Recent years have witnessed advances in direct-method research on protein crystallography obtained by the research team led by Academician Fan Haifu from the Institute of Physics, Chinese Academy of Sciences.
The Institute of Microelectronics (IME), a research institute of the Agency for Science, Technology and Research (A*STAR), today announced the launch of a 3-Dimensional (3D) Through-Silicon Via (TSV) consortium to boost next generation 300mm wafer manufacturing capability for Singapore semiconductor industry to meet technology and product needs.
The European Commission's Directorate-General for Research has published a call for tenders for the assessment of impacts of NMP (Nanotechnology, materials, processes) technologies and changing industrial patterns on skills and human resources.
IBM scientists have demonstrated a promising and practical method that effectively eliminates the mechanical wear in the nanometer-sharp tips used in scanning probe-based techniques. This discovery can potentially be used in the development of next generation, more advanced computer chips that have higher performance and smaller feature sizes.
Researchers from the Basque technological centre CIDETEC-IK4, the Higher Centre for Scientific Research (CSIC) and the University of Berkeley (U.S.) have developed a highly sensitive electrochemical sensor that can detect possible mutations in DNA more quickly than has been possible in the past.
EU-funded researchers in Austria investigating ultracold atomic physics have generated an exotic state wherein atoms are aligned in a one-dimensional structure, creating a stable 'many-body phase' with new quantum mechanical states.
Research reported in the September issue of the journal Nature Nanotechnology finds that nanoscience and nanotechnology indeed are highly multidisciplinary - but not much more so than other modern disciplines such as medicine or electrical engineering that also draw on multiple areas of science and technology.
Fifty years after it was originally discovered, scientists at the Friedrich Miescher Institute for Biomedical Research have elucidated the function of a microscopic network of tubules found in neurons. This structure modulates the strength of connections between two neurons, thereby contributing to our ability to learn and to adapt to new situations.
Researchers isolated bacteria with large numbers of tiny projections called pili which were more efficient at transferring electrons to generate power in fuel cells than bacteria with a smooth surface.