Neutron scattering experiments on ${\text{YbMnBi}}_2$ reveal that a dynamic spin nematic state coupled to magnetic fields generates scalar spin chirality, driving anomalous Hall and Nernst effects in the paramagnetic phase.

A quantum information framework classifies mixed-state topological phases for open quantum systems, introducing phase invariants based on an information convex set, memory capacity, and secret sharing.

Researchers introduce Scrooge $k$-designs to quantify how constrained quantum systems achieve universal randomness and deep thermalization.

An information-theoretic model of agents, i.e., complex self-organizing systems, shows that agents must forget parts of their past actions in order to operate at thermodynamic efficiency.

Structural superlubricity between gold micromesas and graphite enables high, wear-free interfacial thermal conductance that remains insensitive to sliding and rotation.

Ultrasound measurements in uranium ditelluride (${\text{UTe}}_2$) reveal precursor superconducting fluctuations up to twice the critical temperature, providing high kinetic inductance in a clean material.

Hydrostatic pressure continuously tunes the moiré potential in semiconductor superlattices, driving a crossover to a strong-moiré regime that hybridizes Wannier-Rydberg and charge-transfer excitons.

Researchers develop a hybrid qubit-boson quantum processor framework to simulate interacting fermions, bosons, and lattice gauge fields.

A scalable cavity array microscope architecture is presented, featuring over 600 independent optical cavities for parallelized light-matter interactions, providing opportunities for quantum networking and sensing applications.

Researchers establish an effective field theory capturing late-time out-of-time-order correlators to uncover hidden transport parameters.

Soft elastic fibers in microfluidic channels can create a fluid system with memory of previous actions through a flow-structure feedback.

Researchers show that auxiliary circuit modes trigger multiphoton resonances that break down Kerr-cat qubit coherence under strong driving.

Researchers demonstrate that bipartite Einstein-Podolsky-Rosen entanglement cannot be distilled from tripartite Haar random states by local operations.

Researchers establish a framework using local reversibility to correctly classify phases of matter in open and noisy quantum systems.

X-ray absorption spectroscopy under an applied electric field uncovers signatures of hidden higher-order magnetic multipoles in hematite (${\text{Fe}}_2{\text{O}}_3$), supported by theoretical calculations.

A theoretical framework for arbitrary-spin pyrochlore spin ice reveals that $S$ = 3/2 magnets alone switch abruptly between two distinct spin-liquid states, a transition that survives the thermal fluctuations that wash all the other transitions into crossovers.

Extension of time-reversal-doubled axion insulators to nonsymmorphic crystals establishes a spin-resolved classification scheme and identifies mixed bismuth monohalides as candidate materials.

Researchers extend quantum signal processing to noncommuting control variables, enabling analytical control of hybrid oscillator-qubit quantum processors.

Shockwave observations resolve the high pressure structural transition and melting temperature of MgO, a critical planetary building block.

Researchers develop a tensor-network framework using complex-time evolution to accurately compute low-lying excitation spectra of open quantum systems.

The BBGKY hierarchy is generalized to systems with strong integrable contact interactions and generic long-range two-body ones, enabling the computation of experimentally measurable expectation values and correlations for classical and quantum systems.

Edge-mediated nonlocal transport measurements in thin $\text{Fe(Te,Se)}$ devices reveal a robust conductance plateau governed by spontaneous magnetic ordering.

Numerous well-motivated particle-physics-based models are constrained using the most recent LIGO-Virgo gravitational-wave data.