The phase diagram of strong interactions in nature at finite temperature and chemical
potential remains largely theoretically unexplored due to inadequacy of Monte-Carlo–based …

Preparing ground states and thermal states is essential for simulating quantum systems on
quantum computers. Despite the hope for practical quantum advantage in quantum …

Calculating the equilibrium properties of condensed-matter systems is one of the promising
applications of near-term quantum computing. Recently, hybrid quantum-classical time …

Many quantum algorithms rely on the measurement of complex quantum amplitudes.
Standard approaches to obtain the phase information, such as the Hadamard test, give rise …

Preparing finite-temperature states in quantum simulators of spin systems, such as trapped
ions or Rydberg atoms in optical tweezers, is challenging due to their almost perfect …

We introduce an algorithm to compute expectation values of time-evolved observables on
digital quantum computers that requires only bounded average circuit depth to reach …

We show that it is possible to perform Heisenberg-limited metrology on GHZ-like states, in
the presence of generic spatially local, possibly strong interactions during the measurement …

We propose a method to calculate finite-temperature properties of a quantum many-body
system for a microcanonical ensemble by introducing a pure quantum state named here an …

Disorder-free localization is a paradigm of strong ergodicity breaking that has been shown to
occur in global quenches of lattice gauge theories when the system is initialized in a …

Simulating properties of quantum materials is one of the most promising applications of
quantum computation, both near-and long-term. While real-time dynamics can be …