Despite their initial focus on national economic competitiveness, the nanotechnology research initiatives now funded by more than 60 countries have become increasingly collaborative, with nearly a quarter of all papers co-authored by researchers across borders.
A University of Akron researcher is leveraging advanced modeling and simulation techniques to more precisely understand how organic materials bond to inorganic materials, a natural phenomenon that if harnessed, could lead to the design of composite materials and devices for such applications as bone replacement, sensing systems, efficient energy generation and treatment of diseases.
Rice University researchers have moved a step closer to creating robust, three-dimensional microbatteries that would charge faster and hold other advantages over conventional lithium-ion batteries. They could power new generations of remote sensors, display screens, smart cards, flexible electronics and biomedical devices.
Nanotechnologists, marine biologists and signal-processing experts from Rice University, the Marine Biological Laboratory in Woods Hole, Mass., and other U.S. universities have won a $6 million grant from the Office of Naval Research to unlock the secrets of nature's best camouflage artists.
The discoveries of superconductivity, the quantum Hall effect and the fractional quantum Hall effect were all the result of measurements made at increasingly lower temperatures. Now, pushing the regime of the very cold into the very small, a research team from the National Institute of Standards and Technology (NIST), the University of Maryland, Janis Research Company, Inc., and Seoul National University, has designed and built the most advanced ultra-low temperature scanning probe microscope (ULTSPM) in the world.
India's state-run Defence Research and Development Organisation (DRDO) plans to set up a nano foundry with Rs.500 crore (about USD 110 million) investment to roll out products for various applications.
Water scarcity is driving a wave of innovation in water filtration technology from Asian nations, according to a report issued today by Chemical Abstracts Service (CAS). The report, CAS Chemistry Research Report: Nanofiltration Shows Promise in the Quest for Pure Water, found that Asian researchers now lead the world in patent activity related to nanofiltration, the most-researched method of water filtration.
The College of Nanoscale Science and Engineering ("CNSE") of the University at Albany welcomed the 5000th student to participate in its NanoCareer Day program when it hosted more than 300 elementary, middle- and high-school students from upstate New York at CNSE's Albany NanoTech Complex on December 8.
Fuel cells may power the cars of the future, but it's not enough to just make them work -- they have to be affordable. Cornell researchers have developed a novel way to synthesize a fuel cell electrocatalytic material without breaking the bank.
A Korean research team led by Jung-Hyurk Lim at Chungju National University in Chungju have now introduced a refined nanotip for this technique. With their "nanoquill", it is possible to produce complex nanopatterns from large biomolecules -- such as complete virus particles -- rapidly, precisely, and flexibly.
Panasonic, core partner within imec's Human++ program, and imec today presented at the International Electron Devices Meeting in San Francisco various critical components of a biomedical lab-on-chip sensor enabling fast detection of Single Nucleotide Polymorphisms (SNPs) in DNA, such as a miniaturized pump for on-chip generation of high pressures, a micropillar filter optimized for DNA separation achieving world-record resolution, and a SNP detector allowing on-chip detection using very small sample volumes.
Versatile electronic gadgets should employ a number of important criteria: small in size, quick in operation, inexpensive to fabricate, and deliver high precision output. A new microlaser, developed at the Jozef Stefan Institute in Ljubljana, Slovenia embodies all these qualities. It is small, tunable, cheap, and is essentially the world's first practical three-dimensional laser.
A team of University of California, San Francisco (UCSF) researchers has engineered E. coli with the key molecular circuitry that will enable genetic engineers to program cells to communicate and perform computations.