← Phase 0 / 06 · Phase 1 Agent Experiment Specifications
The goal is not to "calculate a BSD ratio for millions of curves," but to generate theorem-applicability, certificate levels, and unclosed items for every isogeny class in a complete finite domain (N_E<500,000, full LMFDB coverage). The workflow is divided into five steps: Ingest (fetching LMFDB/Cremona label, a-invariants, rank, regulator, etc.), Evidence typing (tagging each field as exact/rigorous_computation/numerical/BSD_inferred/unknown), Theorem router (checking GZK, BSTW zeta-element, Banwait–Huang, main conjecture, p-converse, etc. item by item), Certificate level (tagging according to C0–C10), and Wall classification (restricting unclosed reasons to a controlled vocabulary). Testing is divided into three groups: R0 (rank 0, testing weak BSD known theorems and p-parts), R1 (rank 1, testing Heegner point/Kolyvagin applicability), and R2+ (rank≥2, not seeking comprehensive closure, only finding where theorem coverage suddenly drops). The first rank-2 sample is 389.a1 (LMFDB gives r_alg=r_an=2, numerical leading term matches), but the Agent's task is not to recalculate it, but to answer item by item the source of the certificates, whether generators are saturated, whether Sha_an=1 is an actual proof, and which p-parts are known. The first family reproduction is reproducing the Banwait–Huang 2026 algorithm, first running the authors' samples and then all conductor≤500,000, performing an adversarial audit on discrepancies. The success conditions explicitly do not require a new BSD theorem, only a complete schema, certificates for at least three classes of curves, algorithm reproducibility, the ability to distinguish evidence/theorem for each result, and finding the top three common bottlenecks for high rank.
Relationship with other documents, try to use the words from its own document, not my interpretation.
"Not: computing a BSD ratio for millions of curves. But rather: generating theorem-applicability, certificate levels, and unclosed items for every isogeny class in a complete finite domain." — Excerpt from "0. Goal" in this document.
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