Imagine a fleet of driverless taxis roaming your city, ready to pick you up and take you to your destination at a moment’s notice. While this may seem fantastical, it may be only a matter of time before it becomes reality. And according to a new study from Lawrence Berkeley National Laboratory, such a system would both be cost-effective and greatly reduce per-mile emissions of greenhouse gases.
Scientists have developed a new technique allowing the bioprinting at ambient temperatures of a...
Inspiration for the next big technological breakthrough in robotics, defense systems and...
When small objects get stuck to you, a vacuum or lint roller can help remove them. But small,...
Congenital heart experts have successfully integrated two common imaging techniques to produce a three-dimensional anatomic model of a patient’s heart. This is the first time the integration of computed tomography (CT) and three-dimensional transesophageal echocardiography (3DTEE) has successfully been used for printing a hybrid 3-D model of a patient’s heart.
In a collaborative project worth SEK 35 million, researchers and external partners are together developing a technology to make full-scale 3-D prints of cellulose based material. It is not a matter of small prints—the objective is to make houses. One of the sub-goals is to produce cellulose-based materials for full-scale 3D printing, which can be anything from printing weather-stripping and doors to walls and, in the end, complete houses.
Univ. of Tokyo researchers have developed a new ink that can be printed on textiles in a single step to form highly conductive and stretchable connections. This new functional ink will enable electronic apparel such as sportswear and underwear incorporating sensing devices for measuring a range of biological indicators such as heart rate and muscle contraction.
It took marine sponges millions of years to perfect their spike-like structures, but research mimicking these formations may soon alter how industrial coatings and 3-D printed to additively manufactured objects are produced. A new molecular paves the way for improved silica structure design by introducing microscopic, segmented screw-like spikes that can more effectively bond materials for commercial use.
A team of Lehigh Univ. engineers have demonstrated a bacterial method for the low-cost, environmentally friendly synthesis of aqueous soluble quantum dot (QD) nanocrystals at room temperature. This is the first example of engineers harnessing nature's unique ability to achieve cost effective and scalable manufacturing of QDs using a bacterial process.
Researchers from the Univ. of Illinois at Urbana-Champaign have developed a new approach for forming 3-D shapes from flat, 2-D sheets of graphene, paving the way for future integrated systems of graphene-MEMS hybrid devices and flexible electronics.
An advanced manufacturing approach for lithium-ion batteries, developed by researchers at Massachusetts Institute of Technology and at a spinoff company called 24M, promises to significantly slash the cost of the most widely used type of rechargeable batteries while also improving their performance and making them easier to recycle.
Researchers from the Univ. of Houston have devised a new formula for calculating the maximum efficiency of thermoelectric materials, the first new formula in more than a half-century, designed to speed up the development of new materials suitable for practical use.
The tiny tube circled an ant's thorax, gently trapping the insect and demonstrating the utility of a microrobotic tentacle developed by Iowa State Univ. engineers. While most robots squeeze two fingers together to pick things up, these tentacles wrap around items gently.
Researchers have found an easy way to produce carbon nanoparticles that are small enough to evade the body's immune system, reflect light in the near-infrared range for easy detection and carry payloads of pharmaceutical drugs to targeted tissues. Unlike other methods of making carbon nanoparticles, the new approach generates the particles in a few hours and uses only a handful of ingredients, including store-bought molasses.
Someday, treating patients with nanorobots could become standard practice to deliver medicine specifically to parts of the body affected by disease. But merely injecting drug-loaded nanoparticles might not always be enough to get them where they need to go. Now scientists are reporting in Nano Letters the development of new nanoswimmers that can move easily through body fluids to their targets.
A group of researchers at Chalmers Univ. of Technology have managed to print and dry 3-D objects made entirely by cellulose, for the first time, with the help of a 3-D bioprinter. They also added carbon nanotubes to create electrically conductive material.
Researchers in the Cockrell School of Engineering at The Univ. of Texas at Austin have developed a groundbreaking new energy-absorbing structure to better withstand blunt and ballistic impact. The technology, called negative stiffness honeycombs, can be integrated into car bumpers, military and athletic helmets and other protective hardware.
The effort to secure a stable, domestic source of a critical medical isotope reached an important milestone this month as the U.S. Dept. of Energy's Argonne National Laboratory demonstrated the production, separation and purification of molybdenum-99 (Mo-99) using a process developed in cooperation with SHINE Medical Technologies.
At the International Conference on Robotics and Automation, Massachusetts Institute of Technology researchers presented a printable origami robot that folds itself up from a flat sheet of plastic when heated and measures about a centimeter from front to back. Weighing only a third of a gram, the robot can swim, climb an incline, traverse rough terrain and carry a load twice its weight.
A Massachusetts Institute of Technology team has developed a way of making soft materials, using a 3-D printer, with surface textures that can then be modified at will to be perfectly smooth, or ridged or bumpy, or even to have complex patterns that could be used to guide fluids.
A team of researchers from the Univ. of Twente has found a way to 3D print structures of copper and gold, by stacking microscopically small metal droplets. These droplets are made by melting a thin metal film using a pulsed laser.
Synthesizing nanoscale materials takes place within high-tech laboratories, where scientists in full-body suits keep every grain of dust away from their sensitive innovations. However, scientists at Kiel Univ. proved that this is not always necessary. They have successfully been able to transfer the experience from furnace to laboratory while synthesizing nanoscale materials using simple and highly efficient flame technology.
The future of 3D printing is bright and full of exciting promise. But the most intriguing scenario for this technology isn’t in the manufacture of objects we see every day—that will only be a small niche in the 3D-printing industry. Instead, 3D printing will realize its full potential when it enables people to innovate and create all new objects and devices in a one-touch process.
The need for improved performance of devices has led to the development of 3-D stacking of chips. Through-silicon via (TSV) has emerged as a viable and preferred technology for achieving such high-performance devices due to its short wiring length and reduced resistance and capacitance (RC) delay. It also offers the most design flexibility, lower manufacturing costs and allows for integration of heterogeneous chips.
A Si quantum dot (QD)-based hybrid inorganic/organic light-emitting diode (LED) that exhibits white-blue electroluminescence has been fabricated by a Hiroshima Univ. team. A hybrid LED is expected to be a next-generation illumination device for producing flexible lighting and display, and this is achieved for the Si QD-based white-blue LED.
Having achieved promising results in proof–of–concept prototyping and experimental testing, a soft robotic glove under development could someday help people suffering from loss of hand motor control to regain some of their daily independence.
Nanofibers have a huge range of potential applications, from solar cells to water filtration to fuel cells. But so far, their high cost of manufacture has relegated them to just a few niche industries. MIT researchers describe a new technique for producing nanofibers that increases the rate of production fourfold while reducing energy consumption by more than 90%, holding out the prospect of cheap, efficient nanofiber production.
Researchers discovered a large, previously unknown field of hydrothermal vents in the Gulf of California, about 100 miles east of La Paz, Mexico. Lying more than 12,500 feet below the surface, the Pescadero Basin vents are the deepest high-temperature hydrothermal vents ever observed in or around the Pacific Ocean. They are also the only vents known to emit superheated fluids rich in both carbonate minerals and hydrocarbons.
Biofuels pioneer Mascoma LLC and the BioEnergy Science Center have developed a revolutionary strain of yeast that could help significantly accelerate the development of biofuels from nonfood plant matter. The approach could provide a pathway to eventual expansion of biofuels production beyond the current output limited to ethanol derived from corn.
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