>
Private credit markets have been in the headlines this week.
The bodily autonomy, privacy, due process, blue skies, nutrient dense food, freedom of speech...
Southwest Airlines Ends Flights To Chicago O'Hare And Washington Dulles, A Boost For United
When the government says 'we are all in the same boat
Musk Whips Out 'Macrohard' In Disruptive Tesla-xAI Bid To Shaft Software Companies
This Bonkers Folding X-Plane Is One Step Closer to Hitting the Skies
Smart 2-in-1 digital microscope goes desktop or handheld as needed
Human Brain Cells Merge With Silica To Play DOOM
Will Yann LeCun Provide The Next Breakthrough In AI?
Human Brain Cells Merge With Silica To Play DOOM
Solar And Storage Could Reshape Rural Electricity Markets
With World Seemingly At War, DARPA Finds Time To Unveil The X-76
The world's first diesel plug-in hybrid pickup truck is here

Instead, doctors may, in the near future, be able to repair broken bones by encasing the fracture in a field of electricity, which would be especially welcome for treating body parts, such as the scull, where casts don't work.
A group of biomedical engineers from the University of Connecticut have invented a scaffold of non-toxic polymer that also generates a controllable electrical field to encourage bone growth. The researchers published a paper in Nano Energy after using their device to cure skull fractures in mice.
The scaffold mimics the natural electric field produced by our bodies, a characteristic called piezoelectric, meaning to generate electricity from vibrations, and can be affixed over the damaged bone without significant surgery.
The patient can wave an ultrasound wand over the area to stimulate the generation of electricity and, unlike similar existing machines that are bulky and require electricity from a power outlet or batteries, the device is lightweight and generates the field via ultrasound.
The polymer from which the device is made is non-toxic and gradually dissolves in the body over time, disappearing as the new bone grows.
"The electric field created by the piezoelectric PLLA scaffold seems to attract bone cells to the site of the fracture and promote stem cells to evolve into bone cells. This technology can possibly be combined with other factors to facilitate regeneration of other tissues, like cartilage, muscles or nerves," says Ritopa Das, a graduate student at Nguyen Research Group and the first author of the published paper.