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Theorem ecoprdi 3257
Description: Lemma used in proving distributive laws via equivalence classes.
Hypotheses
Ref Expression
ecoprdist.1 D = ((S × S) / R)
ecoprdist.2 (((zSwS) ∧ (vSuS)) → ([⟨z, w⟩]RF[⟨v, u⟩]R) = [⟨M, N⟩]R)
ecoprdist.3 (((xSyS) ∧ (MSNS)) → ([⟨x, y⟩]RG[⟨M, N⟩]R) = [⟨H, J⟩]R)
ecoprdist.4 (((xSyS) ∧ (zSwS)) → ([⟨x, y⟩]RG[⟨z, w⟩]R) = [⟨W, X⟩]R)
ecoprdist.5 (((xSyS) ∧ (vSuS)) → ([⟨x, y⟩]RG[⟨v, u⟩]R) = [⟨Y, Z⟩]R)
ecoprdist.6 (((WSXS) ∧ (YSZS)) → ([⟨W, X⟩]RF[⟨Y, Z⟩]R) = [⟨K, L⟩]R)
ecoprdist.7 (((zSwS) ∧ (vSuS)) → (MSNS))
ecoprdist.8 (((xSyS) ∧ (zSwS)) → (WSXS))
ecoprdist.9 (((xSyS) ∧ (vSuS)) → (YSZS))
ecoprdist.10 H = K
ecoprdist.11 J = L
Assertion
Ref Expression
ecoprdi ((ADBDCD) → (AG(BFC)) = ((AGB)F(AGC)))
Distinct variable group(s):   x,y,z,w,v,u,A   x,B,y,z,w,v,u   x,C,y,z,w,v,u   x,F,y,z,w,v,u   x,R,y,z,w,v,u   x,S,y,z,w,v,u   x,G,y,z,w,v,u   z,D,w,v,u

Proof of Theorem ecoprdi
StepHypRef Expression
1 ecoprdist.1 . 2 D = ((S × S) / R)
2 opreq1 3006 . . 3 ([⟨x, y⟩]R = A → ([⟨x, y⟩]RG([⟨z, w⟩]RF[⟨v, u⟩]R)) = (AG([⟨z, w⟩]RF[⟨v, u⟩]R)))
3 opreq1 3006 . . . 4 ([⟨x, y⟩]R = A → ([⟨x, y⟩]RG[⟨z, w⟩]R) = (AG[⟨z, w⟩]R))
4 opreq1 3006 . . . 4 ([⟨x, y⟩]R = A → ([⟨x, y⟩]RG[⟨v, u⟩]R) = (AG[⟨v, u⟩]R))
53, 4opreq12d 3014 . . 3 ([⟨x, y⟩]R = A → (([⟨x, y⟩]RG[⟨z, w⟩]R)F([⟨x, y⟩]RG[⟨v, u⟩]R)) = ((AG[⟨z, w⟩]R)F(AG[⟨v, u⟩]R)))
62, 5cleq12d 1115 . 2 ([⟨x, y⟩]R = A → (([⟨x, y⟩]RG([⟨z, w⟩]RF[⟨v, u⟩]R)) = (([⟨x, y⟩]RG[⟨z, w⟩]R)F([⟨x, y⟩]RG[⟨v, u⟩]R)) ↔ (AG([⟨z, w⟩]RF[⟨v, u⟩]R)) = ((AG[⟨z, w⟩]R)F(AG[⟨v, u⟩]R))))
7 opreq1 3006 . . . 4 ([⟨z, w⟩]R = B → ([⟨z, w⟩]RF[⟨v, u⟩]R) = (BF[⟨v, u⟩]R))
87opreq2d 3013 . . 3 ([⟨z, w⟩]R = B → (AG([⟨z, w⟩]RF[⟨v, u⟩]R)) = (AG(BF[⟨v, u⟩]R)))
9 opreq2 3007 . . . 4 ([⟨z, w⟩]R = B → (AG[⟨z, w⟩]R) = (AGB))
109opreq1d 3012 . . 3 ([⟨z, w⟩]R = B → ((AG[⟨z, w⟩]R)F(AG[⟨v, u⟩]R)) = ((AGB)F(AG[⟨v, u⟩]R)))
