Bloch–Beilinson regulator conjecture for elliptic curves

Let EE be an elliptic curve over Q\mathbb{Q}, let L(E,s)L(E,s) be its LL-function, and let HM2(E,Q(2))ZH^2_{\mathscr{M}}(E,\mathbb{Q}(2))_{\mathbb{Z}} denote the integral part of its motivic cohomology. Let

r_{\mathscr{D},\mathbb{Q}\colon H^2_{\mathscr{M}}(E,\mathbb{Q}(2))\to \operatorname{Hom}(H_1(E(\mathbb{C}),\mathbb{Q})^-,\mathbb{R}(1)).

For a non-trivial γH1(E(C),Q)\gamma\in H_1(E(\mathbb{C}),\mathbb{Q})^-, Bloch–Beilinson regulator conjecture. There exists ξHM2(E,Q(2))Z\xi\in H^2_{\mathscr{M}}(E,\mathbb{Q}(2))_{\mathbb{Z}} such that

12πirD,Q(ξ)(γ)1π2L(E,2)(modQ).\frac{1}{2\pi i}r_{\mathscr{D},\mathbb{Q}}(\xi)(\gamma)\equiv\frac{1}{\pi^2}L(E,2)\pmod{\mathbb{Q}^{*}}.

This is the explicit regulator formulation of the Bloch–Beilinson prediction for the special value L(E,2)L(E,2); the source does not state that it has been proved in general.

Sources & referencesView supporting material

Primary source

Yusuke Nemoto, “Regulator of the Hesse cubic curves and hypergeometric functions”, arXiv:2305.12051 (2024).

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