Using “compactness of funcoids” which I defined earlier, I’ve attempted to generalize the classic general topology theorem that compact topological spaces and uniform spaces bijectively correspond to each other.
I’ve resulted with the theorem
Theorem Let $latex f$ is a $latex T_1$-separable (the same as $latex T_2$ for symmetric transitive) compact funcoid and $latex g$ is an reflexive, symmetric, and transitive endoreloid such that $latex ( \mathsf{FCD}) g = f$. Then $latex g = \langle f \times f \rangle \uparrow^{\mathsf{RLD}} \Delta$.
But wait, reflexive, symmetric, and transitive endoreloid is practically the same as a uniform space.
So my theorem is about uniform spaces, just like as the classic theorem. I haven’t succeeded to generalize, I’ve just formulated and proved the same classical well known theorem.
A sad for me conclusion: My theory has not added value for the case of compact spaces. In this case my theory just coincides with classic general topology.
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