>
Elon Tells Rogan the Real Reason Democrats are Prolonging the Government Shutdown [WATCH]
Newsom: Trump Is Trying to Rig the Election -- He Knows GOP Will Lose
There is zero justification for the Department of Justice's silence while the most serious...
Gabbard Says Trump Has Ended America's Era Of 'Regime Change'
The 6 Best LLM Tools To Run Models Locally
Testing My First Sodium-Ion Solar Battery
A man once paralyzed from the waist down now stands on his own, not with machines or wires,...
Review: Thumb-sized thermal camera turns your phone into a smart tool
Army To Bring Nuclear Microreactors To Its Bases By 2028
Nissan Says It's On Track For Solid-State Batteries That Double EV Range By 2028
Carbon based computers that run on iron
Russia flies strategic cruise missile propelled by a nuclear engine
100% Free AC & Heat from SOLAR! Airspool Mini Split AC from Santan Solar | Unboxing & Install
Engineers Discovered the Spectacular Secret to Making 17x Stronger Cement

In environments ranging from hospitals to food preparation areas, it's vitally important to keep surfaces as bacteria-free as possible. A new material could definitely help, as it's claimed to repel even antibiotic-resistant "superbug" microbes.
Developed at Canada's McMaster University, the substance takes the form of a transparent plastic film that's reportedly flexible, durable and inexpensive to manufacture. The idea is that it could be shrink-wrapped onto frequently-touched items such as door handles, IV stands and railings – it could also be used in the packaging of food.
Drawing inspiration from the hydrophobic (water-repelling) microstructure of the lotus leaf, the film's surface is made up of microscopic wrinkles that keep both liquid droplets and bacteria from making a solid contact. As a result, when either of these land on the material, they simply bounce off.
In order to boost its repellant qualities, the material is additionally dipped in a liquid fluorine-based chemical.
Lab tests have shown that the film warded off almost all antibiotic-resistant MRSA and Pseudomonas bacteria that were applied to its surface. The university is now looking for industry partners who may be interested in commercializing the material.