Timeline for Can a cyclic group of prime order act on a rationally acyclic finite dimensional complex and have no fixed points?
Current License: CC BY-SA 4.0
10 events
| when toggle format | what | by | license | comment | |
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| Jan 7, 2023 at 18:18 | comment | added | Theo Johnson-Freyd | I corrected a small typo. | |
| Jan 7, 2023 at 18:18 | history | edited | Theo Johnson-Freyd | CC BY-SA 4.0 |
typo correction: changed one occurrence of "$e^1_n$" to the (now unique) occurrence of "$e^1_0$".
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| Jan 7, 2023 at 2:55 | comment | added | Nicholas Kuhn | One has lots of choice with those attaching maps for the 2-cells, so one has lots of examples of these Moore spaces of nonabelian groups. | |
| Jan 7, 2023 at 2:40 | vote | accept | Nicholas Kuhn | ||
| Jan 7, 2023 at 2:40 | comment | added | Nicholas Kuhn | I see. a_1 has order 4 in H_1, and I guess that calculation is typical. I am happy again. | |
| Jan 7, 2023 at 2:27 | comment | added | Nicholas Kuhn | Upon reflection, it would be nice to see a bit more detail about why H_1 is all torsion. | |
| Jan 7, 2023 at 2:17 | vote | accept | Nicholas Kuhn | ||
| Jan 7, 2023 at 2:24 | |||||
| Jan 7, 2023 at 2:16 | comment | added | Nicholas Kuhn | Very nice. And yes, surely this generalizes to odd primes. | |
| Jan 7, 2023 at 2:04 | history | edited | Tom Goodwillie | CC BY-SA 4.0 |
deleted 39 characters in body
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| Jan 7, 2023 at 0:26 | history | answered | Tom Goodwillie | CC BY-SA 4.0 |