Researchers at the University of Sheffield have discovered a new way of making small molecules self-assemble into complex nanopatterns, which will push the limits of what is possible in 'bottom-up' methods of nanopatterning for advanced functional materials through molecular self-assembly.
Researchers at Eindhoven University of Technology have developed a replacement for indium tin oxide (ITO), an important material used in displays for all kinds of everyday products such as TVs, telephones and laptops, as well as in solar cells. Unfortunately indium is a rare metal, and the available supplies are expected to be virtually exhausted within as little as ten years. The replacement material is a transparent, conducting film produced in water, and based on electrically conducting carbon nanotubes and plastic nanoparticles. It is made of commonly available materials, and on top of that is also environment-friendly.
Using a special reactor inside a clean room, researchers apply nanometer thick films of aluminum oxide to a sample silver wafer about the size of a silver dollar. The films conform to the recesses and protrusions of the silver, creating a protective barrier.
Science and technology meet art: Nano images, taken directly from the labs of German research institutions, will be on view at the German Center for Research and Innovation (GCRI) from April 13 until June 10.
The NanoCode Synthesis Report on its Stakeholder CoC Survey (pdf) provides the findings of the international, quantitative and qualitative NanoCode survey about the European Code of Conduct for Responsible Nanosciences and Nanotechnologies Research (EU-CoC). The results summarised in this report give insights into stakeholder's patterns of awareness, their expectations, attitudes and appraisals. The survey analyses the degree of compliance and commitment, identifies recommendations for the communication, possible incentives, disincentives and monitoring of the EU-CoC.
Nicknamed "SACLA" (SPring-8 Angstrom Compact Free Electron Laser), the new XFEL's intense beams will open a unique window onto the minuscule structure of molecules and rapid reaction of chemical species.
Tyndall National Institute has began the coordination of a 3m euros EU project for the development of novel smart sensing materials for applications in water purification technology and clinical diagnostics.
Controlling how molecules move on surfaces could be the key to more potent drugs that block the attachment of viruses to cells, and will also speed development of new materials for electronics and energy applications.
Exactly 100 years ago today, physicist Kamerlingh Onnes cooled mercury to 4.2 degrees Kelvin, or -450 Fahrenheit, and discovered that it conducted an electric current perfectly - no electricity was lost as heat or friction. This phenomenon is called superconductivity.
To train new scientists and engineers to combat the spread of cancer, Johns Hopkins Institute for NanoBioTechnology (INBT) has established a pre-doctoral (PhD) training program in Nanotechnology for Cancer Medicine. Together with the institute's previously established Nanotechnology for Cancer Medicine postdoctoral fellowship, these two training programs will comprise the Johns Hopkins Cancer Nanotechnology Training Center (CNTC).
To address occupational risks of nanomaterials, WHO is developing Guidelines to "Protecting Workers from Potential Risks of Manufactured Nanomaterials" (WHO/NANOH). These Guidelines aim to facilitate improvements in occupational health and safety of workers potentially exposed to nanomaterials in a broad range of manufacturing and social environments.
A total of more than 1000 researchers coming from more than 70 major European research institutes in the field of energy are involved in the different EERA Joint Programmes. These scientists are working to accelerate the delivery to industry of a new generation of energy technologies to contribute to achieving the 20-20-20 targets.
A research team at the University of Pennsylvania's schools of Engineering and Applied Science and Arts and Sciences has shown how to control the characteristics of semiconductor nanowires made of a promising material: lead selenide.
DARPA's Systems of Neuromorphic Adaptive Plastic Scalable Electronics (SyNAPSE) program aims to fundamentally alter conventional designs by developing biological-scale neuromorphic electronic systems that mimic important functions of a human brain. Applications for neuromorphic electronics include robotic and manned systems, and sensory and integration applications such as image processing.