Collatz/Bařina a+b conjecture proofs by 16/64: Cayley a+b tree not Cantor-Gödel-Conway-Wolfram undecidable
arXiv:2008.13643
Abstract
Lothar Collatz considered biperiodic iterations, and conjectured that picturing iterations for odd numbers and for even numbers, and proving that all natural numbers have a root path to the `trivial' cyclic root , would connect elementary graph theory and number theory. John H. Conway replied that a+b conjectures, except 1+1, are undecidable due to a-periodic even nn+b successors. Biperiodic a+b conjectures give disproofs of undecidability by Cantor diagonals, Gödel numbers, Conway unpredictability, and Wolfram irreducibility. The Cayley tree of Collatz-Conway nn+b numbers paired with Cantor binary tree numbers is the tree with its cyclic root paired with and arrows (dges) to wondrously ordered same-colour arrowhead nodes nn+b (ertices) with same-numbered upwardly open sites above (suraces), paired with well-ordered root paths , projecting to the Cartesian -axis well-ordered sites , paired with wondrously ordered root paths . Tree transforms into the integer Cartesian upper half graph , providing a Hamiltonian tour from and back to the root at its origin . The infinite Turing-Leibniz tape of proven conjectures shows Turing-computable roots and -expressible lowest trunk nodes , 'cotree density' Hamiltonian tour proofs, and 'root-trunk' proofs . The -roots generate also proven Mersenne prime conjectures: Collatz 3+1 () and Bařina ().
arXiv commentPeriodic density proofs of Hamiltonian tours and root-trunk proofs for an infinite row of Collatz-Conway an+b conjectures on the Turing-Leibniz tape of Cayley an+b trees paired with the binary number tree defined by Cantor. Disproofs of their Cantor-Gödel-Conway-Wolfram undecidability