let X be OrtAfPl; :: thesis: ( X is satisfying_OPAP & X is satisfying_DES implies X is satisfying_PAP )
assume that
A1: X is satisfying_OPAP and
A2: X is satisfying_DES ; :: thesis: X is satisfying_PAP
let o be Element of X; :: according to CONMETR:def 2 :: thesis: for a1, a2, a3, b1, b2, b3 being Element of X
for M, N being Subset of X st M is being_line & N is being_line & o in M & a1 in M & a2 in M & a3 in M & o in N & b1 in N & b2 in N & b3 in N & not b2 in M & not a3 in N & o <> a1 & o <> a2 & o <> a3 & o <> b1 & o <> b2 & o <> b3 & a3,b2 // a2,b1 & a3,b3 // a1,b1 holds
a1,b2 // a2,b3

let a1, a2, a3, b1, b2, b3 be Element of X; :: thesis: for M, N being Subset of X st M is being_line & N is being_line & o in M & a1 in M & a2 in M & a3 in M & o in N & b1 in N & b2 in N & b3 in N & not b2 in M & not a3 in N & o <> a1 & o <> a2 & o <> a3 & o <> b1 & o <> b2 & o <> b3 & a3,b2 // a2,b1 & a3,b3 // a1,b1 holds
a1,b2 // a2,b3

let M, N be Subset of X; :: thesis: ( M is being_line & N is being_line & o in M & a1 in M & a2 in M & a3 in M & o in N & b1 in N & b2 in N & b3 in N & not b2 in M & not a3 in N & o <> a1 & o <> a2 & o <> a3 & o <> b1 & o <> b2 & o <> b3 & a3,b2 // a2,b1 & a3,b3 // a1,b1 implies a1,b2 // a2,b3 )
assume that
A3: ( M is being_line & N is being_line ) and
A4: ( o in M & a1 in M & a2 in M & a3 in M & o in N & b1 in N & b2 in N & b3 in N & not b2 in M & not a3 in N & o <> a1 & o <> a2 & o <> a3 & o <> b1 & o <> b2 & o <> b3 & a3,b2 // a2,b1 & a3,b3 // a1,b1 ) ; :: thesis: a1,b2 // a2,b3
reconsider o' = o, a1' = a1, a2' = a2, a3' = a3, b1' = b1, b2' = b2, b3' = b3 as Element of (Af X) by ANALMETR:47;
reconsider M' = M, N' = N as Subset of (Af X) by ANALMETR:57;
A5: ( M' is being_line & N' is being_line ) by A3, ANALMETR:58;
then A6: ( M' // M' & N' // N' ) by AFF_1:55;
now
assume A7: not M _|_ N ; :: thesis: a1,b2 // a2,b3
A8: now
assume A9: a1 = a2 ; :: thesis: a1,b2 // a2,b3
A10: not LIN o',a3',b2' by A4, A5, AFF_1:39;
A11: LIN o',b2',b3'
proof
o',b2' // o',b3' by A4, A6, AFF_1:53;
hence LIN o',b2',b3' by AFF_1:def 1; :: thesis: verum
end;
a3',b2' // a3',b3'
proof
a1 <> b1
proof
assume A12: a1 = b1 ; :: thesis: contradiction
o',a1' // o',a3' by A4, A6, AFF_1:53;
then LIN o',a1',a3' by AFF_1:def 1;
hence contradiction by A4, A5, A12, AFF_1:39; :: thesis: verum
end;
then a3,b2 // a3,b3 by A4, A9, ANALMETR:82;
hence a3',b2' // a3',b3' by ANALMETR:48; :: thesis: verum
end;
then b2' = b3' by A10, A11, AFF_1:23;
then a1',b2' // a2',b3' by A9, AFF_1:11;
hence a1,b2 // a2,b3 by ANALMETR:48; :: thesis: verum
end;
A13: now
assume A14: a2 = a3 ; :: thesis: a1,b2 // a2,b3
A15: not LIN o',a3',b2' by A4, A5, AFF_1:39;
