QIP = PSPACE

Author:

Jain Rahul1,Ji Zhengfeng2,Upadhyay Sarvagya3,Watrous John3

Affiliation:

1. National University of Singapore

2. Perimeter Institute for Theoretical Physics and Institute of Software, Chinese Academy of Sciences

3. University of Waterloo

Abstract

This work considers the quantum interactive proof system model of computation, which is the (classical) interactive proof system model’s natural quantum computational analogue. An exact characterization of the expressive power of quantum interactive proof systems is obtained: the collection of computational problems having quantum interactive proof systems consists precisely of those problems solvable by deterministic Turing machines that use at most a polynomial amount of space (or, more succinctly, QIP = PSPACE). This characterization is proved through the use of a parallelized form of the matrix multiplicative weights update method, applied to a class of semidefinite programs that captures the computational power of quantum interactive proof systems. One striking implication of this characterization is that quantum computing provides no increase in computational power whatsoever over classical computing in the context of interactive proof systems, for it is well known that the collection of computational problems having classical interactive proof systems coincides with those problems solvable by polynomial-space computations.

Funder

National Natural Science Foundation of China

Publisher

Association for Computing Machinery (ACM)

Subject

Artificial Intelligence,Hardware and Architecture,Information Systems,Control and Systems Engineering,Software

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1. Quantum interactive proofs using quantum energy teleportation;Quantum Information Processing;2024-06-12

2. stateQIP = statePSPACE;2023 IEEE 64th Annual Symposium on Foundations of Computer Science (FOCS);2023-11-06

3. Estimating distinguishability measures on quantum computers;Physical Review A;2023-07-10

4. The Power of Unentangled Quantum Proofs with Non-negative Amplitudes;Proceedings of the 55th Annual ACM Symposium on Theory of Computing;2023-06-02

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