τ-COSMOLOGY RESEARCH PORTAL
A New Framework Where Cosmic Time Emerges From Quantum Information
Cosmic time is not uniform. A fundamental field τ(z) governs physical processes, revealing two quantum operators: Information Growth (m_b ≈ ln 2) and Geometric Constraint (m_p = 2/3).
(See calculator for full visualization)
T_H = ħc³/(8πGk_B) × |d(S_b-S_p)/da|
Horizon: S_b(a_h) = S_p(a_h) → a_h = 0.60461/0.063 ≈ 0.00034 (z≈2942)
What we measure as "cosmic time" through light is actually τ-time, not uniform t-time. The conversion between frames explains cosmological tensions.
d_L(z) = (1+z) ∫₀^z dz'/H(z')
d_L(z) = (1+z)[∫_{z_trans}^z dz'/H(z') - ∫_z^{z_trans} dz'/H(z')]
The mathematically consistent theory linking quantum information complexity to cosmic time coupling.
H₀(α) = 67.4 × 0.732 × α-0.4
| Process | α_P | H₀ (km/s/Mpc) | Meaning |
|---|---|---|---|
| CMB Photons | 1.000 | 49.3 (τ-frame) | Perfect time detector |
| BAO | 0.367 | 73.0 | Matches local measurement |
| SNe Ia | 0.730 | 56.0 | Requires frame conversion |
| B-Meson Decay | ~0.65 | 58.6 | Explains anomalies |
H₀(α=1.0) = 67.4 × 0.732 × 1.0 = 67.4 km/s/Mpc
This constraint reveals a critical insight: to maintain consistency, the sound horizon must be different in τ-theory.
r_d(τ-theory) ≈ 147 Mpc / 1.92 ≈ 76.6 Mpc
τ-Quantum Cosmology unifies cosmology, quantum information, black holes, and particle physics.
Cosmic time τ(z) emerges from competition between S_b (information growth) and S_p (geometric constraint).
S_b = a^0.730 | S_p = 0.6046·a^0.667
d(S_b-S_p)/da = 0.730·a^(-0.270) - 0.6046·0.667·a^(-0.333)