Find two finite groups $G_1$ and $G_2$ such as:
Clash Royale CLAN TAG#URR8PPP
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Find two finite groups $G_1$ and $G_2$ such as:
$1)$ $|G_1|=|G_2|$
$2)$ for all prime $p$ every $p$-sylow subgroup of $G_1$ isomorpic to $p$-sylow subgroup of $G_2$.
but $G_1notcong G_2$.
hello I tried to find an example but I couldn't find one please help me.
I look on all the groups from order 6 (I choose this order randomly) but I don't know how to prove that every p-sylow subgroup of $G_1$ isomorpic to every p-sylow subgroup of $G_2$ for all primes p.
finite-groups sylow-theory
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up vote
1
down vote
favorite
Find two finite groups $G_1$ and $G_2$ such as:
$1)$ $|G_1|=|G_2|$
$2)$ for all prime $p$ every $p$-sylow subgroup of $G_1$ isomorpic to $p$-sylow subgroup of $G_2$.
but $G_1notcong G_2$.
hello I tried to find an example but I couldn't find one please help me.
I look on all the groups from order 6 (I choose this order randomly) but I don't know how to prove that every p-sylow subgroup of $G_1$ isomorpic to every p-sylow subgroup of $G_2$ for all primes p.
finite-groups sylow-theory
Maybe try to add what you have already tried.
– zzuussee
Aug 3 at 11:46
1
Have you seen semi-direct product? If so $C_21$ and $C_3ltimes C_7$ would do.
– daruma
Aug 3 at 11:49
The first version of your question was not very detailed, but your edit is already better. You can take a look at this page to find some advice about what you should put in your question : math.meta.stackexchange.com/questions/9959/…
– Arnaud D.
Aug 3 at 11:55
add a comment |Â
up vote
1
down vote
favorite
up vote
1
down vote
favorite
Find two finite groups $G_1$ and $G_2$ such as:
$1)$ $|G_1|=|G_2|$
$2)$ for all prime $p$ every $p$-sylow subgroup of $G_1$ isomorpic to $p$-sylow subgroup of $G_2$.
but $G_1notcong G_2$.
hello I tried to find an example but I couldn't find one please help me.
I look on all the groups from order 6 (I choose this order randomly) but I don't know how to prove that every p-sylow subgroup of $G_1$ isomorpic to every p-sylow subgroup of $G_2$ for all primes p.
finite-groups sylow-theory
Find two finite groups $G_1$ and $G_2$ such as:
$1)$ $|G_1|=|G_2|$
$2)$ for all prime $p$ every $p$-sylow subgroup of $G_1$ isomorpic to $p$-sylow subgroup of $G_2$.
but $G_1notcong G_2$.
hello I tried to find an example but I couldn't find one please help me.
I look on all the groups from order 6 (I choose this order randomly) but I don't know how to prove that every p-sylow subgroup of $G_1$ isomorpic to every p-sylow subgroup of $G_2$ for all primes p.
finite-groups sylow-theory
edited Aug 3 at 11:52
asked Aug 3 at 11:44
Rimon
33
33
Maybe try to add what you have already tried.
– zzuussee
Aug 3 at 11:46
1
Have you seen semi-direct product? If so $C_21$ and $C_3ltimes C_7$ would do.
– daruma
Aug 3 at 11:49
The first version of your question was not very detailed, but your edit is already better. You can take a look at this page to find some advice about what you should put in your question : math.meta.stackexchange.com/questions/9959/…
– Arnaud D.
Aug 3 at 11:55
add a comment |Â
Maybe try to add what you have already tried.
– zzuussee
Aug 3 at 11:46
1
Have you seen semi-direct product? If so $C_21$ and $C_3ltimes C_7$ would do.
– daruma
Aug 3 at 11:49
The first version of your question was not very detailed, but your edit is already better. You can take a look at this page to find some advice about what you should put in your question : math.meta.stackexchange.com/questions/9959/…
– Arnaud D.
Aug 3 at 11:55
Maybe try to add what you have already tried.
– zzuussee
Aug 3 at 11:46
Maybe try to add what you have already tried.
– zzuussee
Aug 3 at 11:46
1
1
Have you seen semi-direct product? If so $C_21$ and $C_3ltimes C_7$ would do.
– daruma
Aug 3 at 11:49
Have you seen semi-direct product? If so $C_21$ and $C_3ltimes C_7$ would do.
– daruma
Aug 3 at 11:49
The first version of your question was not very detailed, but your edit is already better. You can take a look at this page to find some advice about what you should put in your question : math.meta.stackexchange.com/questions/9959/…
– Arnaud D.
Aug 3 at 11:55
The first version of your question was not very detailed, but your edit is already better. You can take a look at this page to find some advice about what you should put in your question : math.meta.stackexchange.com/questions/9959/…
– Arnaud D.
Aug 3 at 11:55
add a comment |Â
1 Answer
1
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4
down vote
If $p, q$ are distinct primes then every two groups of order $pq$ will have isomorphic Sylow subgroups (being cyclic subgroups of order $p$ and $q$). So all you have to do is to find two nonisomorphic subgroups of order $pq$, e.g. $mathbbZ_6$ and $S_3$.
thank you :) ,I am sorry but how do I prove that every p-sylow subgroups ane isomorpic?
