>
The Homeless Industrial Complex:
The Lucid Cosmos Will Have More Range Than Any Tesla
Trump Admin Ends Medicaid Funding For Sex-Change Procedures On Kids
Strong 3D printable elastic polymer resists damage
Vitalik Buterin Says Ethereum Is Betting Its Future On Quantum Security And AI
Everything You Wanted To Know About Building A Cheap AI Setup (That Still Works)...
If They Were Human, They'd Be Arrested. Experts Respond To Rogue AI Breaches
Sodium Ion Batteries Will be 80% Cheaper & Last LONGER!
German startup SAXON Q has introduced a diamond-based quantum computing system...
Elon Musk To Build The Largest Building In The World - 100 Million Square Feet
Bitcoin 'Red Team' Says AI Is Finding 100s Of Critical Exploits Across Core Projects
EG4 Power Pro VS Ruixu Lithi VS Yixiang Budget Battery! Best Selling Battery Showdown!
Insect wings can kill bacteria without any chemicals!
Tesla Never Made An Electric Jet Boat, So This YouTuber Built One Himself

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).