A Spoke-and-Clock Representation of Integer Factorisation
Authors/Creators
Description
Arranging the positive integers on twenty-four spokes turns factorisation into a question about residue pairs and integer ring coordinates. We give the complete unordered factor-residue table, derive a ring equation exactly equivalent to divisibility, and describe multiples of a fixed prime as a periodic clock on each spoke. Digital roots and last digits refine the coordinates to residue classes modulo 72 and 360; they do not, in general, determine whether a target is composite. An elementary obstruction proves that no classifier using only a fixed periodic state can distinguish all primes from composites. A general formula counts unordered residue pairs for any wheel modulus, and a minimum-product bound explains why one natural residue filter eventually becomes ineffective. Deterministic computations, supplied with a standard-library verification script, check the identities and illustrate the equivalence with wheel-based trial division. The contribution is a unified visual and algebraic exposition; no new general factorisation algorithm or improvement in complexity is claimed.
Status: Expository preprint; not peer reviewed.
The accompanying supplement contains the editable manuscript, diagrams, verification script, and exact results.
Files
spoke-clock-factorisation.pdf
Additional details
References
- D. D. Wall. Fibonacci Series Modulo m. The American Mathematical Monthly 67(6) (1960), 525–532. https://doi.org/10.1080/00029890.1960.11989541
- Paul Pritchard. Explaining the Wheel Sieve. Acta Informatica 17 (1982), 477–485. https://doi.org/10.1007/BF00264164
- Michael O. Rabin. Probabilistic Algorithm for Testing Primality. Journal of Number Theory 12(1) (1980), 128–138. https://doi.org/10.1016/0022-314X(80)90084-0