With @foatorres, we present a non-Hermitian framework for modeling state-vector collapse under unified dynamics described by Schrödinger's eq. Chiral state conversion could stand as a mechanism for eliminating superpositions and solve the measurement pb https://t.co/oQn9QpJ8h5

The theoretical physicists Juan Maldacena and Ying Zhao helped create the “island formula,” a theoretical approach for exploring the interiors of black holes. When this method is applied to a whole universe, a puzzle emerges. https://t.co/HerizwJRbD

The standard band structure picture cannot be applied to amorphous materials as they lack crystal symmetry. Now a first-principles approach captures the possibility of band-like electron transport in amorphous solids, with In₂O₃ as an example. https://t.co/iFkBK57YcU

A foundation model for atomistic materials chemistry Atomistic simulations are the “engines” behind much of modern materials science. They tell us how atoms move, how bonds break, how defects migrate. But there’s a catch: accurate ab initio methods like density functional theory

Reinforcement learning of quantum circuit architectures for molecular potential energy curves: We aim at using #machinelearning methods for designing quantum variational principles in quantum chemistry. https://t.co/vLWexqJxAK Quantum chemistry and optimization are two of the

Lacking translational symmetry, the momentum-space description of quasicrystals is distinct from that of fully crystalline materials. Now, a quasicrystal with two 2D layers links different momenta from the individual layers, allowing new excitons to form. https://t.co/ynyH8kIs5r

Two regions of superconductivity are observed in the phase diagram of magic-angle twisted trilayer graphene. This may yield insight into the superconducting mechanism in moiré materials. https://t.co/WIji2rxocq

Advancing the performance of integrated circuits for next-generation electronic devices cannot be achieved solely through downscaling of transistors but requires the development of new interconnect materials, argue the authors of a new #SciencePerspective. https://t.co/zEoSQJIpTb

Recently published in @Nature, Decoded Quantum Interferometry (DQI), a new quantum algorithm achieving exponential speedup on select optimization problems. Learn more → https://t.co/U7VPMI1TKS

.@IBM reveals latest quantum processors—IBM Quantum Loon and IBM Quantum Nighthawk—and all future chips on our quantum development roadmap are being fabricated at the Albany NanoTech Complex (@CNSE) using 300mm semiconductor wafer technology: https://t.co/45p1ZwcMib #QDC25

#A new method enables detection of the elusive Unruh effect by converting its faint quantum signal into a distinct, early flash of light using superradiant atoms between high-quality mirrors. @physrevlett https://t.co/QGuYrYBred

Orbital effects of the magnetic field trigger metal-insulator transitions in correlated systems https://t.co/ExCNYDp8tb

Gyromorphs are a new class of functional correlated disordered materials with high rotational order that exhibit deeper isotropic bandgaps https://t.co/UNvRluP9mm

In @Nature, a Princeton team of researchers reported that their new qubit design lasts 3x longer than the best ever reported in a lab setting, bringing quantum computing “out of the realm of merely possible and into the realm of practical.” https://t.co/eD5N8iZb3l

PsiQuantum’s founding thesis is that utility-scale quantum computers can be built like conventional supercomputers — leveraging the same mature fabs and semiconductor supply chains that are now scaling AI infrastructure at breakneck speed.

Today, we launched Helios, a technological marvel redefining the possible. Helios is the most accurate quantum computer in the world, with 98 of the highest fidelity physical qubits ever released, and 48 error-corrected logical qubits. Learn more: https://t.co/pkvTsS9poF

A research team at TU Wien has uncovered something astonishing: quantum entanglement the mysterious bond connecting particles across space doesn’t form instantly. Instead, it takes about 232 attoseconds (a quintillionth of a second) to fully emerge. Using advanced computer

##Electrons in Kagome crystals exhibit geometry-driven #QuantumCoherence, forming collective states that depend on the crystal’s shape—suggesting new ways to control quantum behavior through material design. @nature https://t.co/aGLciG9xaO

A team led by @MIT_NSE Professor Mingda Li developed a technique that lets popular generative materials models create promising quantum materials by following specific design rules. https://t.co/HyrwiFC92N

$IONQ  Steve Brierly, chief executive of Riverlane, believes that the first error-corrected quantum computer, with around 10 000 physical qubits supporting 100 logical qubits and capable of a million QuOps (a megaQuOp), could come as soon as 2027.

#Quantum computers face fundamental limits: identifying phases of #Matter in unknown quantum states can require computation times that grow exponentially, making some problems effectively unsolvable. @arxiv https://t.co/E6a19t5lkK