AbstractFor each time bound T: {input strings} → {natural numbers} that is some machine's exact running time, there is a {0, 1}-valued function fT that can be computed within time proportional to T, but that cannot be computed within any time bound T′ that is infinitely often significantly smaller than T (T′ ≠ Ω(T), typically). Equivalently, every algorithm to compute fT requires time T′ on almost every input if T′ is almost everywhere significantly smaller than T (T′ = o(T), typically)
The constant speedup theorem, so well known from Tur-ing machine based complexity theory, is shown f...
The field of computational complexity theory--which chiefly aims to quantify the difficulty encounte...
We strengthen the nondeterministic hierarchy theorem for non-deterministic polynomial time to show t...
AbstractFor each time bound T: {input strings} → {natural numbers} that is some machine's exact runn...
AbstractA RAM program is said to run within a “strong” time bound T if on every sequence of n inputs...
AbstractRabin and Blum proved the existence of 0, 1-valued recursive functions which are arbitrarily...
A central goal of algorithmic research is to determine how fast computational problems can be solved...
AbstractThere is a single set that is complete for a variety of nondeterministic time complexity cla...
Challenging the standard notion of totality in computable functions, one has that, given any suffici...
AbstractWe analyze the fine structure of time complexity classes for RAMS, in particular the equival...
AbstractWe show that if the number of available states is fixed and is sufficiently large, then one-...
The field of computational complexity theory--which chiefly aims to quantify the difficulty encounte...
AbstractWe consider the Ko–Friedman notion of (non-uniform) time complexity for real functions appro...
AbstractWe prove that if BPP≠EXP, then every problem in BPP can be solved deterministically in subex...
AbstractA new lower bound on the computational complexity of the theory of real addition and several...
The constant speedup theorem, so well known from Tur-ing machine based complexity theory, is shown f...
The field of computational complexity theory--which chiefly aims to quantify the difficulty encounte...
We strengthen the nondeterministic hierarchy theorem for non-deterministic polynomial time to show t...
AbstractFor each time bound T: {input strings} → {natural numbers} that is some machine's exact runn...
AbstractA RAM program is said to run within a “strong” time bound T if on every sequence of n inputs...
AbstractRabin and Blum proved the existence of 0, 1-valued recursive functions which are arbitrarily...
A central goal of algorithmic research is to determine how fast computational problems can be solved...
AbstractThere is a single set that is complete for a variety of nondeterministic time complexity cla...
Challenging the standard notion of totality in computable functions, one has that, given any suffici...
AbstractWe analyze the fine structure of time complexity classes for RAMS, in particular the equival...
AbstractWe show that if the number of available states is fixed and is sufficiently large, then one-...
The field of computational complexity theory--which chiefly aims to quantify the difficulty encounte...
AbstractWe consider the Ko–Friedman notion of (non-uniform) time complexity for real functions appro...
AbstractWe prove that if BPP≠EXP, then every problem in BPP can be solved deterministically in subex...
AbstractA new lower bound on the computational complexity of the theory of real addition and several...
The constant speedup theorem, so well known from Tur-ing machine based complexity theory, is shown f...
The field of computational complexity theory--which chiefly aims to quantify the difficulty encounte...
We strengthen the nondeterministic hierarchy theorem for non-deterministic polynomial time to show t...