DNA nanomachines that can be turned on and off with a flip of a switch

One challenge in designing nanomachines is being able to establish how well they work and optimize their performance. This is where single molecule techniques will play an important role. With advances in nanotechnologies, it is possible to construct simple nanomachines that can perform simple functions such as opening and closing of a DNA device (e.g. DNA tweezers or DNA switches), small rotational and translational motors and energy transfer cascades. Using single-molecule techniques researchers can watch individual nanomachines working and determine the functionality of their design. Researchers in Germany now have incorporated optical addressability to these nanomachines. Hence, they can optically detect and eventually control the state of the nanodevice.

Carbon science breakthrough leads to dramatically stronger nanotube composites

No other element in the periodic table bonds to itself in an extended network with the strength of the carbon-carbon bond. This special nature of carbon, combined with the molecular perfection of single-walled nanotubes endows these nanotubes with exceptional material properties, such as very high electrical and thermal conductivity, strength, stiffness, and toughness. As a result, single-walled carbon nanotubes (SWCNTs) are the strongest material known to science. SWCNTs potentially can add incredible strength, stiffness and electrical conductivity to all kinds of composite materials. Unfortunately, they are always held together in rope form due to their extremely small dimension and van der Waals attraction and their strength can neither be exploited nor measured. However, if several SWCNTs are concentrically nested in a confined space, the sliding issue can be resolved and the SWCNTs may share the applied tensile load to realize nanometer-scale materials remarkably stronger than the individual SWCNTs.

Nanotechnology Companies Announce $6.5 Million NIST TIP Award to Produce Low-Cost, High-Quality Metallic and Semiconducting Single-Wall Carbon Nanotube Inks

The funding is in support of research and development programs that focus upon methodologies to attain the cost-effective production of high-purity, high-quality metallic and semiconducting carbon nanotube (CNT) inks. These advancements will enable production of a wide variety of high-performing electronic devices incorporating CNTs.

Accelerators and light sources of tomorrow

Strange but true: the recently restarted Large Hadron Collider, the most powerful accelerator in the world, is the direct descendant of Thomas Edison's light bulb. The light bulb was invented before electrons were discovered but nevertheless led to the first vacuum tubes, which for a long time were the principal means of accelerating and controlling charged particles in radios, medical x-rays, and other practical applications.

Breakthrough Technology for the Paper and Packaging Industry Provided by Ecology Coatings’ EcoQuik UV-Cured Coatings

Ecology Coatings, Inc., a leader in the discovery and development of nanotechnology-enabled, advanced coatings, has developed UV-cured coatings specifically to address opportunities within the paper and packaging industry. These opportunities include the need for increased water and chemical resistance, along with solutions to important application and environmental issues, such as lower energy use, sustainability, solvent-free materials, and increased productivity.