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    Quantum computation models can simulate classical Turing ... — Carmelics
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    Supports→BQP contains both P and BPP

    Quantum computation models can simulate classical Turing machines and probabilistic Turing machines

    Modality & PossibilityTruth & Knowledge
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    BQP contains both P and BPP

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    Quantum computation models can simulate classical Turing machines94%Quantum models can simulate classical models such as the classical Tur...90%The standard Turing machine model corresponds to a special case of the...87%Any computation can, in principle, be modeled on Turing machines.84%

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    \(\textbf{BPP}\) can now be defined to include the problems \(X\) such that there exists a probabilistic Turing machine \(C \in \mathfrak{C}\) and a constant \(\frac{1}{2} \lt p \leq 1\) with the following properties: \(C\) runs in polynomial time for all inputs; for all inputs \(x \in X\), at least fraction \(p\) of the possible computations of \(C\) on \(x\) accept; for all inputs \(x \not\in X\), at least fraction \(p\) of the possible computations of \(C\) on \(x\) reject. e. with probab

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