>
Researchers at Johns Hopkins University just let an AI-guided robot remove a dead pig's gallblad
The Multipolaristas' China-Maxxing
Intelligence Agencies Warn Trump Israel 'Likely' to Undermine Iran Deal: Report
20 Depression Era Food Preservation Skills the FDA Quietly Made Felonies
World's first consumer wing-in-ground effect aircraft takes flight
America's Military Readiness Depends On Deployable Nuclear Power
License Plate Cameras Are About To Start Tracking A Lot More Than Just Your Car
Heads up: Apparently the government is hiding cameras inside fake utility boxes
Sodium Batteries And EVs That Power The Grid: Inside GM's Big Energy Push
NUCLEAR ENGINE - UNLIMITED LUXURY - 20 YEARS WITHOUT REFUELING
China Unveils Nuclear-Powered Floating Hub For Green Shipping
China Launches World's 1st Commercial Brain Chip, Beating Elon Musk's Neuralink!

Scientists have demonstrated that the design of their new 3D metamaterial is the first structure of its kind to achieve the theoretical limit of stiffness.
Called Isomax, the material is a hard foam based on a repeating formation of geometrically shaped cells. Structures like this are an example of what's called a heterogeneous material – made up of different components – and despite Isomax mostly being air and empty space, it's actually the toughest such composite ever designed.
"The Isomax geometry is maximally stiff in all directions," explains materials scientist Jonathan Berger from UC Santa Barbara.
Berger originally conceived of the design for Isomax in 2015, when he was searching for a material with the highest possible stiffness to lightness ratio.
UCSB Researcher Jonathan Berger on The Most Efficient Material in The World from UC Santa Barbara on Vimeo.