Scientists Locate the Missing Mass Inside the Proton
Nuclear physicists have found the location of matter inside the proton that comes from the strong force - a fundamental force that holds protons together.
Nuclear physicists have found the location of matter inside the proton that comes from the strong force - a fundamental force that holds protons together.
The Project 8 and He6-CRES collaborations use a new technique to set an upper limit on neutrino mass and prepare to test the nature of the weak force.
Theoretical calculations and experimental data combine to reduce uncertainty in a key reaction rate in modelling high-energy solar neutrinos.
Neural networks guided by physics are creating new ways to observe the complexities of plasmas.
A measurement tracking ‘direct’ photons from polarized proton collisions points to positive gluon polarization.
Machine learning and artificial intelligence accelerate nanomaterials investigations.
A new microscopy technique measures atomic-level distortions, twist angles, and interlayer spacing in graphene.
Researchers examine the structure of the low-energy nuclear states of carbon-12 using nuclear lattice effective field theory.
Solving atomic structure and binding for improved antiviral drugs.
Scientists illuminate the quantum dynamics of electrons in highly excited molecules.
Scientists use a common engineering approach to enhance the superconductivity and induce ferroelectricity in the quantum material strontium titanate.
MemHC improves the efficiency of complex supercomputer physics calculations by optimizing memory management.