Advertisement

Brain

InterAxon's brain-sensing headband has been around for a while now, having debuted on Indiegogo in 2012. Since then, it has won a Design and Engineering Award at CES, received a number of updates and, this week, launched in Europe. Gizmag took it for a spin at the Wearable Technology Show. Read More
When we get older, communication between neurons slows down and certain regions of the brain see reduced function. At least, that's the current understanding. But a new study by researchers at the University of Cambridge and Medical Research Council's Cognition and Brain Sciences Unit shows that the difference between older brains and younger ones may not be so great. The researchers demonstrated that functional magnetic resonance imaging (fMRI), which is commonly used to study brain activity, is susceptible to signal noise from changing vascular (blood vessel) activity. Read More
Researchers have identified a promising new target in the battle against certain neurological diseases. A protein known as TREM2 has been proven effective in clearing away unwanted debris in the brain, the unchecked buildup of which can lead to both Alzheimer's disease and multiple sclerosis (MS). Read More

In what may be a just a taste of what's possible when you merge robotics and neuroscience, researchers from Portugal's Brainflight project have successfully demonstrated a drone flight piloted by human thought. Read More

Scientists at Duke University have pinpointed a regulator of gene activity that could lend insight into why we're so different from chimpanzees despite having a near-identical genetic makeup (94 per cent of our DNA is the same). When injected into a mouse embryo, the human version of a particular DNA sequence important for brain development caused the embryo to grow a considerably larger brain than other embryos treated with the chimpanzee version. Read More
Many who have tried to kick the sweet white crystals will tell you that "sugar addiction" is very real, and there are indeed neurological underpinnings that back them up. MIT researchers have now discovered that the pathways of the brain responsible for sugar addiction may differ from those which govern drug addiction and healthy eating, which could be a boon for studies and treatment of compulsive eating and obesity. Read More
Keeping ourselves upright is something most of us shouldn't need to think a whole lot about, given we've been doing it almost our entire lives. But when it comes to dealing with more precarious terrain, like walking on ice or some sort of tight rope, you might think some pretty significant concentration is required. But researchers have found that even in our moments of great instability, our subconsciousness is largely responsible for keeping us from landing on our backsides. This is due to what scientists are describing as a mini-brain, a newly mapped bunch of neurons in the spinal cord which processes sensory information and could lead to new treatment for ailing motor skills and balance. Read More
If you're a smoker who's trying to quit, you may recall hearing about vaccines designed to cause the body's immune system to treat nicotine like a foreign invader, producing antibodies that trap and remove it before it's able to reach receptors in the brain. It's a fascinating idea, but according to scientists at California's Scripps Research Institute, a recent high-profile attempt had a major flaw. They claim to have overcome that problem, and are now developing a vaccine of their own that they believe should be more effective. Read More
Concussions – or at least concussion discussions – are all the rage lately, particularly in relation to professional sports leagues like the NFL. BlackBox Biometrics is adding to the discussion with a small, lightweight sensor designed to track concussive forces. Derived from the company's military blast force sensor, the consumer-grade Linx IAS straps to the head via a beanie or headband and measures impacts, providing an easy-read analysis that can help athletes identify concussions. Read More
Three years ago, scientists at the Swiss Federal Institute of Technology (EPFL) reported success in getting rats with severed spinal cords to walk again. They did so by suspending the animals in a harness, then using implants to electrically stimulate neurons in their lower spinal cord. Although this ultimately resulted in the rats being able to run on their previously-paralyzed hind legs, the technology still wasn't practical for long-term use in humans. Thanks to new research conducted at EPFL, however, that may no longer be the case. Read More
Advertisement