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Question on Artin's Gamma function on $SO$\operatorname{SO}(2,0)(R\mathbb R)$

Let$\DeclareMathOperator\SO{SO}$Let $G=SO(2,0)(\mathbb{R})$$G=\SO(2,0)(\mathbb{R})$, a quasi-split group with signature (2,0)$(2,0)$. Let $e$ be an element in $O(2,0)(\mathbb{R}) \backslash SO(2,0)(\mathbb{R})$$O(2,0)(\mathbb{R}) \setminus \SO(2,0)(\mathbb{R})$.

Let $\pi$ be an irreducible generic admissible representation of $G$. Let $\pi^e$ be the $e$-conjugate of $\pi$ defined by $\pi^e(g):= \pi(e^{-1}g e)$.

Let $\sigma$ and $\sigma^e$ be the Weil group representationrepresentations corresponding to $\pi$ and $\pi^e$ through local Langlands correspondence for $G=SO(2,0)(\mathbb{R})$$G=\SO(2,0)(\mathbb{R})$.

Then I am wondering whether the Artin gamma functionfunctions of $\sigma$ and $\sigma^e$ are equal.

Thanks in advance!

Question on Artin's Gamma function on $SO(2,0)(R)$

Let $G=SO(2,0)(\mathbb{R})$, a quasi-split group with signature (2,0). Let $e$ be an element in $O(2,0)(\mathbb{R}) \backslash SO(2,0)(\mathbb{R})$.

Let $\pi$ be an irreducible generic admissible representation of $G$. Let $\pi^e$ be $e$-conjugate of $\pi$ defined by $\pi^e(g):= \pi(e^{-1}g e)$.

Let $\sigma$ and $\sigma^e$ be the Weil group representation corresponding to $\pi$ and $\pi^e$ through local Langlands correspondence for $G=SO(2,0)(\mathbb{R})$.

Then I am wondering whether the Artin gamma function of $\sigma$ and $\sigma^e$ are equal.

Thanks in advance!

Question on Artin's Gamma function on $\operatorname{SO}(2,0)(\mathbb R)$

$\DeclareMathOperator\SO{SO}$Let $G=\SO(2,0)(\mathbb{R})$, a quasi-split group with signature $(2,0)$. Let $e$ be an element in $O(2,0)(\mathbb{R}) \setminus \SO(2,0)(\mathbb{R})$.

Let $\pi$ be an irreducible generic admissible representation of $G$. Let $\pi^e$ be the $e$-conjugate of $\pi$ defined by $\pi^e(g):= \pi(e^{-1}g e)$.

Let $\sigma$ and $\sigma^e$ be the Weil group representations corresponding to $\pi$ and $\pi^e$ through local Langlands correspondence for $G=\SO(2,0)(\mathbb{R})$.

Then I am wondering whether the Artin gamma functions of $\sigma$ and $\sigma^e$ are equal.

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Andrew
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Let $G=SO(2,0)(\mathbb{R})$, a quasi-split group with signature (2,0). Let $e$ be an element in $O(2,0)(\mathbb{R}) \backslash SO(2,0)(\mathbb{R})$.

Let $\pi$ be an irreducible generic admissible representation of $G$. Let $\pi^e$ be $e$-conjugate of $\pi$ defined by $\pi^e(g):= \pi(e^{-1}g e)$.

Let $\sigma$ and $\sigma^e$ be the Weil group representation corresponding to $\pi$ and $\pi^e$ through local Langlands correspondence for $G=SO(2,0)(\mathbb{R})$.

Then I am wondering whether the Artin gamma function of $\sigma$ and $\sigma^e$ are equal.

Thanks in advance!

Let $G=SO(2,0)(\mathbb{R})$, a quasi-split group with signature (2,0). Let $e$ be an element in $O(2,0)(\mathbb{R}) \backslash SO(2,0)(\mathbb{R})$.

Let $\pi$ be an irreducible generic admissible representation of $G$. Let $\pi^e$ be $e$-conjugate of $\pi$ defined by $\pi^e(g):= \pi(e^{-1}g e)$.

Let $\sigma$ and $\sigma^e$ be the Weil group representation corresponding to $\pi$ and $\pi^e$.

Then I am wondering whether the Artin gamma function of $\sigma$ and $\sigma^e$ are equal.

Thanks in advance!

Let $G=SO(2,0)(\mathbb{R})$, a quasi-split group with signature (2,0). Let $e$ be an element in $O(2,0)(\mathbb{R}) \backslash SO(2,0)(\mathbb{R})$.

Let $\pi$ be an irreducible generic admissible representation of $G$. Let $\pi^e$ be $e$-conjugate of $\pi$ defined by $\pi^e(g):= \pi(e^{-1}g e)$.

Let $\sigma$ and $\sigma^e$ be the Weil group representation corresponding to $\pi$ and $\pi^e$ through local Langlands correspondence for $G=SO(2,0)(\mathbb{R})$.

Then I am wondering whether the Artin gamma function of $\sigma$ and $\sigma^e$ are equal.

Thanks in advance!

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YCor
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Question on the Artin 'sArtin's Gamma function on $SO(2,0)(R)$

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Andrew
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