The Framework
All physiological systems — cardiovascular, neural, metabolic — emerge from a single axiom about how bounded systems partition their state space.
The partition capacity function C(n) counts the number of distinguishable categorical states at depth level n. This quadratic form arises from spherical symmetry constraints in bounded phase space, yielding the sequence (2, 8, 18, 32, 50, ...). From this single function, we derive all subsequent structures: entropy, coherence, coupling, and dynamics.
S-Entropy Coordinates
Every physiological state maps to a point in the S-entropy cube (Sₖ, Sₜ, Sₑ) ∈ [0,1]³.
Knowledge Depth
How much of the partition hierarchy is being explored. High S_k indicates deep, complex state space traversal.
Temporal Integration
Position in the circadian-ultradian temporal hierarchy. Encodes time-scale coherence and phase relationships.
Entropy Utilisation
Fraction of available partition capacity being used. Low S_e indicates either rigid lock-in or active decoupling.
Partition Regimes
The Kuramoto order parameter R classifies physiological states into five regimes, each with distinct dynamics and clinical meaning.
Phase-Locked
R > 0.95- ◆Deep sleep cardiac
- ◆Pathological rigidity (CHF)
- ◆Loss of complexity
Coherent
0.80 - 0.95- ◆Normal sinus rhythm
- ◆Awake resting state
- ◆Coupled oscillators
Cascade
0.50 - 0.80- ◆Light sleep transitions
- ◆Exercise recovery
- ◆Moderate variability
Aperture
0.30 - 0.50- ◆Ventricular tachycardia
- ◆High autonomic flux
- ◆Transitional states
Turbulent
R < 0.30- ◆Atrial fibrillation (R=0.170)
- ◆Bigeminy (R=0.018)
- ◆Maximal desynchronisation
Derivation Chain
Starting from C(n) = 2n², each physiological law is derived — not assumed — through a chain of mathematical consequences.
Partition Entropy
Kuramoto Order Parameter
Cardiac Equations of State
Frank-Starling & Windkessel
Cardiac-Neural Coupling
Metabolic Integration
Key Discoveries
Predictions confirmed and revised through empirical validation against PhysioNet databases and 86 nights of wearable sensor data.
CHF Paradox Resolved
CONFIRMEDCongestive heart failure shows HIGHER R_c (0.797) than normal sinus rhythm (0.710) — pathological phase-locking, not loss of coherence. Distinguished by low entropy utilisation S_e (Theorem 11: Two Failure Modes).
REM Active Decoupling
DISCOVEREDDuring REM sleep, the cardiac-neural gap reaches 0.375 — the largest of any stage. The cardiac system maintains coherent delivery while the neural system explores turbulent-to-cascade states (Corollary 8).
Light Sleep Highest RMSSD
NEW FINDINGLight sleep (N2) exhibits the highest RMSSD (65.8 ms), exceeding REM (61.0 ms) and Deep (51.8 ms). Attributable to K-complex and spindle-driven episodic autonomic bursts.
Bigeminy Reclassified
REVISEDInitially predicted as aperture regime. Empirical R_c = 0.018 (deep turbulent) — the alternating N-V-N-V pattern maximally anti-correlates successive RR intervals, collapsing coherence below atrial fibrillation.
AFIB Regime Confirmed
CONFIRMEDAtrial fibrillation R_c = 0.170, firmly turbulent. 78.8% epoch classification accuracy. Cohen's d = 33.2 vs normal sinus rhythm. The strongest single validation of the regime boundary framework.
Coupling Formula Validated
CONFIRMEDThe cardiac-neural coupling formula R_n/R_c = 0.87/sqrt(R_c) shows best fit during N1/N2 sleep (error = 0.011) and breaks down during REM (error = 0.308), exactly as predicted.