Quantum-Statistical Computation
Giuseppe Castagnoli, David Ritz Finkelstein

TL;DR
This paper introduces quantum-statistical computation using spin-1 systems, demonstrating that certain logical relations are satisfied instantly due to quantum statistics, leading to faster ground-mode computation via annealing.
Contribution
It presents the concept of quantum-statistical computation with spin-1 systems and heuristically shows its potential for faster annealing-based ground-mode computation.
Findings
Quantum-statistical relations are satisfied instantly, reducing computation time.
Quantum-statistical ground-mode computation is faster than pure ground-mode methods.
The approach leverages quantum statistics for efficient logical relation satisfaction.
Abstract
Systems of spin 1, such as triplet pairs of spin-1/2 fermions (like orthohydrogen nuclei) make useful three-terminal elements for quantum computation, and when interconnected by qubit equality relations are universal for quantum computation. This is an instance of quantum-statistical computation: some of the logical relations of the problem are satisfied identically in virtue of quantum statistics, which takes no time. We show heuristically that quantum-statistical ground-mode computation is substantially faster than pure ground-mode computation when the ground mode is reached by annealing.
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Taxonomy
TopicsQuantum Computing Algorithms and Architecture · Quantum Mechanics and Applications · Quantum Information and Cryptography
