By pairing a ferroelectric capacitor with a linear capacitor, researchers create a power‑efficient device with tuneable memory and strong nonlinear responses
Revealing how copper atoms shift under heat offers a blueprint for engineering materials with precisely controlled expansion
Topological surface states are found to mediate a strong, non‑oscillatory interaction that aligns magnetic moments and enhances ferromagnetic order
Now open for original research submissions across all aspects of physics and related areas. Find out more today.
Now open for original research submissions across all aspects of the global energy transition. Find out more today.
A team of researchers from Poland have developed new mathematical methods that could help enable better control of quantum entanglement and teleportation experiments
Read article: The mathematics of quantum entanglement
Quantum technologies rely on more than just entanglement. Another, less well-known ingredient is non-stabiliserness, often called magic
Read article: Revealing the magic in hybrid quantum systems
Doubly charged excitons in transition‑metal dichalcogenide bilayers may unlock an entirely new route to friction‑free charge flow
Read article: Superconductivity’s new contender
A unified field‑theoretic framework models open quantum spins across all coupling and memory regimes
Read article: A single theory for complicated quantum systems
Phosphorene hosts an orbital Chern insulator with an experimentally distinct orbital Hall effect
Read article: Revealing hidden orbital topology in light-element materials
Accurately predicting how a system responds to sudden changes is a major challenge across fields like climate science, finance, and epidemiology. Now, a team of researchers has dev...
Read article: Decoding the impact of sudden shocks: A new predictive framework for climate and complex systems
CMS researchers probed top‑quark pairs for signs of new scalar and pseudoscalar particles
Read article: The search for new bosons beyond Higgs
LETO/ETO superlattices achieve 20× thermopower enhancement through true 2D electron behaviour
Read article: Pushing thermopower to the 2D limit
New advances in entanglement witnesses allow researchers to verify genuine multipartite entanglement even in noisy, high‑dimensional and computationally relevant quantum states
Read article: Making multipartite entanglement easier to detect
Researchers show how sound waves can hold conserved spin angular momentum, resolving a long‑standing theoretical debate
Read article: Resolving the spin of sound
By analysing the Liouville gap in imaginary time, scientists reveal universal phase‑transition behaviour in both ground and finite‑temperature states
Read article: A breakthrough in modelling open quantum matter
A new framework shows how lost information in quantum systems gives rise to macroscopic entropy and the arrow of time
Read article: How reversibility becomes irreversible