论文标题
斯塔克·赫纳(Stark-Heegner)点和对角线班
Stark-Heegner points and diagonal classes
论文作者
论文摘要
当复杂乘法理论的假想二次二次场被一个真实的二次场$ k $取代时,Stark-Heegner点是Heegner点的猜想替代品。它们在分析上作为椭圆曲线上的本地点进行构造,其乘以$ p $的乘法减少,但在$ k $中仍然惰性,但猜想与$ k $的环类领域合理,以满足Shimura coolocity Law的描述,描述了$ g_k $的作用。 \ cite {darmon-hpxh}的主要猜想预测,由und-heegner的任何线性组合都由一个环类角色$ψ$ $ k $的值加权的任何线性组合都属于Mordell-Weil组的相应部分,而不是相关的环类领域的相应部分,并且应在$ l'($ l'(e/k,e/k,e/k,1)$ ne ne 0 $ ne nne $ ltrivial时。 Building on the results on families of diagonal classes described in the remaining contributions to this volume, this note explains how such linear combinations arise from global classes in the idoneous pro-$p$ Selmer group, and are non-trivial when the first derivative of a weight-variable $p$-adic $L$-function associated to the Hida family passing through $f$ does not vanish at the point associated to $(E/K,ψ)$.
Stark-Heegner points are conjectural substitutes for Heegner points when the imaginary quadratic field of the theory of complex multiplication is replaced by a real quadratic field $K$. They are constructed analytically as local points on elliptic curves with multiplicative reduction at a prime $p$ that remains inert in $K$, but are conjectured to be rational over ring class fields of $K$ and to satisfy a Shimura reciprocity law describing the action of $G_K$ on them. The main conjectures of \cite{darmon-hpxh} predict that any linear combination of Stark-Heegner points weighted by the values of a ring class character $ψ$ of $K$ should belong to the corresponding piece of the Mordell-Weil group over the associated ring class field, and should be non-trivial when $L'(E/K,ψ,1) \ne 0$. Building on the results on families of diagonal classes described in the remaining contributions to this volume, this note explains how such linear combinations arise from global classes in the idoneous pro-$p$ Selmer group, and are non-trivial when the first derivative of a weight-variable $p$-adic $L$-function associated to the Hida family passing through $f$ does not vanish at the point associated to $(E/K,ψ)$.