Moving on Up, to the Top for Fusion Power
New approach doubles the current driven by microwave heating at the DIII-D National Fusion Facility
New approach doubles the current driven by microwave heating at the DIII-D National Fusion Facility
Material traps noble gases at above-freezing temperatures, a difficult and important industrial challenge.
A next-generation plastic can be recycled again and again into new materials of any color, shape, or form.
Researchers have engineered an all-solid state nanolaser system that can operate continuously at room temperature.
Collaboration between experiment and theory expands fundamental understanding of the chemistry of exotic radioactive heavy elements.
A new photoconductive metasurface paves the way for smaller, more efficient terahertz detectors.
Researchers have developed new artificial intelligence methods to enable “autonomous experimentation.”
New one-step method creates hollow nanostructures that can carry and deliver nanoscale cargos for medicine and other applications.
Injecting pellets into fusion plasma helps repair tears in fusion reactors’ magnetic fields, improving prospects for fusion energy.
3D magnetic fields can help control the plasma edge to prevent damaging bursts of heat and particles from fusion plasma.
Researchers create spiraling inorganic crystals that could hold unique properties.
Assessing the spin properties of electrons in advanced materials