Skip to main content
Scientists just got the first direct proof of stable carbyne - the world's strongest material

40 times stronger than diamond.
Elemental carbon is extremely versatile, and scientists have long been able to create new carbon allotropes that make for super durable and multi-functioning materials - such as everyone’s favourite material, graphene.
The 'carbon family' is one very resourceful family. But even with all these developments, carbyne remained elusive. In fact, it is the only form of carbon that has not been synthesised, even though researchers have been studying its properties for over 50 years.The reason for this is that carbyne is extremely unstable. This one-dimensional carbon chain was first discovered in 1885 by Adolf von Baeyer, who even stated that carbyne would remain elusive, as its high reactivity would always lead to its immediate destruction.
Carbyne’s mechanical properties are hypothesised to exceed all known materials. It’s assumed to be twice as stiff as graphene, 40 times stiffer than diamond, and have greater tensile strength than any other carbon material. With these kinds of properties, no wonder we’ve been trying to find ways to stabilise it.
And now, an international team of researchers have now found a way to mass-produce carbyne.
The team took two layers of graphene, pressed them together, and rolled them into thin, double-walled carbon nanotubes. The tubes were then wrapped around the atoms. These nanotubes protect the carbyne chains from meeting imminent doom.
Their research is published in the journal Nature Materials
Before their discovery, the record-holding number of carbon atoms in one continuous chain was 100. Now, the record has been broken with an astounding 6,400 atoms utilizing this novel method – and the chain continues to be stable.
Also, carbyne’s electrical properties increase with its chain length. This means that researchers will be able to experiment with the material more effectively with success from the nanotubes.
There is a huge wealth of possible applications using carbyne, and we’re excited to see what kinds of devices will arise with the delivery of this 'miracle' material.

Comments

Popular posts from this blog

Einstein’s Lost Theory Describes a Universe Without a Big Bang

Einstein with Edwin Hubble, in 1931, at the Mount Wilson Observatory in California, looking through the lens of the 100-inch telescope through which Hubble discovered the expansion of the universe in 1929.  Courtesy of the Archives, Calif Inst of Technology. In 1917, a year after Albert Einstein’s  general theory of relativity  was published—but still two years before he would become the international celebrity we know—Einstein chose to tackle the  entire universe . For anyone else, this might seem an exceedingly ambitious task—but this was Einstein. Einstein began by applying his  field equations of gravitation  to what he considered to be the entire universe. The field equations were the mathematical essence of his general theory of relativity, which extended Newton’s theory of gravity  to realms where speeds approach that of light and masses are very large. But his math was better than he wanted to believe—...

There’s a Previously Undiscovered Organ in Your Body, And It Could Explain How Cancer Spreads

Ever heard of the interstitium? No? That’s OK, you’re not alone  —  scientists hadn’t either. Until recently. And, hey, guess what  —  you’ve got one! The interstitium is your newest organ. Scientists identified it for the first time because they are better able to observe living tissues at a microscopic scale, according to a recent study published  in  Scientific Reports , Scientists had long believed that connective tissue surrounding our organs was a thick, compact layer. That’s what they saw when they looked at it in the lab, outside the body, at least. But in a routine endoscopy (exploration of the gastrointestinal tract), a micro camera revealed something unexpected: When observed in a living body, the connective tissue turned out to be “an open, fluid-filled space supported by a lattice made of thick collagen bundles,” pathologist and study author Neil Theise  told  Research Gate . This network of channels is present throughout ...

First light-bending calculator designed with metamaterials

Exotic materials that bend light in extreme ways could be used to perform complex mathematical operations, creating a new kind of analogue computer. Tools for manipulating light waves have taken off in recent years thanks to the development of  metamaterials . These materials have complex internal structures on scales smaller than the wavelength of the light they interact with, and so they produce unusual effects. Most famously, metamaterials promise to deliver " invisibility cloaks " that can route light around an object, making it seem to disappear. Nader Engheta  at the University of Pennsylvania, Philadelphia, and his colleagues decided to explore a different use for metamaterials, one that adapts the  old idea of analogue computing . Today's digital computers are based on electrical switches that are either on or off. But before these machines were analogue computers based on varying electrical or mechanical properties. The  slide rule  is one example...