statement theorem
Finite p-groups are nilpotent
Statement
Let be a prime number and let be a finite p-group. Then is nilpotent.
Remarks
Each quotient of the upper central series is a -group, so it has a nontrivial centre when it is not trivial. So the upper central series grows strictly until it reaches , and is finite. For with , the nilpotency class of is at most .
Explanations
L1 human
A nontrivial finite -group always has a nontrivial centre. Divide by it, and the quotient is again a -group with a nontrivial centre. Repeat this, and you climb the upper central series to the whole group.
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What this needs
To read this node, read these 37 nodes in this order. The foundations come first, and the list ends with this node.
- no evidence level
- Group concept
- Centre of a group definition
- Conjugate elements definition
- Group homomorphism definition
- Laws of exponents in a group statement
- Subgroup definition
- Symmetric group definition
- Order of an element definition
- Group action definition
- Conjugate subgroup definition
- Centraliser definition
- Left coset definition
- Right coset definition
- Subgroup criterion statement
- P-group definition
- Orbit definition
- Action by conjugation example
- Stabiliser definition
- Normal subgroup definition
- Intersection of subgroups is a subgroup statement
- Orbits partition the set statement
- Transitive action definition
- Normal core definition
- Normality via left and right cosets statement
- Subgroup generated by a subset definition
- Conjugacy class definition
- Action on left cosets example
- Quotient group definition
- Lattice of subgroups concept
- Nilpotent group definition
- Orbit-stabiliser theorem statement
- Correspondence theorem statement
- Upper central series definition
- Size of a conjugacy class is the index of the centraliser statement
- Class equation statement
- A nontrivial finite p-group has nontrivial centre statement
- Finite p-groups are nilpotent statement
What depends on this
1 node uses this node, directly or through other nodes.
Sources
- Web https://en.wikipedia.org/wiki/Nilpotent_group, Examples
- Web https://en.wikipedia.org/wiki/P-group, Non-trivial center