New research explains how light can behave like a quantum fluid in semiconductors, opening up possibilities for new kinds of practical quantum light sources
A 3D soundwave lattice creates the first fully flat Landau levels, proving they can exist beyond two dimensions
New STM measurements show that shear strain decisively shapes flat-band structure across multiple magic angle regimes
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 unified theory shows how periodic light can mimic superconductivity and create a new hybrid mode: the Meissner polariton
Read article: Driving matter into new states
By extending attosecond interferometry into the quantum domain, researchers have revealed how ultrafast laser–matter interactions encode detailed quantum optical information
Read article: Attosecond interferometry meets quantum optics
Expert insights reveal why VSC converters and evolving semiconductor devices will dominate HVDC
Read article: Inside the technologies powering tomorrow’s grids
A hybrid model spanning hours to decades shows that a fully renewable energy system is achievable, with flexibility key to lowering costs
Read article: How to model a net‑zero system across timescales
Adhesive asperities, not abrasion, dominate fault friction and reshape our understanding of stick‑slip behaviour
Read article: The hidden mechanics behind earthquakes
Rapid solar expansion and diversified clean technologies are key to Nigeria’s net‑zero transition
Read article: Solar at the centre of Nigeria’s future
Physicists have directly imaged a novel laser-driven plasma wakefield, taking a large step towards compact, ultra high energy particle accelerators
Read article: Flying focus wakefields open a new acceleration regime
New research shows just how much classical communication is required in future quantum networks
Read article: Limits on communication in quantum measurements
A new first-principles approach provides a unified foundation for studying complex band structure and light confinement in periodic media
Read article: Trapping light in open space
New measurements reveal distinct fundamental, optical, and transport gaps in ferroelectric oxides, overturning long‑held assumptions about their electronic behaviour
Read article: Ferroelectric band gaps are not what we thought
New simulations and ultraclean films reveal the clearest picture yet of polaron transport in TiO₂
Read article: How polarons travel through TiO₂
Tuning Co₃Sn₂S₂’s surface switches the sign of its nonlinear transport
Read article: When Fermi arcs flip, the current flips