Metamath Proof Explorer


Theorem mulerpqlem

Description: Lemma for mulerpq . (Contributed by Mario Carneiro, 8-May-2013) (New usage is discouraged.)

Ref Expression
Assertion mulerpqlem ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → A ~ 𝑸 B ↔ A ⋅ 𝑝𝑸 C ~ 𝑸 B ⋅ 𝑝𝑸 C

Proof

Step Hyp Ref Expression
1 xp1st ⊢ A ∈ 𝑵 × 𝑵 → 1 st ⁡ A ∈ 𝑵
2 1 3ad2ant1 ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 1 st ⁡ A ∈ 𝑵
3 xp1st ⊢ C ∈ 𝑵 × 𝑵 → 1 st ⁡ C ∈ 𝑵
4 3 3ad2ant3 ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 1 st ⁡ C ∈ 𝑵
5 mulclpi ⊢ 1 st ⁡ A ∈ 𝑵 ∧ 1 st ⁡ C ∈ 𝑵 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ∈ 𝑵
6 2 4 5 syl2anc ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ∈ 𝑵
7 xp2nd ⊢ A ∈ 𝑵 × 𝑵 → 2 nd ⁡ A ∈ 𝑵
8 7 3ad2ant1 ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 2 nd ⁡ A ∈ 𝑵
9 xp2nd ⊢ C ∈ 𝑵 × 𝑵 → 2 nd ⁡ C ∈ 𝑵
10 9 3ad2ant3 ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 2 nd ⁡ C ∈ 𝑵
11 mulclpi ⊢ 2 nd ⁡ A ∈ 𝑵 ∧ 2 nd ⁡ C ∈ 𝑵 → 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
12 8 10 11 syl2anc ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
13 xp1st ⊢ B ∈ 𝑵 × 𝑵 → 1 st ⁡ B ∈ 𝑵
14 13 3ad2ant2 ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 1 st ⁡ B ∈ 𝑵
15 mulclpi ⊢ 1 st ⁡ B ∈ 𝑵 ∧ 1 st ⁡ C ∈ 𝑵 → 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C ∈ 𝑵
16 14 4 15 syl2anc ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C ∈ 𝑵
17 xp2nd ⊢ B ∈ 𝑵 × 𝑵 → 2 nd ⁡ B ∈ 𝑵
18 17 3ad2ant2 ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 2 nd ⁡ B ∈ 𝑵
19 mulclpi ⊢ 2 nd ⁡ B ∈ 𝑵 ∧ 2 nd ⁡ C ∈ 𝑵 → 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
20 18 10 19 syl2anc ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
21 enqbreq ⊢ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ∈ 𝑵 ∧ 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵 ∧ 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C ∈ 𝑵 ∧ 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ~ 𝑸 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ↔ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C
22 6 12 16 20 21 syl22anc ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ~ 𝑸 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ↔ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C
23 mulpipq2 ⊢ A ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → A ⋅ 𝑝𝑸 C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C
24 23 3adant2 ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → A ⋅ 𝑝𝑸 C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C
25 mulpipq2 ⊢ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → B ⋅ 𝑝𝑸 C = 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
26 25 3adant1 ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → B ⋅ 𝑝𝑸 C = 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
27 24 26 breq12d ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → A ⋅ 𝑝𝑸 C ~ 𝑸 B ⋅ 𝑝𝑸 C ↔ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ~ 𝑸 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
28 enqbreq2 ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 → A ~ 𝑸 B ↔ 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B = 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A
29 28 3adant3 ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → A ~ 𝑸 B ↔ 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B = 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A
30 mulclpi ⊢ 1 st ⁡ C ∈ 𝑵 ∧ 2 nd ⁡ C ∈ 𝑵 → 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
31 4 10 30 syl2anc ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
32 mulclpi ⊢ 1 st ⁡ A ∈ 𝑵 ∧ 2 nd ⁡ B ∈ 𝑵 → 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵
33 2 18 32 syl2anc ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵
34 mulcanpi ⊢ 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵 ∧ 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵 → 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B = 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ↔ 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B = 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A
35 31 33 34 syl2anc ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B = 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ↔ 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B = 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A
36 mulcompi ⊢ 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B = 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C
37 fvex ⊢ 1 st ⁡ A ∈ V
38 fvex ⊢ 2 nd ⁡ B ∈ V
39 fvex ⊢ 1 st ⁡ C ∈ V
40 mulcompi ⊢ x ⋅ 𝑵 y = y ⋅ 𝑵 x
41 mulasspi ⊢ x ⋅ 𝑵 y ⋅ 𝑵 z = x ⋅ 𝑵 y ⋅ 𝑵 z
42 fvex ⊢ 2 nd ⁡ C ∈ V
43 37 38 39 40 41 42 caov4 ⊢ 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
44 36 43 eqtri ⊢ 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
45 mulcompi ⊢ 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A = 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C
46 fvex ⊢ 1 st ⁡ B ∈ V
47 fvex ⊢ 2 nd ⁡ A ∈ V
48 46 47 39 40 41 42 caov4 ⊢ 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C = 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C
49 mulcompi ⊢ 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C
50 45 48 49 3eqtri ⊢ 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A = 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C
51 44 50 eqeq12i ⊢ 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B = 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ↔ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C
52 51 a1i ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ B = 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ↔ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C
53 29 35 52 3bitr2d ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → A ~ 𝑸 B ↔ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 1 st ⁡ C
54 22 27 53 3bitr4rd ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → A ~ 𝑸 B ↔ A ⋅ 𝑝𝑸 C ~ 𝑸 B ⋅ 𝑝𝑸 C