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March 26, 20260 citationsOpen Access

A computer-assisted well-founded descent for Collatz components under dyadic leaf certificates in the 6-bit hierarchy Mt = 9 · 214+6t

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JRJulian REDERO

Key Points

  • The main aim is to develop a descent scheme that analyzes the Collatz map's components, focusing on odd integers.
  • Construct a component-wise descent scheme based on the odd accelerated map.
  • Use dyadic leaf certificates for organization under the 6-bit hierarchy.
  • Verify the findings through exact integer arithmetic with deterministic methods.
  • Establish that every positive integer converges to the cycle (1, 2, 4).
  • Demonstrate that the descent condition holds for all elements within the connected component.

Abstract

AbstractWe present a component-wise descent scheme for the Collatz map based onthe odd accelerated map and an anti-9 lift that sends every odd non-multiple of 3to an odd multiple of 3 in the same connected component of the Collatz graph.The core step is a well-founded descent on the odd parameter u associated withodd multiples 3u: for every odd u > 1, we construct a strictly smaller odd integeru∗ < usuch that 3u and 3u∗ belong to the same connected component. The descentis analytic in the regimee(u) := v2(9u +1) ≥ 7,and is discharged in the complementary regime e(u) ≤ 6 by a finite family of dyadicleaf certificates. The finite regime is organized through the 6-bit hierarchyMt =9·214+6t,whose role is to preserve the relevant 2-adic residue control under refinement. Thecertificate tables at scale M = 9 · 220 are checked by a deterministic verifier usingexact integer arithmetic. A new uniformity lemma (Lemma 8.1) proves analyticallythat the descent condition w(yk) < u holds for every element of the leaf, not merelyfor the tested representative; this closes the gap between finite verification anduniform validity on the whole class. Combined with strong induction, this yieldsconvergence of every positive integer to the cycle (1,2,4)

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Cite This Study

Julian REDERO (2026) studied this question.

synapsesocial.com/papers/69c4cda5fdc3bde44891a43chttps://doi.org/10.5281/zenodo.19203431
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