γp(μ) — anomalous dimensions and activity
Canonical formula (T6): γp = 4·qp−1·(1−δp) ÷ (μ·δp·(2−δp)) with q = 1 − 2/μ and δp = (1−qp)/p. A prime is active if γp > s = 1/2.
| p | δp | γp | status |
|---|
Standard · direct manipulation
Three interactive tools let the reader manipulate the arithmetic cascade of the sieve in the browser: anomalous dimensions, branch holonomies and the bare-to-dressed reading of α_EM.
The goal is not to replace the companion scripts, but to make the formulas legible: move μ, change p, observe when a prime becomes active, and see how q+ and q− carry two distinct readings.
Canonical formula (T6): γp = 4·qp−1·(1−δp) ÷ (μ·δp·(2−δp)) with q = 1 − 2/μ and δp = (1−qp)/p. A prime is active if γp > s = 1/2.
| p | δp | γp | status |
|---|
Algebraic identity (T6): sin²(θp) = δp·(2 − δp). Branch q+ = 1 − 2/μ (couplings, leptons, αEM); branch q− = e−1/μ (geometry, quarks, CKM).
Computed at μ* = 15, branch q+. The BA5 product αbare = ∏ sin²θp over {3, 5, 7} gives 1/136.28. Dressing through the binary channel p = 2 closes the gap to 1/137.036.
PT — CODATA gap: 0.004 ppb. Zero parameters fitted at any step. For the feedback spiral and echo terms, see monograph chapter 10.
Want more depth? Theorem T6 (holonomy), T5 (fixed point), essay on αEM, verification scripts.