Primitive Quantum Gates for Dihedral Gauge Theories
arXiv:2108.13305 · doi:10.1103/PhysRevD.105.114501
Abstract
We describe the simulation of dihedral gauge theories on digital quantum computers. The nonabelian discrete gauge group -- the dihedral group -- serves as an approximation to lattice gauge theory. In order to carry out such a lattice simulation, we detail the construction of efficient quantum circuits to realize basic primitives including the nonabelian Fourier transform over , the trace operation, and the group multiplication and inversion operations. For each case the required quantum resources scale linearly or as low-degree polynomials in . We experimentally benchmark our gates on the Rigetti Aspen-9 quantum processor for the case of . The fidelity of all gates was found to exceed .
Published version
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