>
California in Chaos Today! Atmospheric River Triggers Severe Flooding in Wrightwood
THIS Is The Fastest Way To Get Dementia...The 6 Science-Backed Brain Fixes!
2026 Will be the Year of Your Greatest Dreams or Worst Fears
Joe Rogan Experience #2431 - Shane Gillis
EngineAI T800: Born to Disrupt! #EngineAI #robotics #newtechnology #newproduct
This Silicon Anode Breakthrough Could Mark A Turning Point For EV Batteries [Update]
Travel gadget promises to dry and iron your clothes – totally hands-free
Perfect Aircrete, Kitchen Ingredients.
Futuristic pixel-raising display lets you feel what's onscreen
Cutting-Edge Facility Generates Pure Water and Hydrogen Fuel from Seawater for Mere Pennies
This tiny dev board is packed with features for ambitious makers
Scientists Discover Gel to Regrow Tooth Enamel
Vitamin C and Dandelion Root Killing Cancer Cells -- as Former CDC Director Calls for COVID-19...
Galactic Brain: US firm plans space-based data centers, power grid to challenge China

If silkworms were Pac-Men, carbon nanotubes would be their power pellets.
On a hunch, scientists at Tsinghua University in China fed silkworms with a solution that contained both carbon nanotubes and graphene — a super-strong material made from latticed carbon atoms — and the insect larvae immediately went to work producing a super-silk with qualities never seen before in regular silk, reports Scientific American.
The super-silk was not only super-strong, capable of withstanding at least 50 percent higher stress before breaking, but it was also capable of conducting electricity. Regular silk can't do that. The discovery could lead to new applications for the material, such as in wearable electronics or medical implants.
Researcher Yingying Zhang and her colleagues fed the silkworms the carbon materials by spraying mulberry leaves — the worms' favorite food — with aqueous solutions that contained either carbon nanotubes or graphene. The silkworms almost immediately began producing an enhanced silk. The concentration of the exotic materials was very low in the solutions, just 0.2 percent by weight, so apparently it didn't take much to significantly alter the fibers.
Using Raman spectroscopy and electron microscopy imaging, researchers could see that the newly spun super-silk had a more ordered crystal structure, which is likely what contributed to its added strength. The nanotubes could not be seen directly in cross-sections of the thread, however, so it's still unclear exactly how the silkworms are incorporating the carbon materials into their silk. It's also possible that nanotubes were not visible simply because the solutions fed to the silkworms were so diluted. Future studies that use more concentrated solutions should provide answers.
The real surprise, however, is the conductivity of the enhanced threads. It means that smart textiles of the future won't just be smooth to the touch, they might also be able to act as electronics, such as with sensors that can read nerve signals. The potential applications are interesting to envision.
The experiment is not the first to enhance silk threads, but most previous methods relied on treating already-spun silk with chemical additives. Feeding the silkworms with the carbon materials and allowing the larvae to incorporate them directly into the structure of the threads themselves doesn't just remove a whole step, it's also more environmentally-friendly. No toxic chemicals required.