What Causes High-temperature Superconductivity?
A phase change at absolute zero temperature may provide key insights into the decades-old mystery of high-temperature superconductivity.
A phase change at absolute zero temperature may provide key insights into the decades-old mystery of high-temperature superconductivity.
Nano-structuring may help superconductors overcome a decades-long barrier to use in more powerful motors and magnets.
Designing protein assemblies whose interactions can be manipulated to respond to a single environmental cue.
Advances in how we calculate optical properties of semiconductors shorten the path to improved solar cells and other optoelectronic devices.
When it comes to stressing a crystal during irradiation, not all atoms are created equal.
High magnetic fields reveal the existence of nitrogen superclusters.
Ordered arrays of functional proteins with designed molecular properties created through self-assembly by combining proteins and synthetic polymers.
Nanoscale imaging of the current generated by light provides insights for future generation optoelectronic devices.
Atomic-Scale, femtosecond time-scale measurements unravel the atomistic pathways and speed limits for copper migration through a nanocrystal.
New porous, electrically conductive materials have potential uses in fuel cells, batteries, and solar photovoltaics.
Structure and composition of the Solid Electrolyte Interphase in lithium ion batteries was investigated via a unique combination of microscopy and spectroscopy.
This observation paves the way for a deeper understanding of high-temperature superconductivity and future applications for quantum computing.