The Coherence Chain

Living systems host coherent electromagnetic modes at physiological temperature. This claim, once heterodox, has moved into mainstream biophysics over the past two decades, principally through the vindication of Fröhlich's 1968 argument by femtosecond spectroscopy of photosynthetic light-harvesting complexes. At the organismal scale, the same claim is supported by Fritz-Albert Popp's hyperbolic biophoton decay statistics — the specific mathematical fingerprint of a coherent field relaxing rather than of independent stochastic emitters, and one that living tissue exhibits with striking consistency across biological systems and laboratories. If biological coherence is real at the organismal scale, the question is what it couples to. This paper proposes that biological coherence is the terminal link in a physically well-characterised chain that begins at the phase-correlated ground state of the quantum vacuum, passes through the collective behaviour of the quark-gluon plasma and the tunnelling processes continuous between stellar nucleosynthesis and cellular energy transduction, expresses itself at the cellular boundary through structured water and biological liquid crystallinity, and is fed from above by the electromagnetic environment of Earth's biosphere — an environment structured by Schumann resonances, the magnetosphere, the heliospheric current sheet, and ultimately the galactic current sheet. The chain is traced link by link. Its convergence point is the cardiac torus: Torrent-Guasp's helical ventricular myocardial band — whose Möbius-strip topology and laminar-sheet architecture concentrate a piezoelectric response in the collagen matrix between fibre laminae — generates, under the torsional loading of each heartbeat, a measured toroidal electromagnetic field that couples through the fascial liquid-crystalline network and, on the proposal advanced here, functions as a whole-body coherence conductor. If both ends of the chain are pointing at the same substrate, they should carry the same signature. The paper's central falsifiable claim is that biophoton coherence parameters — specifically those characterising Popp's hyperbolic decay — should exhibit sidereal periodicities matching those Simon Shnoll has documented over seven decades in independent physical processes. The prediction is specified in measurable form, the experimental protocol is sketched, and three distinct falsification outcomes are named with their consequences for the framework. The prediction requires no interpretive commitments beyond what the chain proposes; a working experimentalist can run it without accepting the paper's broader framing. Programmatic frontier items — coherent ocular biophoton emission, cerebellar architecture as candidate resonator, torsion field measurements, Birkeland currents in a biological role, neutrino coupling as candidate channel — are noted honestly as directions the framework opens without being load-bearing for the central prediction. The paper is a mechanism proposal with a specific spine: the chain, the convergence node, the bridge test. Its contribution stands or falls on the coherence of the chain as traced and the empirical outcome of the sidereal-biophoton bridge experiment.