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Zev Chonoles
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Is there $t\in\operatorname{Gal}(\overline{K}/K)$ s.t. $\operatorname{rank}_{\mathbf{Z}_{p}_p}((t-1)E_{{p}^{\infty}p^\infty}(\overline{K}))=1$?

Let $E$ be an elliptic curve defined over $\mathbb{Q}$, let $$K:=\lim_{\stackrel{\rightarrow}{k\in\mathbb{Q}}[\mu_{{p}^{\infty}}]}\mathbb{Q}\left[\mu_{{p}^{\infty}},k^{{\frac{{1}}{{p}^{\infty}}}}\right]$$$$K:=\varinjlim_{k\in\mathbb{Q}[\mu_{p^\infty}]} \mathbb{Q}\left[\mu_{p^\infty},k^{1/p^\infty}\right]$$ and $G:=\operatorname{Gal}(\overline{K}/K)$. Suppose that ${E}_{p}(K)=0$$E_p(K)=0$.

Question: Is there always a $\tau\in G$ so that $$\operatorname{rank}_{\mathbf{Z}_{p}}((t-1)E_{{p}^{\infty}}(\overline{K}))=1$$$$\operatorname{rank}_{\mathbf{Z}_p}((t-1)E_{p^\infty}(\overline{K}))=1$$

Is there $t\in\operatorname{Gal}(\overline{K}/K)$ s.t. $\operatorname{rank}_{\mathbf{Z}_{p}}((t-1)E_{{p}^{\infty}}(\overline{K}))=1$?

Let $E$ be an elliptic curve defined over $\mathbb{Q}$, let $$K:=\lim_{\stackrel{\rightarrow}{k\in\mathbb{Q}}[\mu_{{p}^{\infty}}]}\mathbb{Q}\left[\mu_{{p}^{\infty}},k^{{\frac{{1}}{{p}^{\infty}}}}\right]$$ and $G:=\operatorname{Gal}(\overline{K}/K)$. Suppose that ${E}_{p}(K)=0$.

Question: Is there always a $\tau\in G$ so that $$\operatorname{rank}_{\mathbf{Z}_{p}}((t-1)E_{{p}^{\infty}}(\overline{K}))=1$$

Is there $t\in\operatorname{Gal}(\overline{K}/K)$ s.t. $\operatorname{rank}_{\mathbf{Z}_p}((t-1)E_{p^\infty}(\overline{K}))=1$?

Let $E$ be an elliptic curve defined over $\mathbb{Q}$, let $$K:=\varinjlim_{k\in\mathbb{Q}[\mu_{p^\infty}]} \mathbb{Q}\left[\mu_{p^\infty},k^{1/p^\infty}\right]$$ and $G:=\operatorname{Gal}(\overline{K}/K)$. Suppose that $E_p(K)=0$.

Question: Is there always a $\tau\in G$ so that $$\operatorname{rank}_{\mathbf{Z}_p}((t-1)E_{p^\infty}(\overline{K}))=1$$

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Element of $\operatorname Is there $t\in\operatorname{Gal}(\overline{K}/K)$ with ones.t. $\operatorname{rank}_{\mathbf{Z}_{p}}((t-dimensional fixed subspace of $E_1)E_{p^{p}^{\infty}}(\overline{K})$)=1$?

Let $E$ be an elliptic curve defined over $\mathbb{Q}$, let $$K:=\bigcup_{k\in\mathbb{Q}[\mu_{{p}^{\infty}}]}\mathbb{Q}\left[\mu_{{p}^{\infty}},k^{{\frac{{1}}{{p}^{\infty}}}}\right]$$$$K:=\lim_{\stackrel{\rightarrow}{k\in\mathbb{Q}}[\mu_{{p}^{\infty}}]}\mathbb{Q}\left[\mu_{{p}^{\infty}},k^{{\frac{{1}}{{p}^{\infty}}}}\right]$$ and $G:=\operatorname{Gal}(\overline{K}/K)$. Suppose that ${E}_{p}(K)=0$.

