The promise of quantum computing lies in harnessing programmable quantum devices for
practical applications such as efficient simulation of quantum materials and condensed …

Artificial spin ices are frustrated spin systems that can be engineered, in which fine tuning of
geometry and topology has allowed the design and characterization of exotic emergent …

We study the quantum spin dynamics of a frustrated XXZ model on a pyrochlore lattice by
using large-scale quantum Monte Carlo simulation and stochastic analytic continuation. In …

Studies of systems far from equilibrium open up new avenues for investigating exotic phases
of matter. A driven-dissipative frustrated spin system is examined in this study, and we …

A promising route to realize entangled magnetic states combines geometrical frustration with
quantum-tunneling effects. Spin-ice materials are canonical examples of frustration, and …

The Jordan-Wigner map in two dimensions is an exact lattice regularization of the 2 π-flux
attachment to a hard-core boson (or spin 1 2) leading to a composite fermion particle. When …

Dipolar-octupolar pyrochlore magnets in a strong external magnet field applied in the [110]
direction are known to form a “chain” state, with subextensive degeneracy. Magnetic …

It has been known since the pioneering work of Bernal, Fowler, and Pauling that common,
hexagonal (Ih) water ice is the archetype of a frustrated material: a proton-bonded network in …

We explore the physics of highly frustrated magnets in confined geometries, focusing on the
Coulomb phase of pyrochlore spin ices. As a specific example, we investigate thin films of …

We present a deep reinforcement learning framework where a machine agent is trained to
search for a policy to generate a ground state for the square ice model by exploring the …