Formulates binding energy as the stabilisation of recursive field closure, where coherence density minimises boundary curvature under constraint.

Models radioactive decay as a loss of boundary coherence arising from internal gradient amplification beyond structural stability limits.

Derives emission spectra as quantised boundary-state transitions governed by discrete coherence curvature realignment.

Interprets neutrino oscillation as phase evolution across weakly interacting coherence manifolds under minimal curvature coupling.

Re-derives spin–statistics relations from symmetry-preserving coherence topology within constrained boundary configurations.

Proposes mass generation as resonance-induced coherence density stabilisation, eliminating the need for scalar vacuum field postulates.

Frames cosmological expansion as large-scale coherence redistribution driven by evolving boundary tension gradients.

Models dark energy as macroscopic coherence relaxation resulting from curvature imbalance across cosmological boundaries.

Explains background radiation uniformity through persistent long-range coherence coupling established during early boundary formation.

Interprets the Chandrasekhar limit as a degeneracy-bound coherence compression threshold within extreme density regimes.

Describes galactic structure as resonance-stabilised equilibrium within rotating large-scale coherence curvature fields.

Reconstructs conservation laws as invariants emerging from continuous symmetry transformations of coherent field systems.

Demonstrates classical behaviour as the asymptotic large-scale limit of recursively averaged coherence dynamics.

Defines superposition as linear admissibility among concurrently valid coherence field configurations.

Shows discrete spectra and continuous dynamics to be dual manifestations of finite boundary encoding constraints.

Synthesises quantum, relativistic, thermodynamic, and cosmological regimes within a unified recursive coherence formalism.

Formalises electrostatic interaction as inverse-square coherence gradient propagation across radially symmetric boundary curvature fields.

Reconstructs Gauss’s law as closed-surface coherence flux conservation over bounded geometric manifolds.

Derives electromagnetic induction as temporally varying boundary flux generating rotational coherence circulation.

Defines induced current opposition as negative-feedback stabilisation within recursive electromagnetic coherence loops.

Formulates Maxwell’s equations as a self-consistent, Lorentz-invariant recursive coherence field system.

Models Lorentz dynamics as coherence trajectory deflection under coupled electric–magnetic curvature tensors.

Interprets electromagnetic energy transport as directed coherence flux within orthogonal field topology.

Re-derives thermodynamic laws as coherence equilibrium constraints and entropy-gradient invariants across interacting boundaries.

Formalises work and heat as dual coherence transfer modes distinguished by ordered versus dispersive boundary exchange.

Models finite-time thermodynamic cycles as non-reversible coherence loops subject to gradient dissipation.

Derives Carnot efficiency as maximal coherence preservation under reversible boundary transformation constraints.

Defines entropy as statistical divergence of boundary-encoded coherence distributions.

Derives equilibrium distributions as extremal solutions of constrained coherence occupancy in quantised state spaces.

Interprets equipartition as isotropic coherence allocation across accessible degrees of freedom in phase topology.

Formulates fluid continuity and Bernoulli relations as conservation of coherence density along streamline manifolds.

Models hydrostatic transmission and buoyancy as coherence redistribution under static boundary constraints.

Characterises laminar viscous flow as shear-dependent coherence dissipation proportional to boundary friction gradients.

Defines turbulence as nonlinear coherence fragmentation emerging from recursive boundary instability and scale coupling.

Reformulates gravitation as curvature-induced boundary stress arising from coherence density gradients within distributed mass–energy fields.

Derives Keplerian motion as recursive orbital feedback under conserved angular coherence and inverse-square curvature flow.

Models centripetal dynamics as coherence curvature stabilisation maintaining bounded trajectory equilibrium.

Reinterprets the virial theorem as long-term coherence balance between kinetic dispersion and boundary curvature confinement.

Defines escape velocity as the threshold condition where kinetic coherence exceeds gravitational boundary containment.

Defines inertia as coherence persistence under zero net boundary gradient within an isolated reference manifold.

Formalises force as the temporal rate of coherence momentum redistribution across constrained boundaries.

Models action–reaction symmetry as reciprocal coherence exchange preserving boundary momentum balance.

Derives momentum conservation as translational invariance of coherence distribution within closed systems.

Reconstructs energy conservation as invariant total coherence under internal boundary transformation.

Interprets the work–energy relation as equivalence between directed coherence transfer and kinetic redistribution.

Formulates torque as angular coherence gradient inducing rotational curvature realignment.

Derives angular momentum invariance from rotational symmetry of closed coherence manifolds.

Models moment of inertia as distributed rotational coherence density relative to shifted boundary axes.

Defines simple harmonic motion as periodic coherence exchange within a restoring curvature potential.

Derives refraction and reflection as boundary phase realignment governed by coherence velocity discontinuities.

Formulates diffraction as distributed wavefront reconstruction via secondary coherence source superposition.

Models interference as phase-coherent superposition yielding spatially structured amplitude modulation.

Interprets Doppler shift and beats as relative coherence frequency modulation under frame-dependent motion.

Reconstructs polarisation filtering as projection of coherence orientation onto constrained boundary axes.

Defines uncertainty as a finite boundary phase-resolution constraint within conjugate coherence variables.

Formulates quantum evolution as unitary coherence propagation across complex probability manifolds.

Derives exclusion as antisymmetric coherence topology enforcing non-overlapping state occupancy.

Interprets matter-wave duality as reciprocal coherence feedback between phase wavelength and momentum density.

Models tunnelling as exponential coherence penetration across finite curvature potential barriers.

Reconstructs probabilistic measurement as boundary-constrained coherence projection under observational coupling.

Derives Lorentz transformations as invariance-preserving mappings of coherence structure between inertial frames.

Interprets relativistic dilation and contraction as frame-dependent coherence density redistribution.

Formulates mass–energy equivalence as convertible coherence density under relativistic boundary compression.

Models inertial–gravitational equivalence as indistinguishable coherence response to acceleration and curvature gradients.

Reconstructs general relativity as large-scale coherence curvature dynamics within boundary-encoded spacetime manifolds.

Derives Shapiro delay and light bending as phase-shift accumulation along curved coherence trajectories.