>
WWIII EXCLUSIVE: A Cease-Fire Between Ukraine & Russia Is Secretly Being Negotiated...
The Fight For Bitcoin Jesus! Roger Ver Faces 109 Years In Prison #FreeRoger (upcoming broadcast)
Trump nominates Pam Bondi for US attorney general
"What if I told you Senator Matt Gaetz was the plan all along...
Spinning fusion fuel for efficiency and Burn Tritium Ten Times More Efficiently
Rocket plane makes first civil supersonic flight since Concorde
Muscle-powered mechanism desalinates up to 8 liters of seawater per hour
Student-built rocket breaks space altitude record as it hits hypersonic speeds
Researchers discover revolutionary material that could shatter limits of traditional solar panels
In case you missed it, Ben Affleck just dropped the best talk on AI and where we're heading:
LG flexes its display muscle with stretchable micro-LED screen
LiFePO4 Charging Guidelines: What is 100%? What is 0%?! How to Balance??
Skynet On Wheels: Chinese Tech Firm Reveals Terrifying Robo-Dog
Energy company claims its new fusion technology can provide heat and power to 70,000 homes:
Although traditional electrodes do provide accurate readings, they can be both expensive and uncomfortable, plus they may fall off as the wearer moves around – the latter is definitely an issue if you're trying to monitor an athlete's performance.
Seeking a cheaper, comfier and more reliable alternative, a team led by the University of Utah's Prof. Huanan Zhang started by depositing a microscopic layer of silver onto ordinary cotton/polyester-blend fabric.
Although silver is electrically conductive, it can also be toxic to human skin. For that reason, the team added a similarly thin and flexible layer of gold to the silver. Doing so not only kept the silver from contacting the wearer directly, but it also increased the material's overall conductivity. And while a thicker layer of nothing but gold would also work, combining it with less-expensive silver helps keep costs down below those of conventional electrodes.
In a test of the technology, the silver/gold coating was applied to select areas of a compression sleeve. That sleeve was then placed on a volunteer's forearm, plus electrical wires were run from the coated areas of the garment to a portable electromyography device.
When the person subsequently performed different actions, the sleeve accurately detected the electrical signals produced by their forearm muscles as they contracted. Additionally, the coated areas retained their functionality after the sleeve had gone through 15 wash cycles in an ordinary washing machine.