"Infinity. Ahh. Saying infinity is a number, which it is not, it is very likely that infinity equals negative infinity. This can be proven (?) by this proof.
∞ = 1/0 | Given (?)
1/0 = 1/0 *-1/-1 | Identity property
1/0 = -1/0 | Simplify
1/0 = -1 * 1/0 | Factor
That is assuming that ∞ = 1/0.
Also, the fact that a graph touches an assymptote at both ∞ and -∞ suggests that thy are equal, because the graph is considered a function.
Infinity and negative infinity are equal. The number line is circular"
Sorry, none of what you're doing above is correct. You can't add new concepts (like 1/0) and expect that the algebraic structure will be the same.
In general, you can define things either way (with -infinity = infinity, or not). Neither is more "true", it's a matter of convention. It's more common, on the real
line, to have +/- infinity distinct. This is because the ordering < doesn't make sense on a circle, and we'd like to keep the order structure. Either way, introducing infinity ruins the algebraic structure though. So you can't add/multiply stuff with infinity in it and expect things to work out right.

Infinity. Ahh. Saying infinity is a number, which it is not, it is very likely that infinity equals negative infinity. This can be proven (?) by this proof.
∞ = 1/0 | Given (?)
1/0 = 1/0 *-1/-1 | Identity property
1/0 = -1/0 | Simplify
1/0 = -1 * 1/0 | Factor
That is assuming that ∞ = 1/0.
Also, the fact that a graph touches an assymptote at both ∞ and -∞ suggests that thy are equal, because the graph is considered a function.
Infinity and negative infinity are equal. The number line is circular.