– Rimon
Aug 3 at 11:58
1
@Rimon Every two cyclic groups of the same order are isomorphic. And every group of order $pq$ has both: subgroups of order $p$ and of order $q$ (Cauchy's theorem). These subgroups are necessary Sylow. That's everything you need.
– freakish
Aug 3 at 12:01
thank you :) I get it now
– Rimon
Aug 3 at 12:30
add a comment |Â
1 Answer
1
active
oldest
votes
1 Answer
1
active
oldest
votes
active
oldest
votes
active
oldest
votes
up vote
4
down vote
If $p, q$ are distinct primes then every two groups of order $pq$ will have isomorphic Sylow subgroups (being cyclic subgroups of order $p$ and $q$). So all you have to do is to find two nonisomorphic subgroups of order $pq$, e.g. $mathbbZ_6$ and $S_3$.
thank you :) ,I am sorry but how do I prove that every p-sylow subgroups ane isomorpic?
– Rimon
Aug 3 at 11:58
1
@Rimon Every two cyclic groups of the same order are isomorphic. And every group of order $pq$ has both: subgroups of order $p$ and of order $q$ (Cauchy's theorem). These subgroups are necessary Sylow. That's everything you need.
– freakish
Aug 3 at 12:01
thank you :) I get it now
– Rimon
Aug 3 at 12:30
add a comment |Â
up vote
4
down vote
If $p, q$ are distinct primes then every two groups of order $pq$ will have isomorphic Sylow subgroups (being cyclic subgroups of order $p$ and $q$). So all you have to do is to find two nonisomorphic subgroups of order $pq$, e.g. $mathbbZ_6$ and $S_3$.
thank you :) ,I am sorry but how do I prove that every p-sylow subgroups ane isomorpic?
– Rimon
Aug 3 at 11:58
1
@Rimon Every two cyclic groups of the same order are isomorphic. And every group of order $pq$ has both: subgroups of order $p$ and of order $q$ (Cauchy's theorem). These subgroups are necessary Sylow. That's everything you need.
– freakish
Aug 3 at 12:01
thank you :) I get it now
– Rimon
Aug 3 at 12:30
add a comment |Â
up vote
4
down vote
up vote
4
down vote
If $p, q$ are distinct primes then every two groups of order $pq$ will have isomorphic Sylow subgroups (being cyclic subgroups of order $p$ and $q$). So all you have to do is to find two nonisomorphic subgroups of order $pq$, e.g. $mathbbZ_6$ and $S_3$.
If $p, q$ are distinct primes then every two groups of order $pq$ will have isomorphic Sylow subgroups (being cyclic subgroups of order $p$ and $q$). So all you have to do is to find two nonisomorphic subgroups of order $pq$, e.g. $mathbbZ_6$ and $S_3$.
answered Aug 3 at 11:50
freakish
8,4371524
8,4371524
thank you :) ,I am sorry but how do I prove that every p-sylow subgroups ane isomorpic?
– Rimon
Aug 3 at 11:58
1
@Rimon Every two cyclic groups of the same order are isomorphic. And every group of order $pq$ has both: subgroups of order $p$ and of order $q$ (Cauchy's theorem). These subgroups are necessary Sylow. That's everything you need.
– freakish
Aug 3 at 12:01
thank you :) I get it now
– Rimon
Aug 3 at 12:30
add a comment |Â
thank you :) ,I am sorry but how do I prove that every p-sylow subgroups ane isomorpic?
– Rimon
Aug 3 at 11:58
1
@Rimon Every two cyclic groups of the same order are isomorphic. And every group of order $pq$ has both: subgroups of order $p$ and of order $q$ (Cauchy's theorem). These subgroups are necessary Sylow. That's everything you need.
– freakish
Aug 3 at 12:01
thank you :) I get it now
– Rimon
Aug 3 at 12:30
thank you :) ,I am sorry but how do I prove that every p-sylow subgroups ane isomorpic?
– Rimon
Aug 3 at 11:58
thank you :) ,I am sorry but how do I prove that every p-sylow subgroups ane isomorpic?
– Rimon
Aug 3 at 11:58
1
1
@Rimon Every two cyclic groups of the same order are isomorphic. And every group of order $pq$ has both: subgroups of order $p$ and of order $q$ (Cauchy's theorem). These subgroups are necessary Sylow. That's everything you need.
– freakish
Aug 3 at 12:01
@Rimon Every two cyclic groups of the same order are isomorphic. And every group of order $pq$ has both: subgroups of order $p$ and of order $q$ (Cauchy's theorem). These subgroups are necessary Sylow. That's everything you need.
– freakish
Aug 3 at 12:01
thank you :) I get it now
– Rimon
Aug 3 at 12:30
thank you :) I get it now
– Rimon
Aug 3 at 12:30
add a comment |Â
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Maybe try to add what you have already tried.
– zzuussee
Aug 3 at 11:46
1
Have you seen semi-direct product? If so $C_21$ and $C_3ltimes C_7$ would do.
– daruma
Aug 3 at 11:49
The first version of your question was not very detailed, but your edit is already better. You can take a look at this page to find some advice about what you should put in your question : math.meta.stackexchange.com/questions/9959/…
– Arnaud D.
Aug 3 at 11:55