>
Beware, AI cameras in the classroom filming your children and gathering personal data
Bitcoin Depot, North America's largest bitcoin ATM operator, files for bankruptcy
EU Commissioner Blames Stagflation on War
The 2035 Script Has Already Been Written: Bats, Rats, Ticks And Ze Other Deadly Bugs
Elon and SpaceX Have Made AI Training 10 Times Faster
Oklo COO Says Nuclear Waste Could Power America For 150 Years
SpaceX Announces LARGEST Starship Mission Ever! They've never done this before!
Cars Are Fast Becoming Dystopian Prison Pods...
Our Emergency Water Plan Wasn't Good Enough - So We Built This
Sodium Ion Batteries Can Reach 100 Gigawatt Per Hour Per Year Scale in 2027
Juiced Bikes proves capable electric motorcycles don't have to cost a lot
Headlight projectors turn your car into a drive-in theater
US To Develop Small Modular Nuclear Reactors For Commercial Shipping
New York Mandates Kill Switch and Surveillance Software in Your 3D Printer ...

Bacterial bioflms are made up of colonies of bacteria that stick together by building up a slimy polymer matrix. Unfortunately, topically applied antibiotics and other medications have difficulty penetrating that matrix, so they can't reach the infected tissue underneath.
As a result, doctors will often peel off the biofilms before treating the wounds. Not only is this painful to the patient, but some healthy tissue will often come off along with the biofilm, setting back the healing process. With these limitations in mind, scientists at Indiana's Purdue University have developed a biodegradable polymer composite patch with an array of tiny medication-laden "microneedle" studs on its underside.
When the patch is applied to a chronic wound, those microneedles penetrate the biofilm and absorb fluid from the tissue underneath. This causes them to harmlessly dissolve, releasing their medication into that tissue.