Latest High-temperature superconductivity Stories
Scientists seeking to understand the intricacies of high-temperature superconductivity—the ability of certain materials to carry electrical current with no energy loss—have been particularly puzzled by a mysterious phase that emerges as charge carriers are added that appears to compete with superconductivity.
Research from North Carolina State University finds that impurities can hurt performance – or possibly provide benefits – in a key superconductive material that is expected to find use in a host of applications, including future particle colliders.
Brookhaven Lab researchers captured the distribution of multiple orbital electrons to help explain the emergence of superconductivity in iron-based materials
Nearly 30 years after the discovery of high-temperature superconductivity, many questions remain, but an Oak Ridge National Laboratory team is providing insight that could lead to better superconductors.
UBC researchers have discovered a universal electronic state that controls the behavior of high-temperature superconducting copper-oxide ceramics.
Classical and high-temperature superconductors differ hugely in the value of the critical temperatures at which they lose all electrical resistance.
Understanding superconductivity – whereby certain materials can conduct electricity without any loss of energy – has proved to be one of the most persistent problems in modern physics.
Scientists introduce a general theoretical approach that describes all known forms of high-temperature superconductivity and their "intertwined" phases
Transparency Market Research adds new "Global Superconductors Market - industry Analysis, Share, Size, Growth, and Forecast, 2012 - 2018" market research report to its report store.
A German-French research team has constructed a new model that explains how the so-called pseudogap state forms in high-temperature superconductors.
- Stoppage; cessation (of labor).
- A standing still or idling (of mills, factories, etc.).