Computational analysis provides new insights into silk's mechanical properties that was unavailable experimentally ...

Simulations showed that stretching aligns protein chains and increases hydrogen bonds, which act like tiny bridges between ...

Here we will shed light on the true marvel of these creations. Many materials made by nature (biomaterials) far surpass anything that humans can currently make, and spider silk is a notable example.

Spiders don’t just spin webs—they engineer them. By stretching their silk as they spin, spiders strengthen the fibers at the ...

When they weave their webs, spiders pull their silk threads. New simulations show stretching during spinning causes the protein chains within the fibers to align and the number of hydrogen bonds ...

“When they spin silk out of their silk gland, spiders use their hind legs to grab the fiber and pull it out. That stretches ...

Kraig Biocraft Laboratories, Inc. (OTCQB: KBLB) ("Company" or "Kraig Labs"), a global leader in engineered spider silk ...

Get Instant Summarized Text (Gist) Stretching spider silk enhances its strength by aligning protein chains and increasing hydrogen bonds, as shown through computational models and laboratory ...

By simulating spider silk in a computational model, the team discovered the stretching process aligns the protein chains within the fibers and increases the number of bonds between those chains ...

Spider silk is produced in a special organ with a charming name: the ‘spinneret.’ These are usually found on the spider’s abdomen – towards the rear and on the underside.

Understanding how the stretching process strengthens spider silk is a key part of helping design stronger, biodegradable, silk-inspired materials for various applications. When spiders spin their webs ...