The first-ever computation of an atomic nucleus, the deuteron, on a quantum chip demonstrates that even today’s rudimentary quantum computers can solve nuclear physics questions.
Supercomputer simulations and theoretical analysis shed new light on when and how fast reconnection occurs.
Scientists use ion beams to write high-purity metal structures, enabling nanofabrication opportunities.
Researchers develop a method of identifying gene expression patterns in drought-resistant plants.
High-performance computing reveals the relationship between DNA and phosphorous uptake.
Large-scale simulations of quarks promise precise view of reactions of astrophysical importance.
Built from the bottom up, nanoribbons can be semiconducting, enabling broad electronic applications.
Neutrons provide the solution to nanoscale examination of living cell membrane and confirm the existence of lipid rafts.
For the first time, scientists modeled the spontaneous bifurcation of turbulence to high-confinement mode, solving a 35-year-old mystery.
Calculations of a subatomic particle called the sigma provide insight into the communication between subatomic particles deep inside the heart of matter.
Supercomputing calculations confirm that rare nickel-78 has unusual structure, offering insights into supernovas.
Mass spectrometry and high-performance computing combined, allowing scientists to study proteins that link internal processes to community attributes.