118, 10cleq12d 1115 . 2 ([⟨z, w⟩]R = B → ((AG([⟨z, w⟩]RF[⟨v, u⟩]R)) = ((AG[⟨z, w⟩]R)F(AG[⟨v, u⟩]R)) ↔ (AG(BF[⟨v, u⟩]R)) = ((AGB)F(AG[⟨v, u⟩]R))))
12 opreq2 3007 . . . 4 ([⟨v, u⟩]R = C → (BF[⟨v, u⟩]R) = (BFC))
1312opreq2d 3013 . . 3 ([⟨v, u⟩]R = C → (AG(BF[⟨v, u⟩]R)) = (AG(BFC)))
14 opreq2 3007 . . . 4 ([⟨v, u⟩]R = C → (AG[⟨v, u⟩]R) = (AGC))
1514opreq2d 3013 . . 3 ([⟨v, u⟩]R = C → ((AGB)F(AG[⟨v, u⟩]R)) = ((AGB)F(AGC)))
1613, 15cleq12d 1115 . 2 ([⟨v, u⟩]R = C → ((AG(BF[⟨v, u⟩]R)) = ((AGB)F(AG[⟨v, u⟩]R)) ↔ (AG(BFC)) = ((AGB)F(AGC))))
17 ecoprdist.2 . . . . . . . 8 (((zSwS) ∧ (vSuS)) → ([⟨z, w⟩]RF[⟨v, u⟩]R) = [⟨M, N⟩]R)
1817opreq2d 3013 . . . . . . 7 (((zSwS) ∧ (vSuS)) → ([⟨x, y⟩]RG([⟨z, w⟩]RF[⟨v, u⟩]R)) = ([⟨x, y⟩]RG[⟨M, N⟩]R))
1918adantl 305 . . . . . 6 (((xSyS) ∧ ((zSwS) ∧ (vSuS))) → ([⟨x, y⟩]RG([⟨z, w⟩]RF[⟨v, u⟩]R)) = ([⟨x, y⟩]RG[⟨M, N⟩]R))
20 ecoprdist.3 . . . . . . 7 (((xSyS) ∧ (MSNS)) → ([⟨x, y⟩]RG[⟨M, N⟩]R) = [⟨H, J⟩]R)
21 ecoprdist.7 . . . . . . 7 (((zSwS) ∧ (vSuS)) → (MSNS))
2220, 21sylan2 346 . . . . . 6 (((xSyS) ∧ ((zSwS) ∧ (vSuS))) → ([⟨x, y⟩]RG[⟨M, N⟩]R) = [⟨H, J⟩]R)
2319, 22eqtrd 1128 . . . . 5 (((xSyS) ∧ ((zSwS) ∧ (vSuS))) → ([⟨x, y⟩]RG([⟨z, w⟩]RF[⟨v, u⟩]R)) = [⟨H, J⟩]R)
24233impb 610 . . . 4 (((xSyS) ∧ (zSwS) ∧ (vSuS)) → ([⟨x, y⟩]RG([⟨z, w⟩]RF[⟨v, u⟩]R)) = [⟨H, J⟩]R)
25 ecoprdist.10 . . . . 5 H = K
26 ecoprdist.11 . . . . 5 J = L
27 opeq12 1878 . . . . . 6 ((H = KJ = L) → ⟨H, J⟩ = ⟨K, L⟩)
28 eceq2 3215 . . . . . 6 (⟨H, J⟩ = ⟨K, L⟩ → [⟨H, J⟩]R = [⟨K, L⟩]R)
2927, 28syl 12 . . . . 5 ((H = KJ = L) → [⟨H, J⟩]R = [⟨K, L⟩]R)
3025, 26, 29mp2an 520 . . . 4 [⟨H, J⟩]R = [⟨K, L⟩]R
3124, 30syl6eq 1140 . . 3 (((xSyS) ∧ (zSwS) ∧ (vSuS)) → ([⟨x, y⟩]RG([⟨z, w⟩]RF[⟨v, u⟩]R)) = [⟨K, L⟩]R)
32 ecoprdist.4 . . . . . 6 (((xSyS) ∧ (zSwS)) → ([⟨x, y⟩]RG[⟨z, w⟩]R) = [⟨W, X⟩]R)
33 ecoprdist.5 . . . . . 6 (((xSyS) ∧ (vSuS)) → ([⟨x, y⟩]RG[⟨v, u⟩]R) = [⟨Y, Z⟩]R)
