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Demonstrates the depth function dynamics in the Collatzogin Tree, indicating new insights on residue transitions and cycles.
This paper builds on the structural framework of the Collatzogin Tree (Paper 1) and develops the Tree Level Descent analysis. We organize Collatz dynamics into a hierarchy of residue levels modulo powers of two. Our main contributions are: Depth Function: We introduce D = E - Olog₂(3), where E is the number of halving steps and O is the number of odd steps, and prove that: (a) The 3 4 regime is the only source of negative drift in the depth function; (b) D > 0 descent (Terras' Criterion). 2-adic Accumulation Lemma: We prove that the length of consecutive 3 4 blocks is bounded: s ≤ log₂(a+1). Residue Dynamics: We prove the complete transition table modulo 4: (a) 0, 2 4 → smaller odd number; (b) 1 4 → 0 4; (c) 3 4 → 2 4; (d) Every 3 4 eventually reaches 1 4. No Non-Trivial Cycles: We prove there are no non-trivial cycles using the irrationality of log₂ 3. Equivalence to Collatz: We prove that the Collatz conjecture is equivalent to the Global Depth Conjecture: forall n ∈ Z>0,\; limt → ∞ D(t) = +∞. Scope: This paper provides the dynamical tools needed for the complete proof in Paper 3. The final step---proving that every 1 4 number reaches the Golden Path---is addressed in Paper 3.
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Ogin Sugianto (2026) studied this question.
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