>
The Government's Secret Plan For America's Collapse | Annie Jacobsen
The TRUTH About Filling Raised Garden Beds With Logs...
Andy Schectman: "Prepare For Collapse..." | Silver Price Predictions
Felix Nikolas Prehn: A Generational Financial Reset Is Here
Most artificial limbs rely on silicone or plastic to mimic human hands.
Flying cell tower beams phone signal to Japan from 10 miles up
Chinese Commercial Reactor Achieves Nuclear Fusion with Clean Hydrogen-Boron Fuel
Med Beds Just Took a MASSIVE Step Forward, Healing People in Days!
Palmer Luckey: Autonomous Weapons Are Ancient and Why Anduril Won't Build Humanoids | EP #295
A laser just photographed objects through six feet of concrete
Elon Musk's Next-Gen Motor Destroy Entire EV Industry
China's disputed satellite refueling heralds new space war era
BYD Will Put Solid-State Batteries In An EV Next Year: Executive
FDA-cleared exoskeleton puts spinal-cord patients back on their feet

Finding ways to disarm these defenses is a key component of antibiotics, and now researchers at Harvard Medical School have identified a structural weakness that seems to be built into a range of bacterial species, potentially paving the way for a new class of widely-effective antibacterial drugs.
The new study builds on previous research into a protein named RodA. While the protein itself has long been known, in 2016 the Harvard team was the first to discover that it builds the protective cell walls of bacteria out of sugar molecules and amino acids. Since RodA belongs to the SEDS family of proteins, which is common to almost all bacteria, the team realized it was the perfect target for a far-reaching antibiotic. And on closer examination of RodA, the researchers spotted a vulnerable looking cavity on the outer surface of the protein.
"What makes us excited is that this protein has a fairly discrete pocket that looks like it could be easily and effectively targeted with a drug that binds to it and interferes with the protein's ability to do its job," says David Rudner, co-senior author of the study.
To test whether this cavity was the Achilles' heel they were looking for, the scientists altered the structure of the protein in two species of bacteria, E. coli and Bacillus subtilis. These two were chosen because they're well understood and represent the two broad classes of disease-causing bacteria, gram-positive and gram-negative.