Inductive coupling between a superconducting resonator and a Josephson junction in germanium by means of flip-chip bonding enables microwave spectroscopy, showing discrete and gate-tunable Andreev bound states in short and long junctions.

A novel class of quantum circuits reveals how breaking space-reflection symmetry induces chiral spin transport, challenging traditional equilibrium concepts through a violation of the Gallavotti-Cohen symmetry.

Three equivalent formulas for classical stochastic entropy production become inequivalent in the quantum domain, revealing new facets of entropy production for quantum systems.

Probabilistic port-based teleportation is shown, for the first time, to allow a polynomial-size quantum circuit implementation.

A new approach for shaping single-qubit control pulses is experimentally shown to achieve fast gates with low errors and efficient calibration.

A thorough presentation of quasiprobabilities elucidates their potentially pivotal use in many important areas of quantum research.

Optimizing the weights of decoders using flag-qubit information achieves an increase in the threshold for color codes in quantum computing.

The state of the art on engineering topological superconductivity for the generation of Majorana bound states and applications on quantum technologies is discussed.

A novel scattering-mitigation scheme, using only an integrating sphere, is experimentally demonstrated to recover nearly 50% of mutual information in a quantum correlated two-mode squeezed state of light, despite a photon loss exceeding 85% in one of the modes.

Low crosstalk levels are achieved in a superconducting quantum processor, indicating the potential of scaling up to larger numbers of qubits.

A new dressed-state-based method for imaging ultracold atoms achieves subwavelength resolution and reveals the complementary capabilities of two opposite imaging strength regimes to spatially resolve nanoscale quantum states.

Numerical studies suggest that quantum optimization may provide a polynomial speedup over the best classical solvers for constraint satisfaction problems.

Higher-frequency superconducting qubits with increased thermal resilience are produced, allowing for scaling up of quantum processors with high heat dissipation budgets.

Autonomous stabilization of remote entanglement is achieved experimentally with a pair of noninteracting superconducting qubits connected by an open waveguide.

A new protocol enables the generation of arbitrary symmetric entangled states using only global single-qubit rotations in a torn Hilbert space, offering applications in variational quantum optimization with existing technology.

An efficient and practical protocol to prepare certain matrix product states using measurements and feedforward operations.

Using tools from universal quantum computation with magic states, a widely believed hypothesis—that the inefficiency in quantum computations arises owing to tracking enormous amounts of classical data—is falsified.

An investigation of higher-order cellular automata in the context of many-body physics shows the emergence of a large class of unexplored symmetry-protected topological phases of matter.

Experimental exploration of phase slips in fluxonium qubits validates theoretical models and identifies design parameter bounds to prevent decoherence.

A novel dissipative variational quantum algorithm, which outperforms previous unitary approaches, is proposed to study the ground-state properties of the ℤ${}_2$ lattice gauge theory.

Dynamic circuits that exploit midcircuit measurements, conditional feed-forward operations, and real-time logic outperform unitary quantum circuits on a large-scale quantum device.

State-of-the-art randomized measurement techniques allow for error-mitigated estimation of quantum Fisher information and verification of quantum metrological advantage on NISQ devices.

A resonator is inductively coupled to a superconducting island, enabling fast and high-fidelity measurement of its parity.

An acoustic resonator is used to drive Rabi oscillations between excited-state orbitals with good agreement with a theoretical model of the dynamics.

The experimental detection of macrodimerons confirms a novel, theoretically predicted molecular binding mechanism based on strong light-matter coupling.