Metamath Proof Explorer


Theorem distrnq

Description: Multiplication of positive fractions is distributive. (Contributed by NM, 2-Sep-1995) (Revised by Mario Carneiro, 28-Apr-2013) (New usage is discouraged.)

Ref Expression
Assertion distrnq ⊢ A ⋅ 𝑸 B + 𝑸 C = A ⋅ 𝑸 B + 𝑸 A ⋅ 𝑸 C

Proof

Step Hyp Ref Expression
1 mulcompi ⊢ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B = 1 st ⁡ B ⋅ 𝑵 1 st ⁡ A
2 1 oveq1i ⊢ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C = 1 st ⁡ B ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C
3 fvex ⊢ 1 st ⁡ B ∈ V
4 fvex ⊢ 1 st ⁡ A ∈ V
5 fvex ⊢ 2 nd ⁡ A ∈ V
6 mulcompi ⊢ x ⋅ 𝑵 y = y ⋅ 𝑵 x
7 mulasspi ⊢ x ⋅ 𝑵 y ⋅ 𝑵 z = x ⋅ 𝑵 y ⋅ 𝑵 z
8 fvex ⊢ 2 nd ⁡ C ∈ V
9 3 4 5 6 7 8 caov411 ⊢ 1 st ⁡ B ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C
10 2 9 eqtri ⊢ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C
11 mulcompi ⊢ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C = 1 st ⁡ C ⋅ 𝑵 1 st ⁡ A
12 11 oveq1i ⊢ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B = 1 st ⁡ C ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B
13 fvex ⊢ 1 st ⁡ C ∈ V
14 fvex ⊢ 2 nd ⁡ B ∈ V
15 13 4 5 6 7 14 caov411 ⊢ 1 st ⁡ C ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B = 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B
16 12 15 eqtri ⊢ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B = 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B
17 10 16 oveq12i ⊢ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B = 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B
18 distrpi ⊢ 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B = 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B
19 mulasspi ⊢ 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B = 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B
20 17 18 19 3eqtr2i ⊢ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B = 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B
21 mulasspi ⊢ 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C
22 14 5 8 6 7 caov12 ⊢ 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
23 22 oveq2i ⊢ 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
24 21 23 eqtri ⊢ 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
25 20 24 opeq12i ⊢ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C = 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
26 elpqn ⊢ A ∈ 𝑸 → A ∈ 𝑵 × 𝑵
27 26 3ad2ant1 ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ∈ 𝑵 × 𝑵
28 xp2nd ⊢ A ∈ 𝑵 × 𝑵 → 2 nd ⁡ A ∈ 𝑵
29 27 28 syl ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 2 nd ⁡ A ∈ 𝑵
30 xp1st ⊢ A ∈ 𝑵 × 𝑵 → 1 st ⁡ A ∈ 𝑵
31 27 30 syl ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ A ∈ 𝑵
32 elpqn ⊢ B ∈ 𝑸 → B ∈ 𝑵 × 𝑵
33 32 3ad2ant2 ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → B ∈ 𝑵 × 𝑵
34 xp1st ⊢ B ∈ 𝑵 × 𝑵 → 1 st ⁡ B ∈ 𝑵
35 33 34 syl ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ B ∈ 𝑵
36 elpqn ⊢ C ∈ 𝑸 → C ∈ 𝑵 × 𝑵
37 36 3ad2ant3 ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → C ∈ 𝑵 × 𝑵
38 xp2nd ⊢ C ∈ 𝑵 × 𝑵 → 2 nd ⁡ C ∈ 𝑵
39 37 38 syl ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 2 nd ⁡ C ∈ 𝑵
40 mulclpi ⊢ 1 st ⁡ B ∈ 𝑵 ∧ 2 nd ⁡ C ∈ 𝑵 → 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
41 35 39 40 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
42 xp1st ⊢ C ∈ 𝑵 × 𝑵 → 1 st ⁡ C ∈ 𝑵
43 37 42 syl ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ C ∈ 𝑵
44 xp2nd ⊢ B ∈ 𝑵 × 𝑵 → 2 nd ⁡ B ∈ 𝑵
45 33 44 syl ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 2 nd ⁡ B ∈ 𝑵
46 mulclpi ⊢ 1 st ⁡ C ∈ 𝑵 ∧ 2 nd ⁡ B ∈ 𝑵 → 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵
47 43 45 46 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵
48 addclpi ⊢ 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵 ∧ 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵 → 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵
