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University of Texas

Researchers at the University of Texas are exploring the possibility of electrically stimu...

A team of researchers at the University of Texas is exploring the possibility of electrically stimulating the visual cortex of the brain to create simple images and shapes. This development could lead to a visual prosthetic device that would effectively "trick" the brain of visually impaired or blind people into seeing ... and such a device, the authors say, is only about five years away.  Read More

A diagram of the laser scalpel's optical system (Image: Ben-Yakar Group, University of Tex...

The practice of surgically removing diseased or damaged tissue within the body is something of a trade-off – quite often, some of the surrounding healthy tissue will also end up being removed in the process. In highly-sensitive areas such as the brain or spinal cord, where a fraction of a millimeter either way can have huge consequences, sometimes surgery is deemed to be just too risky. A newly-developed endoscopic laser “scalpel,” however, looks like it could lower those risks considerably.  Read More

'X-ray' vision may soon be possible on cell phones by tapping into the terahertz band of t...

Those of us who envy Superman for his X-ray vision may soon get that ability - on our cell phones. Researchers at the University of Texas at Dallas have reported a new approach to harnessing the potential of the terahertz band in portable devices.  Read More

The simple, inexpensive, folded-paper-based oPAD could detect diseases in body fluid sampl...

In First World countries' medical systems, the standard way of checking a patient's body fluid samples is to send them off to a lab. In developing nations, however, such labs often don't exist, nor does the infrastructure for transporting biological samples. Fortunately, a number of groups have been developing simple, inexpensive testing devices that could be used by clinicians in these countries. One of the latest gadgets is the very simple origami Paper Analytical Device, or oPAD – it's made out of paper, could be purchased for under 10 cents, and is folded together by the user.  Read More

University of Texas at Austin researchers have developed a method that may speed up the bo...

In spite of numerous medical breakthroughs ranging from heart transplants to bypass surgery, cardiovascular disease still tops the list as the leading cause of death in developed countries. Key among the many problems that trouble our hearts is something called myocardial ischemia disease (MID), a condition that leads to reduced blood flow in the vessels of the heart and lower extremities and, frequently, corrective surgery. Now, University of Texas at Austin (UTA) biomedical engineer Aaron Baker and his research team have developed a method that may speed up the body's ability to grow new blood vessels (a phenomenon called angiogenesis), and best of all, no surgery is required. That's potentially great news for the nearly 27 million folks in the U.S. alone who chronically suffer from MID.  Read More

U.S. researchers have developed a nonsurgical technique to repair severed nerves in minute...

Professor George Bittner and his colleagues at the University of Texas at Austin Center for Neuroscience have developed a simple and inexpensive procedure to quickly repair severed peripheral nerves. The team took advantage of a mechanism similar to that which permits many invertebrates to regenerate and repair nerve damage. The new procedure, based on timely application of common chemicals to the severed nerve ends, could help patients to recover nearly full function in days or weeks.  Read More

Engineers and researchers at UT Arlington aim to develop a biomask that could revolutioniz...

Engineers and researchers at the University of Texas, Arlington in collaboration with military medical institutions aim to develop a mask that would use mechanical, electrical and biological components to speed up the healing process following severe facial burns. The flexible polymer face mold is to be fitted with sensors for the monitoring of the healing process. If necessary, embedded components would selectively administer the appropriate pharmaceuticals to the right section of the wound. The aim of the Biomask project is not only to prevent further disfigurement, but also to facilitate facial tissue regeneration in injured soldiers.  Read More

The plasmonic metamaterial cloak (top) and some of components used to make it (Photo: Andr...

We’ve previously seen – or should that be “not seen” – invisibility cloaks in the laboratory that are able to render two-dimensional objects invisible to microwaves. Such feats relies on the use of metamaterials – man-made materials that exhibit optical properties not found in nature and have the ability to guide light around an object. Now researchers at the University of Texas at Austin (UT) claim to have brought invisibility cloaks that operate at visible light frequencies one step closer by cloaking a three-dimensional object standing in free space with the use of plasmonic metamaterials.  Read More

Extra electrons harvested from a photon's quantum 'shadow state' could boost the efficienc...

Researchers at the University of Texas say it is possible to hike the energy yield of solar cells by exploiting what they call a photon's "shadow state", doubling the number of electrons that may be harvested in the process. They claim the discovery could up the theoretical maximum efficiency of silicon solar cells from 31 to 44 percent.  Read More

Scientists have created a tiny artificial muscle, that could be used in motors to propel n...

We've been hearing a lot lately about the possibility of treating medical conditions using nanobots - tiny robots that would be injected into a patient's bloodstream, where they would proceed to travel to their targets, not unlike the microscopic submarine in the movie Fantastic Voyage ... except nanobots wouldn't be crewed by tiny shrunken-down humans. One challenge that still needs to be met, however, is figuring out a way of propelling the devices. Well, we may now be closer to a solution. Yesterday, development of a new type of nanoscale artificial muscle was announced, which works like the muscles in an elephant's trunk. These could conceivably be used in nanobots, to whip them along using a rotating flagellum - a tiny sperm-like tail, in other words.  Read More

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