
We show that, for any abstract complexity measure in the sense of Blum and for any computable function f (or computable operator F), the class of problems that are f-speedable (or F-speedable) does not have effective measure 0. On the other hand, for sufficiently fast growing f (or F), the class of non-speedable computable problems does not have effective measure 0. These results answer some questions raised by Calude and Zimand. We also give a quantitative analysis of Borodin and Trakhtenbrot's Gap Theorem, which corrects a claim by Calude and Zimand.
Complexity of computation (including implicit computational complexity), speedable problems, non-speedable problems, computable operator, effective measure, gap theorem, structural complexity theory, effective Baire category, Theory of numerations, effectively presented structures
Complexity of computation (including implicit computational complexity), speedable problems, non-speedable problems, computable operator, effective measure, gap theorem, structural complexity theory, effective Baire category, Theory of numerations, effectively presented structures
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