Regularity versus complexity in the binary representation of 3^n
Eric S. Rowland

TL;DR
This paper investigates the binary representation of powers of 3, revealing regular patterns and structures explained by 2-adic numbers, and extends these observations to powers of other bases.
Contribution
It introduces a novel perspective linking binary patterns of powers to 2-adic number theory, uncovering regularities in seemingly disordered bit patterns.
Findings
Diagonal stripes in bits of 3^(2^n) identified
Regularity explained via 2-adic power series
Patterns extend to base-p representations of k^(p^n)
Abstract
We use the grid consisting of bits of 3^n to motivate the definition of 2-adic numbers. Specifically, we exhibit diagonal stripes in the bits of 3^(2^n), which turn out to be the first in an infinite sequence of such structures. Our observations are explained by a 2-adic power series, providing some regularity among the disorder in the bits of powers of 3. Generally, the base-p representation of k^(p^n) has these features.
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Taxonomy
Topicsadvanced mathematical theories · Chaos-based Image/Signal Encryption · Mathematical Dynamics and Fractals
