitting" dismissal fails.
Every H² result traces to a single insight: entropy is not one thing — it's a hierarchy. Each level embeds the previous, and each embedding adds predictive power.
This is not metaphor. Von Neumann named Shannon's quantity "entropy." The Koopman-von Neumann formalism (1931) lifts classical dynamics into Hilbert space. MDL (Rissanen 1978) selects the shortest description. The hierarchy is real, testable, and computationally exploitable.
| Domain | The Challenge | H² Solution | Result |
|---|---|---|---|
| Disease Dynamics | Classify disease mechanisms from trajectories | DSO κ classification | Perfect classification across archetypes |
| Quantum Computing | Prevent false syndrome detection | Dwell-time hysteresis filter | Order-of-magnitude improvement (hardware) |
| Materials Science | Predict phase transitions without simulation | Information-theoretic classification | High accuracy, orders-of-magnitude speedup |
| Climate Detection | Distinguish tipping points from noise | Entropy-gradient thresholding | AMOC complexity-drop validated |
| Dynamical Systems | Early warning for critical transitions | Koopman channel asymmetry δ | Strong discrimination, cross-domain transfer |
The same entropy hierarchy predicts phase transitions in steel, false alarms in ICU monitors, tipping points in climate systems, and disease dynamics classification. If a single framework works across maximally distant domains, the framework is measuring something real.
Each domain application is protected by patent filings. The core mathematical framework is held as trade secret; domain-specific implementations are patent-backed.
Hardware-validated on IBM Quantum. Multi-threshold dwell-time hysteresis reduces false syndrome triggers.
Orders-of-magnitude speedup vs DFT simulation. Early warning for thermal runaway and dendrite formation.
Hallucination reduction via entropy-guided optimization. Music analysis using thermodynamic feature extraction.
Tipping point detection via entropy gradients. Geophysical inversion for subsurface imaging.
Danger Theory–inspired immune state estimation. Psychoneuroimmunology for mental health early warning.
Biomimetic apoptosis defense. Deepfake detection via entropy inversion signatures.
Every result in this portfolio follows strict scientific integrity rules:
Seeking collaborators in applied category theory, information geometry, formal mathematics, and cross-domain validation. Open to academic partnerships, licensing discussions, and adversarial review.
ken@kenmendoza.com