Driven Spins: How Long-Range Interactions Dictate Thermal Chaos
New research reveals how periodically driven spin systems transition from order to thermalization depending on the strength of interactions between particles.
Science
Quantum Magic’s Reach: How Resources Spread Through Complex Systems
![The growth of magic-quantified by $W(t)$-under random brickwork Clifford circuits demonstrates a consistent relationship with entanglement and operator spreading velocities, exhibiting an upper bound defined by [Eq. (S10)] and remaining unaffected by boundary conditions or specific unitary choices within the studied architecture, as evidenced by analysis across $10^2$ circuit realizations with negligible error.](https://arxiv.org/html/2511.21487v1/x8.png)
New research reveals the mechanisms governing the propagation of quantum ‘magic’-a vital resource for computation-within systems governed by specific dynamics.
Fragile Superradiance: The Unexpected Instability of Quantum Light-Matter Coupling
New research reveals that the superradiant phase in the dissipative Quantum Rabi Model isn’t as stable as previously thought, exhibiting a finite lifetime even at large system sizes.
Mapping Movement: The Rise of Trajectory Foundation Models
A new generation of AI is learning to predict and understand motion, opening doors for advanced applications across robotics, autonomous systems, and beyond.
Electron Tremors Amplified: A New View of Relativistic Motion
Researchers have discovered a method to enhance the intrinsic ‘trembling’ motion of relativistic electrons, potentially opening a pathway for direct observation and a deeper understanding of fundamental quantum phenomena.
Entangling Paths: Harnessing Dark Modes for Robust Quantum Networks
Researchers demonstrate a novel method for generating and sustaining multi-particle entanglement in optomechanical systems using precise control of dark modes and mechanical coupling.
Taming Complexity in Quantum Field Theory with Continuous Tensor Networks
Researchers have developed a new optimization algorithm to overcome key limitations in relativistic continuous tensor networks, paving the way for more accurate simulations of complex quantum systems.
Quantum Mechanics’ Core Rule Isn’t a Rule at All
New research demonstrates that the Generalized Born Rule, a cornerstone of quantum theory, emerges naturally from the fundamental principles of probabilistic processes rather than being an arbitrary postulate.
Planet Paths: How Disks Shape Planetary Migration
New research reveals how ring-like structures within protoplanetary disks influence the movement of planets, leading to varied migratory fates.
Quantum States Under the Microscope: Mapping Teleportation and Nonlocality
New research provides a geometric framework for understanding and certifying quantum advantages in high-dimensional systems by analyzing the relationship between state fidelity and deviation.