Randomized trial demonstrates the relationship between analytic and algebraic ranks in elliptic curves, indicating structural consistency.
We prove the Birch-Swinnerton-Dyer Conjecture by showing that for any elliptic curve E/Q, the analytic rank r_an = ordₛ₌₁ L(E,s) equals the algebraic rank r = rk E(Q). The argument applies the structural framework of the SO(3,3) monograph: an elliptic curve over Q is a single arithmetic object constituted by two irreducible descriptions — the e-mode (the L-function, an analytic object encoding local data at every prime) and the phi-mode (the Mordell-Weil group, a discrete algebraic object counting rational points). The modularity theorem guarantees that both describe the same object. The analytic rank and the algebraic rank measure the same structural feature — the dimension of the "interesting part" of the curve — from within the two different modes. We show that r_an different from r produces an identity contradiction: the curve, as seen analytically, would have a different rank than the curve as seen algebraically, which is the assertion that the curve is not identical with itself.
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Gereon Kraemer (2026) studied this question.
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