Metamath Proof Explorer


Theorem proot1mul

Description: Any primitive N -th root of unity is a multiple of any other. (Contributed by Stefan O'Rear, 2-Nov-2015)

Ref Expression
Hypotheses idomsubgmo.g ⊢ G = mulGrp R ↾ 𝑠 Unit ⁡ R
proot1mul.o ⊢ O = od ⁡ G
proot1mul.k ⊢ K = mrCls ⁡ SubGrp ⁡ G
Assertion proot1mul ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → X ∈ K ⁡ Y

Proof

Step Hyp Ref Expression
1 idomsubgmo.g ⊢ G = mulGrp R ↾ 𝑠 Unit ⁡ R
2 proot1mul.o ⊢ O = od ⁡ G
3 proot1mul.k ⊢ K = mrCls ⁡ SubGrp ⁡ G
4 simpll ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → R ∈ IDomn
5 isidom ⊢ R ∈ IDomn ↔ R ∈ CRing ∧ R ∈ Domn
6 5 simprbi ⊢ R ∈ IDomn → R ∈ Domn
7 domnring ⊢ R ∈ Domn → R ∈ Ring
8 eqid ⊢ Unit ⁡ R = Unit ⁡ R
9 8 1 unitgrp ⊢ R ∈ Ring → G ∈ Grp
10 4 6 7 9 4syl ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → G ∈ Grp
11 eqid ⊢ Base G = Base G
12 11 subgacs ⊢ G ∈ Grp → SubGrp ⁡ G ∈ ACS ⁡ Base G
13 acsmre ⊢ SubGrp ⁡ G ∈ ACS ⁡ Base G → SubGrp ⁡ G ∈ Moore ⁡ Base G
14 10 12 13 3syl ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → SubGrp ⁡ G ∈ Moore ⁡ Base G
15 simprl ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → X ∈ O -1 N
16 11 2 odf ⊢ O : Base G ⟶ ℕ 0
17 ffn ⊢ O : Base G ⟶ ℕ 0 → O Fn Base G
18 fniniseg ⊢ O Fn Base G → X ∈ O -1 N ↔ X ∈ Base G ∧ O ⁡ X = N
19 16 17 18 mp2b ⊢ X ∈ O -1 N ↔ X ∈ Base G ∧ O ⁡ X = N
20 15 19 sylib ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → X ∈ Base G ∧ O ⁡ X = N
21 20 simpld ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → X ∈ Base G
22 21 snssd ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → X ⊆ Base G
23 14 3 22 mrcssidd ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → X ⊆ K ⁡ X
24 snssg ⊢ X ∈ O -1 N → X ∈ K ⁡ X ↔ X ⊆ K ⁡ X
25 15 24 syl ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → X ∈ K ⁡ X ↔ X ⊆ K ⁡ X
26 23 25 mpbird ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → X ∈ K ⁡ X
27 1 idomsubgmo ⊢ R ∈ IDomn ∧ N ∈ ℕ → ∃* x ∈ SubGrp ⁡ G x = N
28 27 adantr ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → ∃* x ∈ SubGrp ⁡ G x = N
29 3 mrccl ⊢ SubGrp ⁡ G ∈ Moore ⁡ Base G ∧ X ⊆ Base G → K ⁡ X ∈ SubGrp ⁡ G
30 14 22 29 syl2anc ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → K ⁡ X ∈ SubGrp ⁡ G
31 20 simprd ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → O ⁡ X = N
32 simplr ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → N ∈ ℕ
33 31 32 eqeltrd ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → O ⁡ X ∈ ℕ
34 11 2 3 odhash2 ⊢ G ∈ Grp ∧ X ∈ Base G ∧ O ⁡ X ∈ ℕ → K ⁡ X = O ⁡ X
35 10 21 33 34 syl3anc ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → K ⁡ X = O ⁡ X
36 35 31 eqtrd ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → K ⁡ X = N
37 simprr ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → Y ∈ O -1 N
38 fniniseg ⊢ O Fn Base G → Y ∈ O -1 N ↔ Y ∈ Base G ∧ O ⁡ Y = N
39 16 17 38 mp2b ⊢ Y ∈ O -1 N ↔ Y ∈ Base G ∧ O ⁡ Y = N
40 37 39 sylib ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → Y ∈ Base G ∧ O ⁡ Y = N
41 40 simpld ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → Y ∈ Base G
42 41 snssd ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → Y ⊆ Base G
43 3 mrccl ⊢ SubGrp ⁡ G ∈ Moore ⁡ Base G ∧ Y ⊆ Base G → K ⁡ Y ∈ SubGrp ⁡ G
44 14 42 43 syl2anc ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → K ⁡ Y ∈ SubGrp ⁡ G
45 40 simprd ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → O ⁡ Y = N
46 45 32 eqeltrd ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → O ⁡ Y ∈ ℕ
47 11 2 3 odhash2 ⊢ G ∈ Grp ∧ Y ∈ Base G ∧ O ⁡ Y ∈ ℕ → K ⁡ Y = O ⁡ Y
48 10 41 46 47 syl3anc ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → K ⁡ Y = O ⁡ Y
49 48 45 eqtrd ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → K ⁡ Y = N
50 fveqeq2 ⊢ x = K ⁡ X → x = N ↔ K ⁡ X = N
51 fveqeq2 ⊢ x = K ⁡ Y → x = N ↔ K ⁡ Y = N
52 50 51 rmoi ⊢ ∃* x ∈ SubGrp ⁡ G x = N ∧ K ⁡ X ∈ SubGrp ⁡ G ∧ K ⁡ X = N ∧ K ⁡ Y ∈ SubGrp ⁡ G ∧ K ⁡ Y = N → K ⁡ X = K ⁡ Y
53 28 30 36 44 49 52 syl122anc ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → K ⁡ X = K ⁡ Y
54 26 53 eleqtrd ⊢ R ∈ IDomn ∧ N ∈ ℕ ∧ X ∈ O -1 N ∧ Y ∈ O -1 N → X ∈ K ⁡ Y