Timeline for A double centralizing theorem for finite groups
Current License: CC BY-SA 3.0
11 events
| when toggle format | what | by | license | comment | |
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| Jan 26, 2015 at 22:28 | history | edited | Geoff Robinson | CC BY-SA 3.0 |
typo
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| Jul 10, 2014 at 20:52 | comment | added | Geoff Robinson | The following (accurate) text was inserted into my answer by Peter Mueller, and should probably be given as a comment: Added (answering Shahryari's question from the comments): For each odd prime $p$ Heineken and Liebeck (see Section 3) construct many $p$-groups of class $2$ whose full automorphism group is a $p$-group. | |
| Jul 10, 2014 at 20:51 | history | edited | Geoff Robinson | CC BY-SA 3.0 |
deleted text inserted by Peter Mueller
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| Jul 10, 2014 at 20:50 | vote | accept | Sh.M1972 | ||
| Jul 11, 2014 at 0:34 | |||||
| Jul 10, 2014 at 15:07 | history | edited | Geoff Robinson | CC BY-SA 3.0 |
typos
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| Jul 10, 2014 at 14:58 | history | edited | Geoff Robinson | CC BY-SA 3.0 |
added condition on $p$-group.
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| Jul 10, 2014 at 14:51 | history | edited | Geoff Robinson | CC BY-SA 3.0 |
added 55 characters in body
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| Jul 10, 2014 at 8:52 | comment | added | Derek Holt | For example, there is a group of order $3^6$, $\mathtt{SmallGroup}(729,31)$ with automorphism group of roder $3^9$ and a unique central element of order $3$. | |
| Jul 10, 2014 at 8:48 | history | edited | Peter Mueller | CC BY-SA 3.0 |
added 297 characters in body
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| Jul 10, 2014 at 8:10 | comment | added | Sh.M1972 | I find the gap in my proof so I am going to edit the question. But I am not sure if there exists such a $p$-group you talk about in the answer. Is there really a $p$-group of class 2 with automorphism group a $p$-group? | |
| Jul 10, 2014 at 6:57 | history | answered | Geoff Robinson | CC BY-SA 3.0 |