Nanotechnologists at the University of Twente's MESA+ research institute have developed a tiny chip that makes it easy to create micrometre scale gradients. Gradients are gradual transitions in specific properties, such as acidity.
Continued advancements using a NIST-developed molecular-level fabrication technique are leading to new discoveries in the metrology for molecular electronics by advancing large-area connections to molecules.
Scientists from the the NIST Center for Nanoscale Science and Technology and the University of Maryland have used a combination of electric fields and fluid flow to precisely move and rotate nanowires, and have demonstrated that this method can be used to manipulate nanowires regardless of whether they are made from dielectric, semiconducting, or metallic materials.
To make better mind maps, a group of French scientists - building on prototypes developed at the Cornell NanoScale Science and Technology Facility - have produced the world's first microscopic, organic transistors that can amplify and record signals from within the brain itself.
Cornell researchers have created a pore in 'Cornell Dots' - brightly glowing nanoparticles nicknamed C-Dots - that can carry medicine. This new and improved nanoscale courier may help light up cancer cells and provide a new patient-friendly, viable option to battle cancer.
A team of physicists at the Georgia Institute of Technology has examined how Bose-Einstein communication might work. The researchers determined the amount of time needed for quantum information to propagate across their BEC, essentially establishing the top speed at which such quantum computers could communicate.
Chinese scientists have made the very first experimental observation of a phenomenon known as the quantum anomalous Hall (QAH) effect, a discovery that will help accelerate the IT revolution and in developing low-power-consumption electronics.
A team led by David Reverter, a researcher at the Institute of Biotechnology and Biomedicine (IBB) of the UAB, has determined for the first time the three-dimensional structure of a protein pair: LC8 and Nek9. Depending on whether or not they bind, Nek9 ensures that the chromosomes group and separate correctly during cell division.
Nanowires and nanotubes, slender structures that are only a few billionths of a meter in diameter but many thousands or millions of times longer, have become hot materials in recent years. They exist in many forms - made of metals, semiconductors, insulators and organic compounds - and are being studied for use in electronics, energy conversion, optics and chemical sensing, among other fields.