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Researchers have successfully optimized a protocol to dynamically prepare quantum spin liquid states using simulations of up to 384 atoms, even in regimes where the ground state lacks such topological phases. This advancement demonstrates improved control over long-range entanglement dynamics, pushing the boundaries of what is achievable with current quantum simulation architectures.
Researchers optimize a method for creating quantum spin liquids

Quantum spin liquids are elusive long-range entangled states, and recent work centers on dynamically preparing a state with quantum spin liquid correlation, even when the ground state phase diagram does not exhibit such a topological phase. Researchers directly simulate the dynamical preparation in systems of up to N = 384 atoms, optimizing the extent of the quantum spin lake obtained.
Researchers from Harvard University and the University of Cambridge focused on a surprising approach to quantum spin liquids: dynamically creating these states rather than simply discovering them within existing materials. The team directly simulated the preparation of quantum spin "lakes", a specific type of short-lived quantum spin liquid, in systems of up to 384 atoms, optimizing the process to extend the spin-liquid properties over half the system size. Their work analyzed how preparation protocols affected these states, finding that in the optimal case, topological entanglement entropy plateaued close to γ = ln 2. Recent simulations demonstrated the successful preparation of quantum spin liquid properties extending over half the size of a 384-atom system, offering…
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