A16: LIN o',b2',b1'
proof
o',b2' // o',b1' by A4, A6, AFF_1:53;
hence LIN o',b2',b1' by AFF_1:def 1; :: thesis: verum
end;
a3',b2' // a3',b1' by A4, A14, ANALMETR:48;
then b2' = b1' by A15, A16, AFF_1:23;
hence a1,b2 // a2,b3 by A4, A14, ANALMETR:81; :: thesis: verum
end;
A17: now
assume A18: a1 = a3 ; :: thesis: a1,b2 // a2,b3
A19: not LIN o',a3',b3'
proof
assume LIN o',a3',b3' ; :: thesis: contradiction
then LIN o',b3',a3' by AFF_1:15;
hence contradiction by A4, A5, AFF_1:39; :: thesis: verum
end;
A20: LIN o',b3',b1'
proof
o',b3' // o',b1' by A4, A6, AFF_1:53;
hence LIN o',b3',b1' by AFF_1:def 1; :: thesis: verum
end;
a3',b3' // a3',b1' by A4, A18, ANALMETR:48;
hence a1,b2 // a2,b3 by A4, A18, A19, A20, AFF_1:23; :: thesis: verum
end;
now
assume A21: ( a1 <> a2 & a2 <> a3 & a1 <> a3 ) ; :: thesis: a1,b2 // a2,b3
A22: ( b1 <> b2 & b2 <> b3 & b1 <> b3 )
proof
assume A23: ( b1 = b2 or b2 = b3 or b1 = b3 ) ; :: thesis: contradiction
A24: now
assume A25: b1 = b2 ; :: thesis: contradiction
A26: not LIN o',b2',a2'
proof
assume LIN o',b2',a2' ; :: thesis: contradiction
then LIN o',a2',b2' by AFF_1:15;
hence contradiction by A4, A5, AFF_1:39; :: thesis: verum
end;
A27: LIN o',a2',a3'
proof
o',a2' // o',a3' by A4, A6, AFF_1:53;
hence LIN o',a2',a3' by AFF_1:def 1; :: thesis: verum
end;
b2',a2' // b2',a3'
proof
b2,a2 // b2,a3 by A4, A25, ANALMETR:81;
hence b2',a2' // b2',a3' by ANALMETR:48; :: thesis: verum
end;
hence contradiction by A21, A26, A27, AFF_1:23; :: thesis: verum
end;
A28: now
assume A29: b2 = b3 ; :: thesis: contradiction
A30: not LIN o',b1',a1'
proof
assume LIN o',b1',a1' ; :: thesis: contradiction
then A31: a1' in N' by A4, A5, AFF_1:39;
o',a1' // o',a3' by A4, A6, AFF_1:53;
then LIN o',a1',a3' by AFF_1:def 1;
hence contradiction by A4, A5, A31, AFF_1:39; :: thesis: verum
end;
A32: LIN o',a1',a2'
proof
o',a1' // o',a2' by A4, A6, AFF_1:53;
hence LIN o',a1',a2' by AFF_1:def 1; :: thesis: verum
end;
b1',a1' // b1',a2' hence contradiction by A21, A30, A32, AFF_1:23; :: thesis: verum
end;
now
assume A33: b1 = b3 ; :: thesis: contradiction
A34: not LIN o',b1',a1'
proof
assume LIN o',b1',a1' ; :: thesis: contradiction
then A35: a1' in N' by A4, A5, AFF_1:39;
o',a1' // o',a3' by A4, A6, AFF_1:53;
then LIN o',a1',a3' by AFF_1:def 1;
hence contradiction by A4, A5, A35, AFF_1:39; :: thesis: verum
end;
A36: LIN o',a1',a3'
proof
o',a1' // o',a3' by A4, A6, AFF_1:53;
hence LIN o',a1',a3' by AFF_1:def 1; :: thesis: verum
end;
b1',a1' // b1',a3'
proof
b1,a1 // b1,a3 by A4, A33, ANALMETR:81;
hence b1',a1' // b1',a3' by ANALMETR:48; :: thesis: verum
end;
hence contradiction by A21, A34, A36, AFF_1:23; :: thesis: verum
