The Time‑Corridor Formulation
I. Constants and Laws
• Sing Constant
Defines the total corridor span of existence — the ratio between every maximum and minimum allowed state in reality.
• Gradient Constant
Sets the geometric slope that links each corridor to the next — density, macro, quantum, foam and unity.
• Corridor Law
Every measurable quantity expands between its Sing limits following this pure exponential grammar.
• Time‑Progress Variable
II. Independent Corridors — The Core‑8 with Foam
Eight irreducible slope channels form the OPS lattice of reality.
- ρ (γ = 1) → density anchor.
- {L, M, E, T, v, Θ} (γ = 1/2) → macro corridor.
- Q (γ = 1/4) → quantum layer.
- F (γ = 1/8) → sub‑quantum foam.
No extra dimensions — all else is a transient echo within the foam.
III. Time‑Corridor Law (formerly Dark‑Energy Law)
1️⃣ Canonical (Geometric) Form — Timeless ORT Expression
This ratio shows how much of the total OPS‑corridor slope is carried by time among the eight fundamental corridors. It depends only on the geometry of existence — no forces, no parameters, no tuning — pure ORT symmetry.
2️⃣ Dynamical (Observable) Form — With Phantom Multiplicities
When the OPS lattice still hosts unresolved multiplicities — the phantoms of early reality — the effective number of active channels becomes:
The observable share is then
IV. Numerical Anchors (Fixed Epochs)
- Early epochs: K_eff ≈ 10^3–10^4 → f_t ≈ 0 → Phantom‑dominated, CMB safe.
- Present: K_eff = 8 → f_t ≈ 0.68 → Perfect observational match.
- Future: K_eff = 8 (stable Core‑8) → f_t → 1 as t → t_max.
V. The Time‑Corridor Law — Once Called Dark Energy
Core‑8 corridors: { ρ, L, M, E, T, v, Q, F } · Sing Constant 𝓢 = 2^410.
Early phantom multiplicities kept F_t^{obs} ≈ 0 before recombination. As the lattice collapsed to Core‑8, the universe entered its modern slope: f_t(t) ≈ 0.68.
No borrowing. No modification. No tuning. Pure ORT.
Interactive Explorer
Play with cosmic time and phantom multiplicities. This tool computes y(t), the canonical share f_t, and the observable share F_t^{obs}.

