Vanderbilt University
If you were out on the street and suddenly heard sniper fire, you would no doubt react by ducking for cover. The problem is, it’s not always obvious which direction the sound is coming from – crouching behind a certain object might shield you from the bullets, but it also might display you nicely in the shooter’s crosshairs. That’s why a team of computer engineers from Nashville’s Vanderbilt University have developed a smartphone-based system, that determines the location at which the gunshots originated. Read More
Vanderbilt University steps into the exoskeleton market
For people who are unable to walk under their own power, exoskeletons offer what is perhaps the next-best thing. Essentially “wearable robots,” the devices not only let their users stand, but they also move their legs for them, allowing them to walk. While groups such as Berkeley Bionics, NASA, Rex Bionics, and ReWalk are all working on systems, Nashville’s Vanderbilt University has just announced the development of its own exoskeleton. It is claimed to offer some important advantages over its competitors. Read More
Spinach protein boosts efficiency of “biohybrid” solar cells
Popeye gets his strength from downing a can of spinach and what works for him also works for solar panels. Researchers at Vanderbilt University led by David Cliffel and Kane Jennings have come up with a way to dope silicon with a protein found in spinach to create a more efficient "biohybrid" solar cell that produces substantially more electrical current than previous efforts and may one day lead to cheaper, more efficient solar panels. Read More
If you were in Peru right now, at the long-abandoned Inca village of Mawchu, you might see something very modern flying over it – a Skate unmanned aerial vehicle. The aircraft is the key part of a system designed by a team from Nashville’s Vanderbilt University. Once perfected, it should be able to accomplish in 10 to 15 minutes what would take an archeological team two to three field seasons to complete. Read More
Graphene could find use as world's thinnest anti-corrosion coating
It seems like the uses for graphene just won’t stop coming. The ultra-strong sheet material, made from bonded carbon atoms, has so far shown promise for use in transistors, computer chips, DNA sequencing, and batteries ... just to name a few possibilities. Now, scientists have discovered that it can also be used as a very effective anti-corrosion coating – and at just one atom in thickness, it’s thinner than any of the alternatives. Read More
It was not a good day for 16 year old Craig Hutto. On June 27, 2005, wading in crystal clear waters off a near-deserted beach 50 miles south of Panama City, Craig was attacked by an 8-foot bull shark and lost his right leg from above the knee. Today Hutto is a 6-foot 4-inch 23 year old studying Nursing at Middle Tennessee State. Fortunately for him, Nashville is also the home of Vanderbilt University where its Center for Intelligent Mechatronics has for seven years been developing an advanced prosthetic limb. They also happened to need a Lab Assistant to help them test it. Read More
'Robotic biologist' crunches raw data and formulates equations
While some people may have been impressed (or intimidated) by the recent development of a system that automatically raises and analyzes cell cultures, it turns out that another facet of the biological research process may also be going to the machines. An interdisciplinary team of researchers recently demonstrated a computer system that is able to take in raw scientific data from a biological system, and output mathematical equations describing how that system operates - it is reportedly one of the most complex scientific modeling problems that a computer has solved entirely from scratch. While the system is known affectionately as "ABE," it is also being referred to as a robotic biologist. Read More
Imagine how long it would have taken to produce vinyl record albums if, instead of pressing them from master molds, the grooves had to be etched into each individual LP? Well, that's pretty much been the case when it comes to creating devices from porous nanomaterials - the microscopic patterns necessary for their functioning have had to be applied to each individual nanodevice, requiring considerable time and a perfect environment. Now, however, researchers from Nashville's Vanderbilt University have developed a system for quickly stamping out whole batches of the devices. Read More