University of Illinois researchers developed mats of metal oxide nanofibers that scrub sulfur from petroleum-based fuels much more effectively than traditional materials. Such efficiency could lower costs and improve performance for fuel-based catalysis, advanced energy applications and toxic gas removal.
Snow is the be-all and end-all for alpine ski resorts. Now a tiny sensor has been developed to determine how much cold gold there is on the slopes and how much more should be produced. The sensor is based on Norwegian radar technology and is no larger than a match head.
This new nanotechnology could be used for cancer diagnosis and give insight into the mechanisms of how cancer spreads throughout the body. The device provides a convenient and non-invasive alternative to biopsy, the current method for diagnosis of metastatic cancer.
One milligram per hour: fluid flow can be measured with great precision using a tiny 'wobbling' tube with a diameter of only 40 micrometres. Thanks to a new technique, the sensor, which makes use of the 'Coriolis effect', can be made even more compact.
A new technology developed at MIT may help to make biomarker detection much easier. The researchers, led by Sangeeta Bhatia, have developed nanoparticles that can home to a tumor and interact with cancer proteins to produce thousands of biomarkers, which can then be easily detected in the patient's urine.
Wissenschaftler des Helmholtz-Zentrums Dresden-Rossendorf haben herausgefunden, dass Gold stark magnetisch werden kann - wenn die Partikel klein genug und die richtigen Reaktionspartner vorhanden sind.
Professor Sargent, who is also the Vice-Dean, Research, of the Faculty of Applied Science & Engineering, is widely known as the inventor of full-spectrum solution-processed solar cells, a new class of solar energy harvesting devices based on colloidal quantum dots.
Synchronization phenomena are everywhere in the physical world - from circadian rhythms to side-by-side pendulum clocks coupled mechanically through vibrations in the wall. Researchers have now demonstrated synchronization at the nanoscale, using only light, not mechanics.
Using computers to calculate the extreme version of quantum entanglement - how the spin of every electron in certain electronic materials could be entangled with another electron's spin - the research team found a way to predict this characteristic. Future applications of the research are expected to benefit fields such as information technology.