3432, 33opreqan12d 3015 . . . . 5 ((((xSyS) ∧ (zSwS)) ∧ ((xSyS) ∧ (vSuS))) → (([⟨x, y⟩]RG[⟨z, w⟩]R)F([⟨x, y⟩]RG[⟨v, u⟩]R)) = ([⟨W, X⟩]RF[⟨Y, Z⟩]R))
35 ecoprdist.6 . . . . . 6 (((WSXS) ∧ (YSZS)) → ([⟨W, X⟩]RF[⟨Y, Z⟩]R) = [⟨K, L⟩]R)
36 ecoprdist.8 . . . . . 6 (((xSyS) ∧ (zSwS)) → (WSXS))
37 ecoprdist.9 . . . . . 6 (((xSyS) ∧ (vSuS)) → (YSZS))
3835, 36, 37syl2an 349 . . . . 5 ((((xSyS) ∧ (zSwS)) ∧ ((xSyS) ∧ (vSuS))) → ([⟨W, X⟩]RF[⟨Y, Z⟩]R) = [⟨K, L⟩]R)
3934, 38eqtrd 1128 . . . 4 ((((xSyS) ∧ (zSwS)) ∧ ((xSyS) ∧ (vSuS))) → (([⟨x, y⟩]RG[⟨z, w⟩]R)F([⟨x, y⟩]RG[⟨v, u⟩]R)) = [⟨K, L⟩]R)
40393impdi 630 . . 3 (((xSyS) ∧ (zSwS) ∧ (vSuS)) → (([⟨x, y⟩]RG[⟨z, w⟩]R)F([⟨x, y⟩]RG[⟨v, u⟩]R)) = [⟨K, L⟩]R)
4131, 40eqtr4d 1131 . 2 (((xSyS) ∧ (zSwS) ∧ (vSuS)) → ([⟨x, y⟩]RG([⟨z, w⟩]RF[⟨v, u⟩]R)) = (([⟨x, y⟩]RG[⟨z, w⟩]R)F([⟨x, y⟩]RG[⟨v, u⟩]R)))
421, 6, 11, 16, 413ecoptocl 3241 1 ((ADBDCD) → (AG(BFC)) = ((AGB)F(AGC)))
Colors of variables: wff set class
Syntax hints:   → wi 2   ∧ wa 196   ∧ w3a 581   = wceq 1091   ∈ wcel 1092  ⟨cop 1810   × cxp 2408  (class class class)co 3001  [cec 3198   / cqs 3199
This theorem is referenced by:  distrpq 3861  distrsr 3994  axdistr 4074
This theorem was proved from axioms:  ax-1 3  ax-2 4  ax-3 5  ax-mp 6  ax-4 673  ax-5 674  ax-6 675  ax-7 676  ax-gen 677  ax-8 798  ax-9 799  ax-10 800  ax-11 801  ax-12 802  ax-13 804  ax-14 805  ax-16 922  ax-17 925  ax-ext 1074  ax-rep 1075  ax-pow 1077
This theorem depends on definitions:  df-bi 128  df-or 197  df-an 198  df-3an 583  df-ex 679  df-sb 853  df-clab 1093  df-cleq 1097  df-clel 1099  df-rex 1206  df-v 1349  df-dif 1489  df-un 1490  df-in 1491  df-ss 1492  df-nul 1708  df-pw 1799  df-sn 1811  df-pr 1812  df-op 1815  df-uni 1920  df-br 2063  df-opab 2098  df-xp 2424  df-cnv 2426  df-dm 2428  df-rn 2429  df-res 2430  df-ima 2431  df-fv 2438  df-opr 3003  df-ec 3202  df-qs 3205
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