49 41 47 48 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵
50 mulclpi ⊢ 1 st ⁡ A ∈ 𝑵 ∧ 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵
51 31 49 50 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵
52 mulclpi ⊢ 2 nd ⁡ B ∈ 𝑵 ∧ 2 nd ⁡ C ∈ 𝑵 → 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
53 45 39 52 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
54 mulclpi ⊢ 2 nd ⁡ A ∈ 𝑵 ∧ 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵 → 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
55 29 53 54 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
56 mulcanenq ⊢ 2 nd ⁡ A ∈ 𝑵 ∧ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵 ∧ 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵 → 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ~ 𝑸 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
57 29 51 55 56 syl3anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 2 nd ⁡ A ⋅ 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ~ 𝑸 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
58 25 57 eqbrtrid ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ~ 𝑸 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
59 mulpipq2 ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 → A ⋅ 𝑝𝑸 B = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B
60 27 33 59 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 B = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B
61 mulpipq2 ⊢ A ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → A ⋅ 𝑝𝑸 C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C
62 27 37 61 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C
63 60 62 oveq12d ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B + 𝑝𝑸 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C
64 mulclpi ⊢ 1 st ⁡ A ∈ 𝑵 ∧ 1 st ⁡ B ∈ 𝑵 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ∈ 𝑵
65 31 35 64 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ∈ 𝑵
66 mulclpi ⊢ 2 nd ⁡ A ∈ 𝑵 ∧ 2 nd ⁡ B ∈ 𝑵 → 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵
67 29 45 66 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵
68 mulclpi ⊢ 1 st ⁡ A ∈ 𝑵 ∧ 1 st ⁡ C ∈ 𝑵 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ∈ 𝑵
69 31 43 68 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ∈ 𝑵
70 mulclpi ⊢ 2 nd ⁡ A ∈ 𝑵 ∧ 2 nd ⁡ C ∈ 𝑵 → 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
71 29 39 70 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵
72 addpipq ⊢ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ∈ 𝑵 ∧ 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵 ∧ 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ∈ 𝑵 ∧ 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B + 𝑝𝑸 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C
73 65 67 69 71 72 syl22anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B + 𝑝𝑸 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C
74 63 73 eqtrd ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ A ⋅ 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ C
75 relxp ⊢ Rel ⁡ 𝑵 × 𝑵
76 1st2nd ⊢ Rel ⁡ 𝑵 × 𝑵 ∧ A ∈ 𝑵 × 𝑵 → A = 1 st ⁡ A 2 nd ⁡ A
77 75 27 76 sylancr ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A = 1 st ⁡ A 2 nd ⁡ A
78 addpipq2 ⊢ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → B + 𝑝𝑸 C = 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
79 33 37 78 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → B + 𝑝𝑸 C = 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
80 77 79 oveq12d ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 B + 𝑝𝑸 C = 1 st ⁡ A 2 nd ⁡ A ⋅ 𝑝𝑸 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
81 mulpipq ⊢ 1 st ⁡ A ∈ 𝑵 ∧ 2 nd ⁡ A ∈ 𝑵 ∧ 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B ∈ 𝑵 ∧ 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C ∈ 𝑵 → 1 st ⁡ A 2 nd ⁡ A ⋅ 𝑝𝑸 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
