A great success of staying ignorant.
Classy. Shall we start riffing on each other's mother?
Wrong.
(P ≠ Q) = ((1 ≠ 0) = (1 ~= 0) = (~ (1 = 0)) = (~1 ~= ~0))
≠
(P = Q) = ((~1 = 0) = (0 = 0) = (1 = ~0) = (1 = 1))
Let's break down the values. Since we are using a two-value system, it will be quite easy to show why they all equal each other. You have introduced P, Q, 1, and 0. I will replace P with 1 and Q with 0. Results will either be True or False. I will seperate the two "equations" using square brackets. Also replaced ~= with ≠
Original equation
[ (P ≠ Q) = ((1 ≠ 0) = (1 ~= 0) = (~ (1 = 0)) = (~1 ~= ~0)) ] ≠ [ (P = Q) = ((~1 = 0) = (0 = 0) = (1 = ~0) = (1 = 1))]
Subsituted Equation
[ (1 ≠ 0) = ((1 ≠ 0) = (1 ≠ 0) = (~ (1 = 0)) = (~1 ≠ ~0)) ] ≠ [ (1 = 0) = ((~1 = 0) = (0 = 0) = (1 = ~0) = (1 = 1)) ]
Working left to right to "reduce" the equation
[ (T) = ((T) = (T) = (~(F)) = (T)) ] ≠ [ (F) = ((T) = (T) = (T) = (T)) ]
[ (T) = ((T) = (T) = (T) = (T)) ] ≠ [ (F) = ((T) = (T) = (T) = (T)) ]
[ (T) = (T) ] ≠ [ (F) = (T) ]
[ T ] ≠ [ F ]
Guess what, you're right! The two are not the same!!!!
Let us focused on ~ (1 = 0)
If you claim that ((~ (1 = 0)) = (~1 = 0) = (1 = ~0)), then (~ (1 = 0)) ≠ ((1 ≠ 0) = (1 ~= 0))
Still sticking with results are True or False here. Still using ≠ to replace ~=. Breaking down the two equations side by side:
[ ((~ (1 = 0)) = (~1 = 0) = (1 = ~0)) ] = [ (~ (1 = 0)) ≠ ((1 ≠ 0) = (1 ≠ 0)) ]
[ (( ~ (F)) = (T) = (T)) ] = [ ( ~(F)) ≠ ((T) = (T)) ]
[ ((T) = (T) = (T)) ] = [ (T) ≠ (T) ]
[ (T) ] = [ (F) ]
F
Nope, your claim does not work.
I'd like to thank everyone ~doronshadmi for the help. Soon, I'll be on my way to be a Junior Rank semi-amateur Logician, 3rd Class, Wombat Division!