Articles tagged with Optics
Researchers at Tata Institute of Fundamental Research used extreme magnetic pulses to create large-scale spin patterns, potentially useful for terahertz frequency range electronic devices. The induced spin patterns are robust and stay 'arrested' for up to ten days.
Researchers developed a precise stopwatch to count single photons, enhancing imaging technologies like forest mapping and disease diagnosis. The new time lens technology improves photon timing resolution by orders of magnitude.
A new compact system enables real-time, in-line 3D inspection of surfaces with micron-scale precision, enhancing quality control in industrial production. The system combines a fast steering mirror and high precision 1D confocal chromatic sensor to create a compact and lightweight measurement tool weighing just 300 grams.
The NIST-developed emberometer uses digital cameras to track embers in mid-air and reconstruct their 3D shapes. This tool helps researchers understand the behavior of embers, which can aid in developing better protection for structures during wildfires.
Researchers create genuine time-dependent topological system using ultracold atoms in periodically-driven optical honeycomb lattices, exhibiting unique electronic properties and chiral edge modes. The system's non-trivial topological properties are rooted in the non-trivial winding of its quasienergy spectrum.
Researchers at Institute for Basic Science develop new method to study superconductors using optical tools, enabling exploration of fluctuating superconductivity. Theoretical model shows significant changes in electric conductivity and light absorption near critical temperature.
Researchers have discovered a method to control the movement of microscopic crystals, enabling precise targeting of diseased organs for drug delivery. The crystals, which exhibit superparamagnetic properties, can be directed using a magnetic field, opening new applications for improving lives.
Researchers have successfully demonstrated quantum entanglement in solid-state devices, a breakthrough that could enable faster and more secure computing. The experiment uses electrons in a superconductor to create entangled pairs, which can be used to enhance computing performance and secure data transmission.
Physicists at NIST have developed a portable atomic clock based on a single mercury ion, outperforming the national standard clock by at least five times. The improved version of the mercury clock maintains accuracy for over 400 million years, opening up new possibilities for ultra-precise timekeeping and frequency standards.
A six-university collaboration, led by UCSB, aims to create a highly compact and energy-efficient chip. The project will utilize electron spin technology for memory, logic, and communications functions. Successful development could lead to breakthroughs in high-density storage, ultra-fast processing, and secure communication.