>
Starlink Spy Network: Is Elon Musk Setting Up A Secret Backchannel At GSA?
The Worst New "Assistance Technology"
Vows to kill the Kennedy clan, crazed writings and eerie predictions...
Scientists reach pivotal breakthrough in quest for limitless energy:
Kawasaki CORLEO Walks Like a Robot, Rides Like a Bike!
World's Smallest Pacemaker is Made for Newborns, Activated by Light, and Requires No Surgery
Barrel-rotor flying car prototype begins flight testing
Coin-sized nuclear 3V battery with 50-year lifespan enters mass production
BREAKTHROUGH Testing Soon for Starship's Point-to-Point Flights: The Future of Transportation
Molten salt test loop to advance next-gen nuclear reactors
Quantum Teleportation Achieved Over Internet For The First Time
Watch the Jetson Personal Air Vehicle take flight, then order your own
Microneedles extract harmful cells, deliver drugs into chronic wounds
We've actually been hearing a lot about "bioscaffolds" lately.
In a nutshell, they're three-dimensional pieces of biocompatible material that are implanted within the body, and that have a microstructure similar to that of the surrounding tissue. Over time, cells from that tissue migrate into the scaffold, colonizing it and reproducing. Eventually, they entirely replace the material, forming pure muscle, bone, cartilage or other tissue.
That said, pre-producing such bioscaffolds and then implanting them in muscle is quite challenging. With that in mind, scientists at the University of Connecticut developed a prototype handheld 3D printer to do the job.
It starts by depositing a gelatin-based hydrogel directly into the unwanted gap within the muscle. An integrated ultraviolet light causes that gel to cure into a bioscaffold made up of tiny muscle-like fibers, which readily adheres to the adjacent muscle tissue – no sutures are required. Muscle cells then move into the scaffolding.
In lab tests, the device proved to be effective at treating volumetric muscle loss injuries in mice.