Summary. A convergent dyadic series with nonnegative integer coefficients can be made rational by sparse nonnegative corrections of upper Banach density zero, eventually bounded by any f(n)→∞, while preserving every fixed modulus and, for a logarithmic allowance, short-block empirical distributions. For prime gaps the cumulative positions remain asymptotic to n log n; no primality conclusion is asserted. Summation by parts reduces the prime series to the gap series, and the tails 𝑇𝑁=∑𝑗≥1𝑔𝑁+𝑗2−𝑗 satisfy 𝑇𝑁+1=2𝑇𝑁−𝑔𝑁+1. That recurrence characterises rationality and yields finite tests with explicit remainder bounds. An exact finite certificate shows that a rational value of the prime series would have denominator at least 239998>1012040. The bound does not establish irrationality.
This paper covers the complete problem-specific reasoning surface for Erdős #251, including all registered result families and their boundaries.
It does not establish the validity of claims tagged Lean, which belongs to the cited kernel-checked source, or a solution to Erdős #251, which remains open.
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