Zilber–Pink in abelian varieties and the Siegel threefold
OpenAI research collection · 4 manuscripts · Source checked 2026-10-19
OpenAI's result summary
Proves the abelian Zilber–Pink conjecture over \overline{\mathbb Q}: every irreducible subvariety has finitely many maximal atypical subvarieties relative to its smallest containing torsion coset. It also proves the full curve case in the Siegel threefold \mathcal A_2 for Hodge-generic curves defined over \overline{\mathbb Q}, without boundary or reduction assumptions.
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MANUSCRIPT 01
The abelian Zilber–Pink conjecture
We prove the abelian Zilber–Pink conjecture over \overline{\mathbb Q}. Every irreducible subvariety of an abelian variety has only finitely many maximal atypical subvarieties, where atypicality is measured inside its smallest containing torsion coset.
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The E×CM component of Zilber–Pink for curves in A2
We prove the E\timesCM component of Zilber–Pink for Hodge-generic algebraic curves in \mathcal A_2 over \overline{\mathbb Q}. Each such curve contains only finitely many points whose abelian surface is isogenous to a product of elliptic curves with at least one factor having complex multiplication.
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Quaternionic division points on curves in the Siegel threefold
We prove the quaternionic-division component of Zilber–Pink for curves in \mathcal A_2 over \overline{\mathbb Q}. A Hodge-generic algebraic curve contains only finitely many points whose full geometric rational endomorphism algebra is an indefinite quaternion division algebra over ℚ. No boundary or reduction hypothesis is…
Full source abstract
We prove the quaternionic-division component of Zilber–Pink for curves in \mathcal A_2 over \overline{\mathbb Q}. A Hodge-generic algebraic curve contains only finitely many points whose full geometric rational endomorphism algebra is an indefinite quaternion division algebra over ℚ. No boundary or reduction hypothesis is required.
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We prove that every Hodge-generic algebraic curve in \mathcal A_2 over \overline{\mathbb Q} contains only finitely many points whose abelian surface is isogenous to the square of an elliptic curve without complex multiplication (CM). Combining this result with the companion E\timesCM and quaternionic-division finiteness…
Full source abstract
We prove that every Hodge-generic algebraic curve in \mathcal A_2 over \overline{\mathbb Q} contains only finitely many points whose abelian surface is isogenous to the square of an elliptic curve without complex multiplication (CM). Combining this result with the companion E\timesCM and quaternionic-division finiteness theorems, we prove the curve case of Zilber–Pink in \mathcal A_2 over \overline{\mathbb Q}, without a boundary hypothesis.
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