01 · QUANTUM LEVEL
Diffusion Quantum Mechanics
A fluctuating classical background scalar field produces conservative diffusion of a particle ensemble. In the homogeneous limit, ordinary quantum mechanics and quantum statistics are recovered.
CTPA · INTEGRATED PICTURE
CTPA Fundamental Picture
How the main CTPA theories and results connect into one sequence: from a physical mechanism for quantum fluctuations to gravity, relativistic quantum time symmetry and finite loop physics at the Planck scale.
This page does not introduce another separate theory. It maps the relations among the CTPA approaches already presented on KOINOT.
02 · GRAVITY
Diffusion Gravity
Matter makes the same background field inhomogeneous. Thermodiffusion produces universal acceleration, while metric, connection and curvature become an effective geometrical description.
03 · RELATIVISTIC QUANTUM LEVEL
Time-symmetric relativistic quantum theory
Both energy branches E>0 and E<0 are retained, together with full Lorentz symmetry including time inversion and two quantum-state sectors.
04 · PLANCK BOUNDARY
Gravitational self-regularization
As the total physical energy of the particle system approaches the Planck scale, the intermediate state’s own external gravitational field causes gravitational freezing and a physical loop cutoff of order M_P.
Connecting principles
One physical chainQuantum and gravitational phenomena are treated as connected levels rather than unrelated postulates.
No trans-Planckian continuationThe physical quantum domain ends at the Planck scale; loop integration is not continued to infinite energy.
Empirical basis firstKOINOT separates common observations from the standard interpretation and from the CTPA interpretation.
Consequences and applications
Relativistic collapse
Strong-field gravitational freezing is applied to collapse of stars and galactic nuclei, leading to frozars in the CTPA program.
Cosmological redshift
Diffusion Gravity is used to analyze local proper-time rates and to decompose the observed frequency shift.
Quantum loops
The Planck-scale gravitational cutoff makes loop contributions finite; below M_P observable parameters are finite combinations of bare quantities and finite corrections.
Scientific status. This is an integrated CTPA research program. Its nonstandard elements are not current mainstream consensus, so KOINOT presents them alongside the standard view and distinguishes fact, theory, interpretation and prediction.