You're reading the public-facing archive of the Category Theory Zulip server.
To join the server you need an invite. Anybody can get an invite by contacting Matteo Capucci at name dot surname at gmail dot com.
For all things related to this archive refer to the same person.
I'm looking for generalizations/miscellaneous insights related to this idea, mostly out of curiosity: in the category of (labelled) state transition systems and (forward) simulations, consider "determinization", that thing from automata theory which transforms a possibly nondeterministic state machine S into a deterministic one D(S) whose states are elements of the powerset P(S). Well, D is a monad (or looks very much like one at least). The construction is interesting because its Kleisli arrows "S simulates D(S')" coincide with trace inclusion "Traces(S) is a subset of Traces(S')", so we can kinda say that D is a monad because set inclusion is transitive.
Can this idea be adapted to the setting where simulations are coalgebra morphisms?
Also there is another way to "determinize" a state machine, rather than P(S), is to construct a machine whose states are sets of traces. It's a bit scary from the point of view of automata since it's a priori not obvious that this preserves finiteness, but if you don't care about finiteness, that's (more or less) bisimilar to the "sets of states" construction. If there is a categorical generalization for the previous construction, is there a generalization of this other one, and are they the same?
sounds similar to the topic of https://arxiv.org/abs/1302.1046