Can hypercomputation compute all kinds of incomputable numbers/functions/problems…etc? Hypercomputation is a "cheat" that extends the capability of a Turing machine or quantum computer or cellular automaton by adding extra abilities. A standard method is "Oracle machines", Turing machines with an extra black box device that can be queried and give an output that normally would be uncomputable. For example, a halting oracle would tell the machine a bit encoding whether an input program would ever terminate. Such "hypercomputation" machines can calculate various forms of uncomputable outputs.

My questions are:

Is hypercomputation compatible with our laws of physics?
What about other incomputable things like Russell's set (things which its result is not computable because it does not exist)? Or what about other uncomputable/illogical/impossible/non-existent/inconsistent things? Are there hypercomputational systems that could encode/compute them?

Thank you for your help
It is a little hard to say for sure since since one has not found a final Theory Of Everything in physics. Mostly it seems that hypercomputation is physically impossible.

On the other hand, an amusing development is the work of Nemeti et al. on using time travel (closed timelike curves) to do hypercomputation.

The so-called Malament-Hogarth spacetimes are known for exactly this --- that one can compute forever in them and thus solve the halting problem.

Hogarth worked on this in the 90s and Welch showed that even a larger class of problems than those solvable using the halting problem (all hyperarithmetic problems) can be solved in MH-spacetimes. This does not include all oracles though, as there are uncountably many oracles and only countably many hyperarithmetic ones.

(As for things that are logically impossible, like Russell's set, they are also physically impossible since "physics obeys logic".)