A novel method makes it possible to measure oxygen in cells and other biological material with previously un-attainable precision. The method is based on rare earth compounds emitting colored light that vary in color with the amount of oxygen present in the sample. Because emissions are in the visible range of the spectrum, it will be possible to measure oxygen using the optical microscopes already present in most hospitals.
Are cellulose nanocrystals harmful to human health? The answer might depend on the route of exposure, according to a review of the literature, but there have been few studies and many questions remain.
A new $10 million gift from Ronald and JoAnne Willens to Northwestern University's International Institute for Nanotechnology (IIN) will establish an interdisciplinary research center that will use advances in nanotechnology to develop new cancer treatments. It will be one of the first centers of its kind in the country.
Operating Committee of Materials Science-2015 invites researchers, academicians, scientists, Institutions, corporate entities, associations and students across the world to attend the 4th International Conference and Exhibition on Material Science and Engineering during September 14-16, 2015, at Florida, USA with the theme 'Highlighting and Focusing on future prospects in Materials Science & Engineering'.
Researchers have shown that it is possible to prepare methane hydrates in a laboratory by imitating, and even enhancing, natural processes through the use of activated carbon materials as nano-reactors.
A three-year US-Ireland collaborative scientific project aims to reduce power consumption and increase battery life in mobile devices. Researchers will explore new semiconducting materials in the miniaturisation of transistors which are essential to all portable devices.
If you put a camera in the ice machine and watched water turn into ice, the process would look simple. But the mechanism behind liquids turning to solids is actually quite complex, and understanding it better could improve design and production of metals.
By applying extreme pressure in a diamond anvil cell to metal films on diamond, researchers have now determined the physical process dominating this unexplained heat flow, which has implications for understanding and improving heat flow between any two materials.
Using carbon composites with a porous structure to increase surface area and nanotubes to enhance conductivity, research demonstrates that these nanomaterials are able to catalyse oxygen reduction as efficiently as the state-of-the-art non-precious metal catalysts - and with a longer stability.
Researchers have shed new light on the mechanisms of thermal conductivity in graphene and other two-dimensional materials. They have demonstrated that heat propagates in the form of a wave, just like sound in air.