end;
hence contradiction by A23, A24, A28; :: thesis: verum
end;
A37: now
assume A38: a3,b3 _|_ o,b2 ; :: thesis: a1,b2 // a2,b3
consider x being Element of X such that
A39: ( o,b2 _|_ o,x & o <> x ) by ANALMETR:51;
reconsider x' = x as Element of (Af X) by ANALMETR:47;
LIN o',x',x' by AFF_1:16;
then consider A' being Subset of (Af X) such that
A40: ( A' is being_line & o' in A' & x' in A' & x' in A' ) by AFF_1:33;
reconsider A = A' as Subset of X by ANALMETR:57;
A41: A _|_ N
proof
A42: A = Line o,x
proof
A43: for e1 being Element of X st e1 in A holds
LIN o,x,e1
proof
let e1 be Element of X; :: thesis: ( e1 in A implies LIN o,x,e1 )
assume A44: e1 in A ; :: thesis: LIN o,x,e1
reconsider e1' = e1 as Element of (Af X) by ANALMETR:47;
A' // A' by A40, AFF_1:55;
then o',x' // o',e1' by A40, A44, AFF_1:53;
then LIN o',x',e1' by AFF_1:def 1;
hence LIN o,x,e1 by ANALMETR:55; :: thesis: verum
end;
for e1 being Element of X st LIN o,x,e1 holds
e1 in A
proof
let e1 be Element of X; :: thesis: ( LIN o,x,e1 implies e1 in A )
assume A45: LIN o,x,e1 ; :: thesis: e1 in A
reconsider e1' = e1 as Element of (Af X) by ANALMETR:47;
LIN o',x',e1' by A45, ANALMETR:55;
hence e1 in A by A39, A40, AFF_1:39; :: thesis: verum
end;
hence A = Line o,x by A43, ANALMETR:def 12; :: thesis: verum
end;
o,x _|_ N by A3, A4, A39, ANALMETR:77;
hence A _|_ N by A39, A42, ANALMETR:def 15; :: thesis: verum
end;
consider e1' being Element of (Af X) such that
A46: ( a3',b2' // b3',e1' & b3' <> e1' ) by DIRAF:47;
not b3',e1' // A'
proof
assume A47: b3',e1' // A' ; :: thesis: contradiction
consider d1', d2' being Element of (Af X) such that
A48: ( d1' <> d2' & A' = Line d1',d2' ) by A40, AFF_1:def 3;
A49: ( d1' in A' & d2' in A' ) by A48, AFF_1:26;
d1',d2' // d1',d2' by AFF_1:11;
then d1',d2' // A' by A48, AFF_1:def 4;
then A50: b3',e1' // d1',d2' by A40, A47, AFF_1:45;
reconsider d1 = d1', d2 = d2' as Element of X by ANALMETR:47;
a3',b2' // d1',d2' by A46, A50, AFF_1:14;
then A51: a3,b2 // d1,d2 by ANALMETR:48;
d1,d2 _|_ o,b2 by A4, A41, A49, ANALMETR:78;
then a3,b2 _|_ o,b2 by A48, A51, ANALMETR:84;
then a3,b2 // a3,b3 by A4, A38, ANALMETR:85;
then LIN a3,b2,b3 by ANALMETR:def 11;
then LIN a3',b2',b3' by ANALMETR:55;
then LIN b2',b3',a3' by AFF_1:15;
hence contradiction by A4, A5, A22, AFF_1:39; :: thesis: verum
end;
then consider c3' being Element of (Af X) such that
A52: ( c3' in A' & LIN b3',e1',c3' ) by A40, AFF_1:73;
reconsider c3 = c3' as Element of X by ANALMETR:47;
A53: b3',e1' // b3',c3' by A52, AFF_1:def 1;
then A54: a3',b2' // b3',c3' by A46, AFF_1:14;
consider e1' being Element of (Af X) such that
