>
BREAKING: 20-30 Gunshots Heard Near White House - Pool Reporters Run Inside Press Briefing Room
EXCLUSIVE VIDEO: Inside the Successful Operation to Rescue Dogs From Hideous Experimentations
U.S. and Iran are expected to announce the finalization of a draft proposal of a peace deal...
Should You Water Your Garden Every Day? (Most Gardeners Get This Wrong)
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 ...
Cameco Sees As Many As 20 AP1000 Nuclear Reactors On The Horizon
His grandparents had heart disease.
At 11, Laurent Simons decided he wanted to fight aging.
Mayo Clinic's AI Can Detect Pancreatic Cancer up to 3 Years Before Diagnosis–When Treatment...

Drawing inspiration from the plant world, researchers have invented a new electrode that could boost our current solar energy storage by an astonishing 3,000 percent.
The technology is flexible and can be attached directly to solar cells - which means we could finally be one step closer to smartphones and laptops that draw their power from the Sun, and never run out.
A major problem with reliably using solar energy as a power source is finding an efficient way to store it for later use without leakage over time.
For that purpose, engineers have been turning to supercapacitors - a type of technology that can charge extremely fast and release energy in large bursts. But for now, supercapacitors aren't able to store enough energy to make them viable as solar batteries.
So a team from RMIT University in Melbourne, Australia decided to investigate how living organisms manage to cram a lot of energy into a small space, and their imagination was soon spurred on by the ingenious fractal-based leaves of a common North American plant - the western swordfern (Polystichum munitum).