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Quantum Max-Flow Min-Cut theorem

arXiv
Authors: Nengkun Yu

Year

2021

Paper ID

61050

Status

Preprint

Abstract Read

~2 min

Abstract Words

149

Citations

N/A

Abstract

The max-flow min-cut theorem is a cornerstone result in combinatorial optimization. Calegari et al. (arXiv:0802.3208) initialized the study of quantum max-flow min-cut conjecture, which connects the rank of a tensor network and the min-cut. Cui et al. (arXiv:1508.04644) showed that this conjecture is false generally. In this paper, we establish a quantum max-flow min-cut theorem for a new definition of quantum maximum flow. In particular, we show that for any quantum tensor network, there are infinitely many n, such that quantum max-flow equals quantum min-cut, after attaching dimension n maximally entangled state to each edge as ancilla. Our result implies that the ratio of the quantum max-flow to the quantum min-cut converges to 1 as the dimension n tends to infinity. As a direct application, we prove the validity of the asymptotical version of the open problem about the quantum max-flow and the min-cut, proposed in Cui et al. (arXiv:1508.04644 ).

Why This Paper Matters

  • It adds a 2021 reference point for readers tracking recent quantum research.
  • The max-flow min-cut theorem is a cornerstone result in combinatorial optimization.

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