>
Solar Power Doesn't Depend on Refineries or the Straight of Hormuz
GMO Foods Linked to Increased Risk of Health Problems in Children
Health Care Is the Largest Industry in the US by Total Spending and Employment
The Iran War Has Been A Catastrophe For The US -- But Israel Wants More
Researchers Turn Car Battery Acid and Plastic Waste into Clean Hydrogen and New Plastic
'Spin-flip' system pushes solar cell energy conversion efficiency past 100%
A Startup Has Been Quietly Pitching Cloned Human Bodies to Transfer Your Brain Into
DEYE 215kWh LiFePO4 + 125,000W Inverter + 200,000W MPPT = Run A Factory Offgrid!!
China's Unitree Unveils Robot With "Human-Like Physique" That Can Outrun Most People
This $200 Black Shaft Air Conditions Your Home For Free Forever -- Why Is It Banned in the U.S.?
Engineers have developed a material capable of self-repairing more than 1,000 times,...
They bypassed the eye entirely.
The Most Dangerous Race on Earth Isn't Nuclear - It's Quantum.

The breakthrough is hoped to allow researchers new ways to investigate baby brain activity in natural environments without the need for expensive MRI machines.
"There is a lot we still don't know about how the brain develops, and a big part of the problem is that studying the infant brain is really difficult with traditional scanners," explains Rob Cooper lead on the project from University College London. "As any parent knows, 6-month old babies are very active; they move around all the time and are easily distracted. Using a technique like MRI, the subject has to remain completely still, which is almost impossible with babies unless they are asleep or sedated."
The system presented in the study, published in the journal NeuroImage, is a new generation of wearable caps using high-density diffuse optical tomography technology (HD-DOT). The system is called LUMO, and the prototype tested came from Gowerlabs, a UCL spinoff company.
Each hexagonal tile on the cap contains three LED sources and four sensors. Near-infrared light is used to detect changes in brain oxygenation. Through these changes researchers can effectively map which parts of the brain are actively working in real-time.
The closest imaging method to this new HD-DOT technology currently available to neuroscientists is called functional near-infrared spectroscopy (fNIRS). But fNIRS devices offer limited spatial resolution and can still require bulky headsets. Comparing the new HD-DOT devices to fNIRS measurements, the researchers say this new imaging technology is a dramatic improvement.