Synthetic membranes are used in a wide range of applications such as determining toxicity in the environment, identifying food contaminants and deadly diseases in body. A research team from Chile has now created a new method of producing ultra-thin membranes by vaporizing off-the-shelf chemicals over silicon surfaces.
A research team from Penn State University and Shinshu University have discovered a novel intercalation technique in the absence of an oxidizing agent for graphene manufacture, which will enable the wonder material to be produced at the industrial scale.
A study conducted by a research team headed by Qunyang Li, a postdoctoral researcher at the University of Pennsylvania, has provided new insights into the friction properties of graphene.
Technische Universität München (TUM) researchers have succeeded in observing the inner functioning of a battery without causing any damage to it. This study has enabled them to solve the lithium plating mystery.
Kyoto University researchers have developed a new technique to develop water-resistant functionalized materials by forming external grooves on its surface. Their study acts as a guide for scientists to design similar materials for gas separation and energy storage applications.
A Kickstarter campaign has been launched to provide Advanced 3D Imaging for free. Researchers, students, academic institutions and industries will be able to utilize the facility for non-invasive imaging of samples in 3D, 4D and 5D.
A highly efficient spin-charge converter has been created by a group of researchers at Institute of Physics at Johannes Gutenberg University Mainz (JGU) using gallium-arsenide (GaAs), a common semiconductor material.
For rapid and precise determination of liquids and gases, particularly in the trace range, the use of vertical systems has become standard. With the increase in complexity and viscosity of samples, however, it is necessary to use the horizontal mode.
Quartz glass, irradiated by a laser pulse, becomes a metal for a very short span of time (femtoseconds) and returns to its original state immediately afterwards. This phenomenon has now been explained by Vienna University of Technology (TU Wien) scientists in partnership with Tsukuba University researchers with the help of large-scale computer simulations.
Researchers at the Brookhaven National Laboratory of the U.S. Department of Energy have identified charge preferences and nanoscale asymmetries of the ferroelectric materials that may account for their operational limits.
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