>
The Undeniable Math and Economics Behind $1,000 Silver!
20 Freezer Tricks That Make Your Groceries Last 10x Longer
Grow Food Fast, Self Watering Adapters for Mason Jars
One Copper and Zinc In Water Purify Everything -- The $48 Billion Industry That Needs You To Forget
Portable 1MW Kaleidos Microreactor Secures Critical Nuclear Fuel Deal Through 2030s
This New All-In-One Range Extender Is Ready To Go Into Any Electric Truck
Aptera Reveals The Secret To Building Its Solar EV: China
High-voltage sodium home battery emerges as affordable rooftop solar solution
Peter Thiel-Funded Company Anduril to Triple the Number of Autonomous Surveillance...
China has released Origin Pilot, claimed to be the world's first open-source operating system...
ShieldAI XBAT Drone Fighters Can Give A Fighter Drone Wing to Every US Destroyer
Brain organoids, kept alive more than five years, matured like human brains
Parkinson's patient's tremors VANISH within minutes of GROUNDBREAKING treatment

Hydrogels have shown significant potential in everything from wound dressings to soft robots, but their applications have been limited from their lack of toughness – until now. A team of scientists at Hokkaido University have developed a new set of hydrogel composites or "fiber-reinforced soft composites" that combine hydrogels with woven fiber fabric to create a material that is five times stronger than carbon steel.
Composite materials have been around for millennia and the principle is very simple. A very soft substance like mud can be made strong enough to make bricks by adding straw as a tempering material. The same applies to adding crushed pottery to brick, seashells fragments to ceramic, or glass fiber to plastic.
The latter is very similar to the fiber-reinforced hydrogel. Hydrogels are made of hydrophilic polymer chains that absorb up to 90 percent water. They aren't very strong or durable, but by adding glass tiny fibers the researchers created a tough, bendable, stretchable material.
Scanning Electron Microscopy (SEM) images of the fiber-reinforced hydrogels (Credit: Hokkaido University)