Quantum search processes in the cyclic group state spaces
Xijia Miao

TL;DR
This paper introduces a quantum dynamical method leveraging group symmetry to solve unstructured quantum search problems more efficiently in cyclic group state spaces, bypassing standard amplitude amplification limitations.
Contribution
It develops a multi-base dynamical representation for quantum states in cyclic groups, enabling solving search problems via dynamical parameters rather than direct measurement.
Findings
Quantum search in cyclic groups can be reduced to subspace problems.
Group symmetry properties facilitate more efficient search algorithms.
The method generalizes binary to multi-base dynamical representations.
Abstract
The hardness to solve an unstructured quantum search problem by a standard quantum search algorithm mainly originates from the low efficiency to amplify the amplitude of the marked state by the oracle unitary operation associated with other known quantum operations. In order to bypass the square speedup limitation of a standard quantum search algorithm it is necessary to develop other type of quantum search algorithms. It is described in detail in the paper for a quantum dynamical method to solve the quantum search problems in the cyclic group state space. The binary dynamical representation for a quantum state in the Hilbert space of the n-qubit quantum system is generalized to the multi-base dynamical representation for a quantum state in the cyclic group state space. Thus, any quantum state in the cyclic group state space may be described completely in terms of a set of dynamical…
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Taxonomy
TopicsQuantum Computing Algorithms and Architecture · Quantum Information and Cryptography · Computability, Logic, AI Algorithms
