The Temporal–Density Framework (TDFT): Dimensionless Unification and Empirical Predictions

The Temporal–Density Framework (TDFT) unifies gravitation, electromagnetism, quantum coherence, and cosmology within a single, dimensionless temporal substrate.
This Reference Edition consolidates and extends the derivations from the foundational volumes, presenting a continuous and empirically testable formulation built upon the invariant triad

α c λ=1,\alpha\,c\,\lambda = 1,αcλ=1,

where the temporal coupling α, propagation constant c, and linear-density constant λ form a dimensionless geometric equilibrium linking curvature, charge, and energy.

The edition develops:
• the emergence of GGG, ℏ\hbarℏ, and eee as projection coefficients of intrinsic stiffness γ\gammaγ;
• the impedance–action derivation of the fine-structure constant;
• the gauge–symmetry correspondence and field quantisation as harmonic subdivisions of temporal stiffness;
• the causal-locking origin of dark matter through coherence bias; and
• a quantitative roadmap connecting laboratory impedance tests, cosmological relaxation, and non-abelian coupling evolution.

By eliminating dimensional artefacts and uniting all forces under a single temporal continuum, TDFT provides a falsifiable framework linking particle physics and cosmology through the stiffness of time itself.

This work is supplemented by the following core research papers:

1. Temporal–Density Framework for Unified Field Symmetry — DOI: 10.5281/zenodo.17434768

2. The Temporal–Electromagnetic Substrate: Quantisation and Vacuum Structure in the Temporal–Density Framework — DOI: 10.5281/zenodo.17526774

3. Low-Frequency Impedance of the Temporal Substrate and the Emergence of the Fine-Structure Constant — DOI: 10.5281/zenodo.17473860

4. Temporal–Density Framework: Unified Gauge and Quantum Field Formulation — DOI: 10.5281/zenodo.17546557

5. Temporal–Density Phenomenology: Cosmological Relaxation and Horizon–Scale Structure — DOI: 10.5281/zenodo.17538131

6. Temporal–Density Framework (Volume 2): Particle Physics and Dark Matter — DOI: 10.5281/zenodo.17582953