Groups of order 5.2^n: Difference between revisions

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(Created page with "This article discusses the groups of order <math>5 \cdot 2^n</math>, where <math>n</math> varies over nonnegative integers. Note that any such group has a 5-Sylow subgroup which ...")
 
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| 0 || 1 || 5 || 1 || only [[cyclic group:Z5]], see [[equivalence of definitions of group of prime order]]
| 0 || 1 || 5 || 1 || only [[cyclic group:Z5]], see [[equivalence of definitions of group of prime order]]
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|-
| 1 || 2 || 10 || 2 || [[cyclic group:Z10]] and [[dihedral group:D10]]; see [[classification of groups of order a product of two distinct primes]]
| 1 || 2 || 10 || 2 || [[cyclic group:Z10]] and [[dihedral group:D10]]; see [[classification of groups of an order two times a prime]] or [[classification of groups of order a product of two distinct primes]]
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| 2 || 4 || 20 || 5 || See [[groups of order 20]]
| 2 || 4 || 20 || 5 || See [[groups of order 20]]

Latest revision as of 08:55, 5 June 2023

This article discusses the groups of order 52n, where n varies over nonnegative integers. Note that any such group has a 5-Sylow subgroup which is cyclic group:Z5, and a 2-Sylow subgroup, which is of order 2n. Further, because order has only two prime factors implies solvable, any such group is a solvable group.

Number of groups of small orders

Exponent n Value 2n Value 52n Number of groups of order 52n Reason/explanation/list
0 1 5 1 only cyclic group:Z5, see equivalence of definitions of group of prime order
1 2 10 2 cyclic group:Z10 and dihedral group:D10; see classification of groups of an order two times a prime or classification of groups of order a product of two distinct primes
2 4 20 5 See groups of order 20
3 8 40 14 See groups of order 40
4 16 80 52 See groups of order 80
5 32 160 238 See groups of order 160
6 64 320 1640 See groups of order 320
7 128 640 21541 See groups of order 640
8 256 1280 1116461 See groups of order 1280