82 31 29 49 53 81 syl22anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → 1 st ⁡ A 2 nd ⁡ A ⋅ 𝑝𝑸 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
83 80 82 eqtrd ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 B + 𝑝𝑸 C = 1 st ⁡ A ⋅ 𝑵 1 st ⁡ B ⋅ 𝑵 2 nd ⁡ C + 𝑵 1 st ⁡ C ⋅ 𝑵 2 nd ⁡ B 2 nd ⁡ A ⋅ 𝑵 2 nd ⁡ B ⋅ 𝑵 2 nd ⁡ C
84 58 74 83 3brtr4d ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C ~ 𝑸 A ⋅ 𝑝𝑸 B + 𝑝𝑸 C
85 mulpqf ⊢ ⋅ 𝑝𝑸 : 𝑵 × 𝑵 × 𝑵 × 𝑵 ⟶ 𝑵 × 𝑵
86 85 fovcl ⊢ A ∈ 𝑵 × 𝑵 ∧ B ∈ 𝑵 × 𝑵 → A ⋅ 𝑝𝑸 B ∈ 𝑵 × 𝑵
87 27 33 86 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 B ∈ 𝑵 × 𝑵
88 85 fovcl ⊢ A ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → A ⋅ 𝑝𝑸 C ∈ 𝑵 × 𝑵
89 27 37 88 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 C ∈ 𝑵 × 𝑵
90 addpqf ⊢ + 𝑝𝑸 : 𝑵 × 𝑵 × 𝑵 × 𝑵 ⟶ 𝑵 × 𝑵
91 90 fovcl ⊢ A ⋅ 𝑝𝑸 B ∈ 𝑵 × 𝑵 ∧ A ⋅ 𝑝𝑸 C ∈ 𝑵 × 𝑵 → A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C ∈ 𝑵 × 𝑵
92 87 89 91 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C ∈ 𝑵 × 𝑵
93 90 fovcl ⊢ B ∈ 𝑵 × 𝑵 ∧ C ∈ 𝑵 × 𝑵 → B + 𝑝𝑸 C ∈ 𝑵 × 𝑵
94 33 37 93 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → B + 𝑝𝑸 C ∈ 𝑵 × 𝑵
95 85 fovcl ⊢ A ∈ 𝑵 × 𝑵 ∧ B + 𝑝𝑸 C ∈ 𝑵 × 𝑵 → A ⋅ 𝑝𝑸 B + 𝑝𝑸 C ∈ 𝑵 × 𝑵
96 27 94 95 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 B + 𝑝𝑸 C ∈ 𝑵 × 𝑵
97 nqereq ⊢ A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C ∈ 𝑵 × 𝑵 ∧ A ⋅ 𝑝𝑸 B + 𝑝𝑸 C ∈ 𝑵 × 𝑵 → A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C ~ 𝑸 A ⋅ 𝑝𝑸 B + 𝑝𝑸 C ↔ / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C = / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑝𝑸 C
98 92 96 97 syl2anc ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C ~ 𝑸 A ⋅ 𝑝𝑸 B + 𝑝𝑸 C ↔ / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C = / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑝𝑸 C
99 84 98 mpbid ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C = / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑝𝑸 C
100 99 eqcomd ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑝𝑸 C = / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C
101 mulerpq ⊢ / 𝑸 ⁡ A ⋅ 𝑸 / 𝑸 ⁡ B + 𝑝𝑸 C = / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑝𝑸 C
102 adderpq ⊢ / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑸 / 𝑸 ⁡ A ⋅ 𝑝𝑸 C = / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑝𝑸 A ⋅ 𝑝𝑸 C
103 100 101 102 3eqtr4g ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → / 𝑸 ⁡ A ⋅ 𝑸 / 𝑸 ⁡ B + 𝑝𝑸 C = / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑸 / 𝑸 ⁡ A ⋅ 𝑝𝑸 C
104 nqerid ⊢ A ∈ 𝑸 → / 𝑸 ⁡ A = A
105 104 eqcomd ⊢ A ∈ 𝑸 → A = / 𝑸 ⁡ A
106 105 3ad2ant1 ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A = / 𝑸 ⁡ A
107 addpqnq ⊢ B ∈ 𝑸 ∧ C ∈ 𝑸 → B + 𝑸 C = / 𝑸 ⁡ B + 𝑝𝑸 C
108 107 3adant1 ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → B + 𝑸 C = / 𝑸 ⁡ B + 𝑝𝑸 C
109 106 108 oveq12d ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑸 B + 𝑸 C = / 𝑸 ⁡ A ⋅ 𝑸 / 𝑸 ⁡ B + 𝑝𝑸 C
110 mulpqnq ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 → A ⋅ 𝑸 B = / 𝑸 ⁡ A ⋅ 𝑝𝑸 B
111 110 3adant3 ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑸 B = / 𝑸 ⁡ A ⋅ 𝑝𝑸 B
112 mulpqnq ⊢ A ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑸 C = / 𝑸 ⁡ A ⋅ 𝑝𝑸 C
113 112 3adant2 ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑸 C = / 𝑸 ⁡ A ⋅ 𝑝𝑸 C
114 111 113 oveq12d ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑸 B + 𝑸 A ⋅ 𝑸 C = / 𝑸 ⁡ A ⋅ 𝑝𝑸 B + 𝑸 / 𝑸 ⁡ A ⋅ 𝑝𝑸 C
115 103 109 114 3eqtr4d ⊢ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑸 B + 𝑸 C = A ⋅ 𝑸 B + 𝑸 A ⋅ 𝑸 C
116 addnqf ⊢ + 𝑸 : 𝑸 × 𝑸 ⟶ 𝑸
117 116 fdmi ⊢ dom ⁡ + 𝑸 = 𝑸 × 𝑸
118 0nnq ⊢ ¬ ∅ ∈ 𝑸
119 mulnqf ⊢ ⋅ 𝑸 : 𝑸 × 𝑸 ⟶ 𝑸
120 119 fdmi ⊢ dom ⁡ ⋅ 𝑸 = 𝑸 × 𝑸
121 117 118 120 ndmovdistr ⊢ ¬ A ∈ 𝑸 ∧ B ∈ 𝑸 ∧ C ∈ 𝑸 → A ⋅ 𝑸 B + 𝑸 C = A ⋅ 𝑸 B + 𝑸 A ⋅ 𝑸 C
122 115 121 pm2.61i ⊢ A ⋅ 𝑸 B + 𝑸 C = A ⋅ 𝑸 B + 𝑸 A ⋅ 𝑸 C