A55: ( c3',a3' // a2',e1' & a2' <> e1' ) by DIRAF:47;
not a2',e1' // A'
proof end;
then consider c2' being Element of (Af X) such that
A60: ( c2' in A' & LIN a2',e1',c2' ) by A40, AFF_1:73;
reconsider c2 = c2' as Element of X by ANALMETR:47;
a2',e1' // a2',c2' by A60, AFF_1:def 1;
then c3',a3' // a2',c2' by A55, AFF_1:14;
then A61: ( c2 in A & c3,a3 // a2,c2 ) by A60, ANALMETR:48;
then A62: ( c2 in A & a3,c3 // a2,c2 ) by ANALMETR:81;
consider e1' being Element of (Af X) such that
A63: ( c3',a3' // a1',e1' & a1' <> e1' ) by DIRAF:47;
not a1',e1' // A'
proof end;
then consider c1' being Element of (Af X) such that
A68: ( c1' in A' & LIN a1',e1',c1' ) by A40, AFF_1:73;
reconsider c1 = c1' as Element of X by ANALMETR:47;
a1',e1' // a1',c1' by A68, AFF_1:def 1;
then c3',a3' // a1',c1' by A63, AFF_1:14;
then A69: ( c1 in A & c3,a3 // a1,c1 ) by A68, ANALMETR:48;
then A70: ( c1 in A & a3,c3 // a1,c1 ) by ANALMETR:81;
A71: ( o <> c3 & o <> c2 & o <> c1 )
proof
assume A72: ( o = c3 or o = c2 or o = c1 ) ; :: thesis: contradiction
now
assume ( o = c2 or o = c1 ) ; :: thesis: contradiction
then A75: ( a3,c3 // a2,o or a3,c3 // a1,o ) by A61, A69, ANALMETR:81;
( a2',o' // a2',a3' & a1',o' // a2',a3' ) by A4, A6, AFF_1:53;
then ( a2,o // a2,a3 & a1,o // a2,a3 ) by ANALMETR:48;
then a3,c3 // a2,a3 by A4, A75, ANALMETR:82;
then a3,a2 // a3,c3 by ANALMETR:81;
then LIN a3,a2,c3 by ANALMETR:def 11;
then LIN a3',a2',c3' by ANALMETR:55;
then A76: c3' in M' by A4, A5, A21, AFF_1:39;
o',c3' // o',c3' by AFF_1:11;
then A' // M' by A4, A5, A40, A52, A73, A76, AFF_1:52;
then A // M by ANALMETR:64;
hence contradiction by A7, A41, ANALMETR:73; :: thesis: verum
end;
hence contradiction by A72, A73; :: thesis: verum
end;
A77: ( not LIN b3,b1,a3 & not LIN b2,b1,a3 )
proof
assume ( LIN b3,b1,a3 or LIN b2,b1,a3 ) ; :: thesis: contradiction
then ( LIN b3',b1',a3' or LIN b2',b1',a3' ) by ANALMETR:55;
hence contradiction by A4, A5, A22, AFF_1:39; :: thesis: verum
end;
A78: ( not LIN a3,a1,c3 & not LIN a3,a2,c3 )
proof
assume ( LIN a3,a1,c3 or LIN a3,a2,c3 ) ; :: thesis: contradiction
then ( LIN a3',a1',c3' or LIN a3',a2',c3' ) by ANALMETR:55;
then A79: ( c3' in M' or c3' in M' ) by A4, A5, A21, AFF_1:39;
o',c3' // o',c3' by AFF_1:11;
then A' // M' by A4, A5, A40, A52, A71, A79, AFF_1:52;
then A // M by ANALMETR:64;
hence contradiction by A7, A41, ANALMETR:73; :: thesis: verum
end;
A80: ( LIN o,a3,a1 & LIN o,b3,b1 & LIN o,a3,a2 & LIN o,b2,b1 & LIN o,a1,a2 & LIN o,b2,b3 )
proof
( o',a3' // o',a1' & o',b3' // o',b1' & o',a3' // o',a2' & o',b2' // o',b1' & o',a1' // o',a2' & o',b2' // o',b3' ) by A4, A6, AFF_1:53;
