From the particle scale to spacetime itself — the experiments testing the limits of the standard model.
A new theoretical framework demonstrates that alternating coupling patterns in superconducting circuits can eliminate phase noise, potentially reducing the overhead for fault-tolerant quantum computing.
Laboratory experiments suggest that intense magnetic fields can trap plasma streams, potentially explaining why coronal mass ejections are rarely observed on active stars.
High-resolution observations of the sun reveal previously unseen vortex structures that may explain the mechanics of solar heating.
New observations from the LHAASO observatory reveal that a binary star system accelerates particles to energies thirty times higher than previously thought possible.
Researchers at the Facility for Rare Isotope Beams have resolved a long-standing mystery regarding gamma-ray emissions in atomic nuclei.
Researchers have identified a maximum entropy rule that accurately forecasts the mass and spin of remnant black holes following cosmic collisions.
Researchers have successfully demonstrated a laboratory-based method to replicate the Penrose-Zel’dovich process, using synthetic rotation to extract energy from electromagnetic waves.
Indian researchers have identified a persistent plasma flow extending into the Sun’s upper chromosphere, confirming the long-theorised magnetic tree model of solar dynamics.
New spectroscopic modeling from Uppsala University resolves a long-standing discrepancy in solar chemistry by identifying significantly higher silver levels.
New observations of the L1544 prestellar core reveal how neutral gas slips past magnetic fields to initiate gravitational collapse.