Repetend Rigidity at the Golden Scale
An old golden-ratio crossing, revisited where continuous patterns meet the constraints of finite arithmetic.
An old golden-ratio crossing, revisited where continuous patterns meet the constraints of finite arithmetic.
The cubic law gives the leading growth of digit-collision energy. Its secondary term identifies the first systematic correction and the arithmetic that preserves it.
The collision energy is the cube of the base, split one third to two thirds between diagonal and off-diagonal poles. The cubic constant is unity.
The orbit is multiplicative. The boundary is additive. The Jacobi sum is the bridge. Two laws from the time of Gauss show up because the boundary forced the character to look at -2.
The collision invariant turned out to be a special case. This paper finds the source underneath it. The floor provides the weight. The boundary provides the geometry. The spectrum is their product.
The collision invariant is the part of the arithmetic that remains when everything else has been allowed to move. This essay explains the name and the analogy to noble gases.
Digit boundaries choose the weights of an L-function family. In base five, twenty entries give its exact fourth moment.
A centered digit table gives a convergent sum over primes and an exact cancellation condition at the zeros of its active L-functions.
The collision count grows with the denominator. Its deviation is fixed by a handful of final digits.
A small digit table supplies the fixed part of a changing function, and the original collision coefficient can be recovered exactly.
In base five, a finite table of digit collisions determines an exact sum of L-function values raised to the fourth power.
The collision and prime spectra overlap less than a fixed-weight shuffle predicts. An exact reflection law reveals a separate additive pattern.
Centered collision signals from coprime bases remain recoverable when combined. Within each base, higher-lag correlations raise a separate question.
Neutrality survives simultaneous prime remainder conditions. In the finite character sums, positive and negative contributions remain.
The collision table balances exactly. Does that balance survive when we sort the primes by their remainder on division by three?
Give the large primes more weight. The finite digit table selects the L-functions whose zeros can obstruct the sum.
Forty decimal endings hold the collision deviations. Complementary cells add to minus one, fixing the mean and the negative half of the table.
Centering a finite table removes the drift and reveals which arithmetic patterns remain.
A slow drift across the primes leads back to forty integers and a reflection that leaves every pair one short of zero.
Slide a repeating decimal by one place and count the matches. In base ten, seven primes above ten give zero. Their finite recipe opens a question about the spread of positive collision counts.
The collision sum hides differences between primes with different last digits. Dirichlet characters separate them, and every stream can be recovered.
For every prime greater than ten, exactly nine multipliers change every first digit. The same nine fractions identify them all.
Primes can share a bin pattern yet admit different digit matches. Ramanujan’s sum reads the difference from the spectrum.
A repeating decimal can be compared with every rotation of itself. One frequency table recovers the exact match counts.
Two neighboring remainders share a digit. Sliding the bins and adding arrows gives two exact ways to read that agreement.
Three pairs of binary fractions cover the same digit slots. Those visible cancellations explain two missing directions in the matrix.
Compare every fraction to every other. The full grid locates the matches that an average conceals, and its spectrum records their arrangement.
The reference score and the average over every pair count agreement differently. An exact relation between them explains the split at twelve.
The primes that organize long division also organize musical pitch. Deficit ratios approach the Pythagorean comma in base 12 and the just major scale in base 30.
The alignments at 6 and 12 have exact rational values. No denominator fits between them. Pairing complementary fractions explains the gap.
In decimal, the prime 53 has four repeating cycles and two alignment limits. Counting the digits shared by different remainders explains the split.
Single digits, full cycles, complement pairs. Three kinds of repeating decimal share one boundary and one alignment formula.
The alignment count at denominator twelve leads to a cubic with a golden-ratio factor at three.