then ( LIN o',a3',a1' & LIN o',b3',b1' & LIN o',a3',a2' & LIN o',b2',b1' & LIN o',a1',a2' & LIN o',b2',b3' ) by AFF_1:def 1;
hence ( LIN o,a3,a1 & LIN o,b3,b1 & LIN o,a3,a2 & LIN o,b2,b1 & LIN o,a1,a2 & LIN o,b2,b3 ) by ANALMETR:55; :: thesis: verum
end;
A81: ( LIN o,c3,c1 & LIN o,c3,c2 & LIN o,c1,c2 )
proof
A' // A' by A40, AFF_1:55;
then ( o',c3' // o',c1' & o',c3' // o',c2' & o',c1' // o',c2' ) by A40, A52, A60, A68, AFF_1:53;
then ( LIN o',c3',c1' & LIN o',c3',c2' & LIN o',c1',c2' ) by AFF_1:def 1;
hence ( LIN o,c3,c1 & LIN o,c3,c2 & LIN o,c1,c2 ) by ANALMETR:55; :: thesis: verum
end;
then b3,c3 // b1,c1 by A2, A4, A70, A71, A77, A78, A80, CONAFFM:def 1;
then A82: c3,b3 // c1,b1 by ANALMETR:81;
b2,c3 // b1,c2 by A2, A4, A62, A71, A77, A78, A80, A81, CONAFFM:def 1;
then A83: c3,b2 // c2,b1 by ANALMETR:81;
A84: not b2 in A not c3 in N then A87: c1,b2 // c2,b3 by A1, A4, A40, A41, A52, A60, A68, A71, A82, A83, A84, Def1;
A88: not LIN a1,a2,c1
proof
assume LIN a1,a2,c1 ; :: thesis: contradiction
then LIN a1',a2',c1' by ANALMETR:55;
then A89: c1' in M' by A4, A5, A21, AFF_1:39;
o',c1' // o',c1' by AFF_1:11;
then A' // M' by A4, A5, A40, A68, A71, A89, AFF_1:52;
then A // M by ANALMETR:64;
hence contradiction by A7, A41, ANALMETR:73; :: thesis: verum
end;
A90: not LIN c1,c2,b2
proof
assume LIN c1,c2,b2 ; :: thesis: contradiction
then A91: LIN c1',c2',b2' by ANALMETR:55;
c1' <> c2' hence contradiction by A40, A60, A68, A84, A91, AFF_1:39; :: thesis: verum
end;
c1,a1 // c2,a2 hence a1,b2 // a2,b3 by A2, A4, A71, A80, A81, A87, A88, A90, CONAFFM:def 1; :: thesis: verum
end;
now
assume A96: not a3,b3 _|_ o,b2 ; :: thesis: a1,b2 // a2,b3
consider x being Element of X such that
A97: ( o,b2 _|_ o,x & o <> x ) by ANALMETR:51;
reconsider x' = x as Element of (Af X) by ANALMETR:47;
LIN o',x',x' by AFF_1:16;
then consider A' being Subset of (Af X) such that
A98: ( A' is being_line & o' in A' & x' in A' & x' in A' ) by AFF_1:33;
reconsider A = A' as Subset of X by ANALMETR:57;
A99: A' // A' by A98, AFF_1:55;
A100: A _|_ N
proof
A101: A = Line o,x
proof
A102: for e1 being Element of X st e1 in A holds
LIN o,x,e1
proof
let e1 be Element of X; :: thesis: ( e1 in A implies LIN o,x,e1 )
assume A103: e1 in A ; :: thesis: LIN o,x,e1
reconsider e1' = e1 as Element of (Af X) by ANALMETR:47;
A' // A' by A98, AFF_1:55;
then o',x' // o',e1' by A98, A103, AFF_1:53;
then LIN o',x',e1' by AFF_1:def 1;
hence LIN o,x,e1 by ANALMETR:55; :: thesis: verum
end;
for e1 being Element of X st LIN o,x,e1 holds
e1 in A
proof
let e1 be Element of X; :: thesis: ( LIN o,x,e1 implies e1 in A )
assume A104: LIN o,x,e1 ; :: thesis: e1 in A
reconsider e1' = e1 as Element of (Af X) by ANALMETR:47;
