Rigorous analytic number theory and approximation theory for the Amundson sequence
and the associated constant
-
Hausdorff moment representation of the sequence
$q_n = (n/(n+1))^n$ - Explicit compound-Poisson / Lévy representation with jump density $$ k(x) = \int_0^1 t e^{-tx}, dt = \frac{1-(1+x)e^{-x}}{x^2} $$
- Power-tilt closure and exact logarithmic cumulants of the tilted measure
- Fibre Gram matrices and the Family-D orbit identity
- Theorem C0: Endpoint Christoffel growth $$ K_d^\nu(0,0) \asymp d^2 (\log d)^2 $$
section6/— Frozen §6 (Moving-Power Hausdorff Measure)theorem-c0/— Theorem C0 + corollaries on endpoint Christoffel asymptoticsopen-problems/— Problems A–F and the research queuenotes/— Technical notes, prettier formulations, and priority discipline
§6 is frozen.
Theorem C0 is proved modulo the standard doubling-weight Christoffel theorem (priority of the concrete application under audit).
- Classical inputs (Hausdorff theorem, compound-Poisson transforms, doubling Christoffel estimates) are clearly tagged.
- No novelty claims are made for statements whose prior status has not been independently audited.
- Rationality/irrationality of
$A_G$ remains open.
BlackRoad OS / Amundson Mathematical Framework — rigorous core only.