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darij grinberg
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Let $G$, be a finite group; let $F$, be a field of charcharacteristic $> 0$$p > 0$.

If I have an irreducible modular representation $\rho: G \to GL_n(F)$, does $\ker \rho$ contain all the normal $p$-subgroups of $G$? If so, how does one show this?

$G$, finite group; $F$, field of char $> 0$.

If I have an irreducible modular representation $\rho: G \to GL_n(F)$, does $\ker \rho$ contain all the normal $p$-subgroups of $G$? If so, how does one show this?

Let $G$ be a finite group; let $F$ be a field of characteristic $p > 0$.

If I have an irreducible modular representation $\rho: G \to GL_n(F)$, does $\ker \rho$ contain all the normal $p$-subgroups of $G$? If so, how does one show this?

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Sam Derbyshire
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Kernal Kernel of modular representation of a finite group

$G$, finite group; $F$, field of char $> 0$.

If I have an irreducible modular representation $\rho: G \to GL_n(F)$, does $ker \rho$$\ker \rho$ contain all the normal $p$-subgroups of $G$? If so, how does one show this?

Kernal of modular representation of a finite group

$G$, finite group; $F$, field of char $> 0$.

If I have an irreducible modular representation $\rho: G \to GL_n(F)$, does $ker \rho$ contain all the normal $p$-subgroups of $G$? If so, how does one show this?

Kernel of modular representation of a finite group

$G$, finite group; $F$, field of char $> 0$.

If I have an irreducible modular representation $\rho: G \to GL_n(F)$, does $\ker \rho$ contain all the normal $p$-subgroups of $G$? If so, how does one show this?

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Dr Shello
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Kernal of modular representation of a finite group

$G$, finite group; $F$, field of char $> 0$.

If I have an irreducible modular representation $\rho: G \to GL_n(F)$, does $ker \rho$ contain all the normal $p$-subgroups of $G$? If so, how does one show this?