LIN o',x',e1' by A104, ANALMETR:55;
hence e1 in A by A97, A98, AFF_1:39; :: thesis: verum
end;
hence A = Line o,x by A102, ANALMETR:def 12; :: thesis: verum
end;
o,x _|_ N by A3, A4, A97, ANALMETR:77;
hence A _|_ N by A97, A101, ANALMETR:def 15; :: thesis: verum
end;
consider e1' being Element of (Af X) such that
A105: ( a3',b3' // b2',e1' & b2' <> e1' ) by DIRAF:47;
not b2',e1' // A'
proof
assume A106: b2',e1' // A' ; :: thesis: contradiction
consider d1', d2' being Element of (Af X) such that
A107: ( d1' <> d2' & A' = Line d1',d2' ) by A98, AFF_1:def 3;
A108: ( d1' in A' & d2' in A' ) by A107, AFF_1:26;
d1',d2' // d1',d2' by AFF_1:11;
then d1',d2' // A' by A107, AFF_1:def 4;
then A109: b2',e1' // d1',d2' by A98, A106, AFF_1:45;
reconsider d1 = d1', d2 = d2' as Element of X by ANALMETR:47;
a3',b3' // d1',d2' by A105, A109, AFF_1:14;
then A110: a3,b3 // d1,d2 by ANALMETR:48;
d1,d2 _|_ o,b2 by A4, A100, A108, ANALMETR:78;
hence contradiction by A96, A107, A110, ANALMETR:84; :: thesis: verum
end;
then consider c3' being Element of (Af X) such that
A111: ( c3' in A' & LIN b2',e1',c3' ) by A98, AFF_1:73;
reconsider c3 = c3' as Element of X by ANALMETR:47;
b2',e1' // b2',c3' by A111, AFF_1:def 1;
then A112: a3',b3' // b2',c3' by A105, AFF_1:14;
consider e1' being Element of (Af X) such that
A113: ( c3',a3' // a1',e1' & a1' <> e1' ) by DIRAF:47;
not a1',e1' // A'
proof end;
then consider c1' being Element of (Af X) such that
A118: ( c1' in A' & LIN a1',e1',c1' ) by A98, AFF_1:73;
reconsider c1 = c1' as Element of X by ANALMETR:47;
a1',e1' // a1',c1' by A118, AFF_1:def 1;
then A119: c3',a3' // a1',c1' by A113, AFF_1:14;
then A120: ( c1 in A & c3,a3 // a1,c1 ) by A118, ANALMETR:48;
consider e1' being Element of (Af X) such that
A121: ( c3',a3' // a2',e1' & a2' <> e1' ) by DIRAF:47;
not a2',e1' // A'
proof end;
then consider c2' being Element of (Af X) such that
A126: ( c2' in A' & LIN a2',e1',c2' ) by A98, AFF_1:73;
reconsider c2 = c2' as Element of X by ANALMETR:47;
a2',e1' // a2',c2' by A126, AFF_1:def 1;
then A127: c3',a3' // a2',c2' by A121, AFF_1:14;
then A128: ( c2 in A & c3,a3 // a2,c2 ) by A126, ANALMETR:48;
A129: ( o <> c3 & o <> c2 & o <> c1 )
proof
assume A130: ( o = c3 or o = c2 or o = c1 ) ; :: thesis: contradiction
A131: now
assume A132: o = c3 ; :: thesis: contradiction
b2',o' // b3',b2' by A4, A6, AFF_1:53;
then a3',b3' // b3',b2' by A4, A112, A132, AFF_1:14;
then b3',b2' // b3',a3' by AFF_1:13;
then LIN b3',b2',a3' by AFF_1:def 1;
hence contradiction by A4, A5, A22, AFF_1:39; :: thesis: verum
end;
now
assume ( o = c2 or o = c1 ) ; :: thesis: contradiction
then A133: ( c3,a3 // a1,o or c3,a3 // a2,o ) by A119, A127, ANALMETR:48;
