Articles tagged with Holmium
A new type of ultrafast laser technology is being developed to create high-precision microstructures, such as those needed for smartphone displays. The project aims to make the technology cheaper and more efficient, with potential applications in glass processing, polymer ablating, and future laser surgery.
Researchers successfully demonstrate room-temperature multiband microlasers spanning a large wavelength range using rare earth elements. The lasing process combines downshifting and upconversion, expanding the emission wavelength range. The resulting microlasers exhibit good intensity stability and are suitable for practical applications.
Researchers have discovered a three-channel Kondo effect in a cubic holmium compound using numerical methods, predicting an exotic quantum ground state and potential applications. The study found a residual entropy value at ultra-low temperatures, matching the predicted value by the three-channel Kondo effect.
Researchers discovered that a single soft x-ray can destroy a protein-sized molecule by inducing radiation damage in neighboring atoms. The findings could lead to safer medical imaging and a better understanding of heavy metals' electronic properties.
EPFL researchers use Scanning Tunneling Microscopy to demonstrate the stability of a holmium single-atom magnet in extreme conditions. They achieve record-breaking coercivity and show that these atoms can withstand high temperatures without demagnetizing.
Researchers use Scanning Tunneling Microscope to store and read information in individual holmium atoms, achieving unprecedented miniaturization of storage media. The discovery could revolutionize quantum computing and pave the way for high-density data storage.
EPFL scientists have built a single-atom magnet with stable remanence at 40 Kelvin, paving the way for miniature magnetic storage devices. This achievement could lead to significant advancements in data storage technology.
A team of scientists resolved a discrepancy in the decay energy of Holmium-163, paving the way for measuring the neutrino mass. The research used the Penning-trap mass spectrometer SHIPTRAP and confirmed a decay energy of 2,833 eV with high precision.
Researchers from KIT have successfully stabilized a single atom's magnetic spin for ten minutes, opening up possibilities for compact computer memories and quantum computers. By suppressing surrounding interactions at low temperatures, they achieved a stability period of about a billion times longer than comparable atomic systems.