Physics

Explores large-scale structure, emergence, and recursive stability across interacting systems.
From galactic formation to universal dynamics, coherence is examined at maximal scale.

Reframes expansion, dark matter, and cosmic structure as expressions of global boundary coherence.
Cosmology becomes the study of universal stability constraints.

Establishes the foundational rules beneath physical law itself — boundary formation, coherence conservation, recursion, and the structural invariants required for a stable universe.

Interprets fields, charge, and energy transfer as distributed coherence geometries.
Electromagnetic and field behaviour emerge from structured boundary gradients.

Examines heat, entropy, and irreversibility as coherence dispersion and gradient minimisation.
Thermodynamics becomes structural geometry in motion.

Unifies mechanics and fluid dynamics through coherence transmission in material media.
Force, pressure, and turbulence arise from boundary constraint flow.

Reinterprets gravity and orbital motion as curvature-driven coherence redistribution.
Stable trajectories emerge from recursive boundary minimisation.

Revisits Newtonian principles through coherence persistence.
Inertia and acceleration become expressions of stability and constraint realignment.

Explores wave propagation, interference, and light as structured coherence oscillation.
Optical phenomena arise from phase-aligned boundary systems.

Examines superposition, entanglement, and measurement as boundary-scale coherence dynamics.
Quantum behaviour emerges from minimal geometric constraints.

Interprets spacetime curvature and relativistic effects
As coherence density redistribution across large-scale boundary structures.