( a1,o // a1,a3 & a2,o // a1,a3 )
proof
( a1',o' // a1',a3' & a2',o' // a1',a3' ) by A4, A6, AFF_1:53;
hence ( a1,o // a1,a3 & a2,o // a1,a3 ) by ANALMETR:48; :: thesis: verum
end;
then c3,a3 // a1,a3 by A4, A133, ANALMETR:82;
then a3,a1 // a3,c3 by ANALMETR:81;
then LIN a3,a1,c3 by ANALMETR:def 11;
then LIN a3',a1',c3' by ANALMETR:55;
then A134: c3' in M' by A4, A5, A21, AFF_1:39;
o',c3' // o',c3' by AFF_1:11;
then A' // M' by A4, A5, A98, A111, A131, A134, AFF_1:52;
then A // M by ANALMETR:64;
hence contradiction by A7, A100, ANALMETR:73; :: thesis: verum
end;
hence contradiction by A130, A131; :: thesis: verum
end;
A135: not LIN a3,a1,c3 A137: not LIN b3,b1,a3
proof
assume LIN b3,b1,a3 ; :: thesis: contradiction
then LIN b3',b1',a3' by ANALMETR:55;
hence contradiction by A4, A5, A22, AFF_1:39; :: thesis: verum
end;
A138: ( LIN o,a3,a1 & LIN o,b3,b1 & LIN o,a3,a2 & LIN o,b2,b1 & LIN o,a1,a2 & LIN o,b2,b3 )
proof
( o',a3' // o',a1' & o',b3' // o',b1' & o',a3' // o',a2' & o',b2' // o',b1' & o',a1' // o',a2' & o',b2' // o',b3' ) by A4, A6, AFF_1:53;
then ( LIN o',a3',a1' & LIN o',b3',b1' & LIN o',a3',a2' & LIN o',b2',b1' & LIN o',a1',a2' & LIN o',b2',b3' ) by AFF_1:def 1;
hence ( LIN o,a3,a1 & LIN o,b3,b1 & LIN o,a3,a2 & LIN o,b2,b1 & LIN o,a1,a2 & LIN o,b2,b3 ) by ANALMETR:55; :: thesis: verum
end;
A139: ( LIN o,c3,c1 & LIN o,c3,c2 & LIN o,c1,c2 )
proof
( o',c3' // o',c1' & o',c3' // o',c2' & o',c1' // o',c2' ) by A98, A99, A111, A118, A126, AFF_1:53;
then ( LIN o',c3',c1' & LIN o',c3',c2' & LIN o',c1',c2' ) by AFF_1:def 1;
hence ( LIN o,c3,c1 & LIN o,c3,c2 & LIN o,c1,c2 ) by ANALMETR:55; :: thesis: verum
end;
a3,c3 // a1,c1 by A120, ANALMETR:81;
then b3,c3 // b1,c1 by A2, A4, A129, A135, A137, A138, A139, CONAFFM:def 1;
then A140: c3,b3 // c1,b1 by ANALMETR:81;
A141: not LIN b2,b1,a3
proof
assume LIN b2,b1,a3 ; :: thesis: contradiction
then LIN b2',b1',a3' by ANALMETR:55;
hence contradiction by A4, A5, A22, AFF_1:39; :: thesis: verum
end;
A142: not LIN a3,a2,c3 a3,c3 // a2,c2 by A128, ANALMETR:81;
then b2,c3 // b1,c2 by A2, A4, A129, A138, A139, A141, A142, CONAFFM:def 1;
then A144: c3,b2 // c2,b1 by ANALMETR:81;
A145: not b2 in A not c3 in N then A148: c1,b2 // c2,b3 by A1, A4, A98, A100, A111, A118, A126, A129, A140, A144, A145, Def1;
A149: not LIN a1,a2,c1 A151: not LIN c1,c2,b2
proof end;
c1,a1 // c2,a2 hence a1,b2 // a2,b3 by A2, A4, A129, A138, A139, A148, A149, A151, CONAFFM:def 1; :: thesis: verum
end;
hence a1,b2 // a2,b3 by A37; :: thesis: verum
end;
hence a1,b2 // a2,b3 by A8, A13, A17; :: thesis: verum
end;
hence a1,b2 // a2,b3 by A1, A4, Def1; :: thesis: verum