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Michael Hardy
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Proof of $L(E,1)/Ω(E)=1=1/8$ for elliptic curve $E:y^2=x^3y^2=x^3-x/ \Bbb{Q}$?

Let

  • $E:y^2=x^3-x$$E:y^2=x^3-x$ be an elliptic curve over $ \Bbb{Q}$ and
  • $ω_E=dx/2y=dx/2\sqrt{x^3-x}$$ω_E=dx/2y=dx/2\sqrt{x^3-x}$.

Then $$ \begin{split} \Omega(E)&=\int_{E(\Bbb{R})} ω_E\\ \\ &=2\int\limits_{1}^{+\infty} dx/\sqrt{x^3-x} \end{split} $$$$ \begin{split} \Omega(E)&=\int_{E(\Bbb{R})} ω_E\\ \\ &=2\int\limits_1^{+\infty} dx/\sqrt{x^3-x} \end{split} $$ Question. Let the Hasse-Weil $L$-function be $L(E,1)$.
How can I prove that $$ L(E,1)/\Omega(E)=1/8\; ? \label{1}\tag{$\star$} $$$$ L(E,1)/\Omega(E)=1/8\text{ ?} \label{1}\tag{$\star$} $$ If you know any reference (★) is proved, I'll appreciate if you could show me how to calculate (★).

Proof of $L(E,1)/Ω(E)=1/8$ for elliptic curve $E:y^2=x^3-x/ \Bbb{Q}$?

Let

  • $E:y^2=x^3-x$ be an elliptic curve over $ \Bbb{Q}$ and
  • $ω_E=dx/2y=dx/2\sqrt{x^3-x}$.

Then $$ \begin{split} \Omega(E)&=\int_{E(\Bbb{R})} ω_E\\ \\ &=2\int\limits_{1}^{+\infty} dx/\sqrt{x^3-x} \end{split} $$ Question. Let the Hasse-Weil $L$-function be $L(E,1)$.
How can I prove that $$ L(E,1)/\Omega(E)=1/8\; ? \label{1}\tag{$\star$} $$ If you know any reference (★) is proved, I'll appreciate if you could show me how to calculate (★).

Proof of $L(E,1)/Ω(E)=1/8$ for elliptic curve $E:y^2=x^3-x/ \Bbb{Q}$?

Let

  • $E:y^2=x^3-x$ be an elliptic curve over $ \Bbb{Q}$ and
  • $ω_E=dx/2y=dx/2\sqrt{x^3-x}$.

Then $$ \begin{split} \Omega(E)&=\int_{E(\Bbb{R})} ω_E\\ \\ &=2\int\limits_1^{+\infty} dx/\sqrt{x^3-x} \end{split} $$ Question. Let the Hasse-Weil $L$-function be $L(E,1)$.
How can I prove that $$ L(E,1)/\Omega(E)=1/8\text{ ?} \label{1}\tag{$\star$} $$ If you know any reference (★) is proved, I'll appreciate if you could show me how to calculate (★).

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Duality
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Let

  • $E:y^2=x^3-x$ be an elliptic curve over $ \Bbb{Q}$ and
  • $ω_E=dx/2y=dx/2\sqrt{x^3-x}$.

Then $$ \begin{split} \Omega(E)&=\int_{E(\Bbb{R})} ω_E\\ \\ &=2\int\limits_{1}^{+\infty} dx/\sqrt{x^3-x} \end{split} $$ Question. Let the Hasse-Weil $L$-function be $L(E,1)$.
How can I prove that $$ L(E,1)/\Omega(E)=1/8\; ? \label{1}\tag{$\star$} $$ If you know any reference (★) is proved, I'll appreciate if you could share itshow me. However, a self contained argument would be also appreciated how to calculate (★).

Let

  • $E:y^2=x^3-x$ be an elliptic curve over $ \Bbb{Q}$ and
  • $ω_E=dx/2y=dx/2\sqrt{x^3-x}$.

Then $$ \begin{split} \Omega(E)&=\int_{E(\Bbb{R})} ω_E\\ \\ &=2\int\limits_{1}^{+\infty} dx/\sqrt{x^3-x} \end{split} $$ Question. Let the Hasse-Weil $L$-function be $L(E,1)$.
How can I prove that $$ L(E,1)/\Omega(E)=1/8\; ? \label{1}\tag{$\star$} $$ If you know any reference (★) is proved, I'll appreciate if you could share it me. However, a self contained argument would be also appreciated.

Let

  • $E:y^2=x^3-x$ be an elliptic curve over $ \Bbb{Q}$ and
  • $ω_E=dx/2y=dx/2\sqrt{x^3-x}$.

Then $$ \begin{split} \Omega(E)&=\int_{E(\Bbb{R})} ω_E\\ \\ &=2\int\limits_{1}^{+\infty} dx/\sqrt{x^3-x} \end{split} $$ Question. Let the Hasse-Weil $L$-function be $L(E,1)$.
How can I prove that $$ L(E,1)/\Omega(E)=1/8\; ? \label{1}\tag{$\star$} $$ If you know any reference (★) is proved, I'll appreciate if you could show me how to calculate (★).

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Duality
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  • 13

Let

  • $E:y^2=x^3-x$ be an elliptic curve over $ \Bbb{Q}$ and
  • $ω_E=dx/2y=dx/2\sqrt{x^3-x}$.

Then $$ \begin{split} \Omega(E)&=\int_{E(\Bbb{R})} ω_E\\ \\ &=2\int\limits_{1}^{+\infty} dx/\sqrt{x^3-x} \end{split} $$ Question. Let the Hasse-Weil $L$-function be $L(E,1)$.
How can I prove that $$ L(E,1)/\Omega(E)=1/8\; ? \label{1}\tag{$\star$} $$ If you know any reference where \eqref{1}(★) is proved, I'll appreciate if you could share it me. However, a self contained argument would be also appreciated.

Let

  • $E:y^2=x^3-x$ be an elliptic curve over $ \Bbb{Q}$ and
  • $ω_E=dx/2y=dx/2\sqrt{x^3-x}$.

Then $$ \begin{split} \Omega(E)&=\int_{E(\Bbb{R})} ω_E\\ \\ &=2\int\limits_{1}^{+\infty} dx/\sqrt{x^3-x} \end{split} $$ Question. Let the Hasse-Weil $L$-function be $L(E,1)$.
How can I prove that $$ L(E,1)/\Omega(E)=1/8\; ? \label{1}\tag{$\star$} $$ If you know any reference where \eqref{1} is proved, I'll appreciate if you could share it me. However, a self contained argument would be also appreciated.

Let

  • $E:y^2=x^3-x$ be an elliptic curve over $ \Bbb{Q}$ and
  • $ω_E=dx/2y=dx/2\sqrt{x^3-x}$.

Then $$ \begin{split} \Omega(E)&=\int_{E(\Bbb{R})} ω_E\\ \\ &=2\int\limits_{1}^{+\infty} dx/\sqrt{x^3-x} \end{split} $$ Question. Let the Hasse-Weil $L$-function be $L(E,1)$.
How can I prove that $$ L(E,1)/\Omega(E)=1/8\; ? \label{1}\tag{$\star$} $$ If you know any reference (★) is proved, I'll appreciate if you could share it me. However, a self contained argument would be also appreciated.

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Duality
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Daniele Tampieri
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Duality
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Duality
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