Question: Is there always a $\tau\in G$ so that $$\dim_{\mathbf{Z}_{p}}(E_{{p}^{\infty}}(\overline{K})/(\tau-1)E_{{p}^{\infty}}(\overline{K}))=1$$$$\operatorname{rank}_{\mathbf{Z}_{p}}((t-1)E_{{p}^{\infty}}(\overline{K}))=1$$

Element of $\operatorname{Gal}(\overline{K}/K)$ with one-dimensional fixed subspace of $E_{p^{\infty}}(\overline{K})$

Let $E$ be an elliptic curve defined over $\mathbb{Q}$, let $$K:=\bigcup_{k\in\mathbb{Q}[\mu_{{p}^{\infty}}]}\mathbb{Q}\left[\mu_{{p}^{\infty}},k^{{\frac{{1}}{{p}^{\infty}}}}\right]$$ and $G:=\operatorname{Gal}(\overline{K}/K)$. Suppose that ${E}_{p}(K)=0$.

Question: Is there always a $\tau\in G$ so that $$\dim_{\mathbf{Z}_{p}}(E_{{p}^{\infty}}(\overline{K})/(\tau-1)E_{{p}^{\infty}}(\overline{K}))=1$$

Is there $t\in\operatorname{Gal}(\overline{K}/K)$ s.t. $\operatorname{rank}_{\mathbf{Z}_{p}}((t-1)E_{{p}^{\infty}}(\overline{K}))=1$?

Let $E$ be an elliptic curve defined over $\mathbb{Q}$, let $$K:=\lim_{\stackrel{\rightarrow}{k\in\mathbb{Q}}[\mu_{{p}^{\infty}}]}\mathbb{Q}\left[\mu_{{p}^{\infty}},k^{{\frac{{1}}{{p}^{\infty}}}}\right]$$ and $G:=\operatorname{Gal}(\overline{K}/K)$. Suppose that ${E}_{p}(K)=0$.

Question: Is there always a $\tau\in G$ so that $$\operatorname{rank}_{\mathbf{Z}_{p}}((t-1)E_{{p}^{\infty}}(\overline{K}))=1$$

Element of $Gal$\operatorname{Gal}(\overline{K}/K)$ with one-dimensional fixed subspace of $E_{p^{\infty}}(\overline{K})$

Let $E$ be an elliptic curve defined over $\mathbf{Q}$$\mathbb{Q}$, let $$K:=\bigcup_{k\in\mathbf{Q}[\mu_{{p}^{\infty}}]}\mathbf{Q}[\mu_{{p}^{\infty}},k^{{\frac{{1}}{{p}^{\infty}}}}]$$$$K:=\bigcup_{k\in\mathbb{Q}[\mu_{{p}^{\infty}}]}\mathbb{Q}\left[\mu_{{p}^{\infty}},k^{{\frac{{1}}{{p}^{\infty}}}}\right]$$ and $G:=Gal(\overline{K}/K)$$G:=\operatorname{Gal}(\overline{K}/K)$. Suppose that ${E}_{p}(K)=0$.

Question: Is there always a $\tau\in G$ so that $$\dim_{\mathbf{Z}_{p}}(E_{{p}^{\infty}}(\overline{K})/(\tau-1)E_{{p}^{\infty}}(\overline{K}))=1$$

Element of $Gal(\overline{K}/K)$ with one-dimensional fixed subspace of $E_{p^{\infty}}(\overline{K})$

Let $E$ be an elliptic curve defined over $\mathbf{Q}$, let $$K:=\bigcup_{k\in\mathbf{Q}[\mu_{{p}^{\infty}}]}\mathbf{Q}[\mu_{{p}^{\infty}},k^{{\frac{{1}}{{p}^{\infty}}}}]$$ and $G:=Gal(\overline{K}/K)$. Suppose that ${E}_{p}(K)=0$.

Question: Is there always a $\tau\in G$ so that $$\dim_{\mathbf{Z}_{p}}(E_{{p}^{\infty}}(\overline{K})/(\tau-1)E_{{p}^{\infty}}(\overline{K}))=1$$

Element of $\operatorname{Gal}(\overline{K}/K)$ with one-dimensional fixed subspace of $E_{p^{\infty}}(\overline{K})$

Let $E$ be an elliptic curve defined over $\mathbb{Q}$, let $$K:=\bigcup_{k\in\mathbb{Q}[\mu_{{p}^{\infty}}]}\mathbb{Q}\left[\mu_{{p}^{\infty}},k^{{\frac{{1}}{{p}^{\infty}}}}\right]$$ and $G:=\operatorname{Gal}(\overline{K}/K)$. Suppose that ${E}_{p}(K)=0$.

Question: Is there always a $\tau\in G$ so that $$\dim_{\mathbf{Z}_{p}}(E_{{p}^{\infty}}(\overline{K})/(\tau-1)E_{{p}^{\infty}}(\overline{K}))=1$$

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