By all measures, graphene shouldn’t stay. The research conducted by at the University of Arkansas has come up with strong evidence that the motion of two-dimensional materials can be used as the source of clean and limitless energy. The professor of physics at the University of Arkansas, Paul Thibado, studied the movement of graphene.

In other words, graphene was possible because it wasn’t absolutely flat at all, but vibrated on an atomic level in such a way that its bonds didn’t instinctively unravel.

The team did this by lading sheets of graphene across a supportive copper grid and have observed the changes in the atom’s positions using a scanning tunneling microscope. While they could record the vibrations of atoms in the graphene. The numbers, however, did not fit into any expected model. That made them unable of collecting data from one trial to the next.

They later began searching for a pattern while changing the way looked at the data.

Prof Thibado stated that “We separated each image into sub-images”. “Looking at large-scale averages hid the different patterns. Each region of a single image, when viewed over time, produced a more meaningful pattern.”

The patterns of small and random fluctuations combining to form dramatic, sudden shifts are known as the Lévy flights. While these have been observed in the complex systems of biology and climate; this was the first time they had been seen on an atomic scale.

Prof Thibado, on measuring the rate and scale of this graphene waves; figured that it might be possible to harness it as an ambient temperature power source. And so, as long as the graphene‘s temperature allowed the atoms to shift around restlessly, it would carry on with rippling and bending.

Moreover, if you try placing electrodes to either side of sections of this buckling graphene, and you’d in return have a tiny shifting voltage.

This video clip below is explaining the process in detail:

As per the Prof Thibado’s calculations, a single 10 x 10μm piece of graphene is capable of producing a 10μW. Likewise, more than 20,000 of these squares are expected to fit on the head of a pin.

Better up until now, it could also help in power bioimplants that don’t need cumbersome batteries.

Prof Thibado stated that a small amount of graphene at room temperature can feasibly power a device such as a wristwatch endlessly.

This, in turn, would have meaningful implications for the Internet of Things. A microscopic power source that self-charges could make everyday objects into smart devices. As well as, these would be useful with powering more sophisticated biomedical devices like the hearing aids, wearable sensors, and pace-makers.

Moreover, Prof Thibado stated that as exciting as these applications are, they still require being investigated and he is working with the US Naval Research Laboratory’s scientists to research about the fiery concept further.

Additionally, he took the first steps towards creating the devices like a Vibration Energy Harvester, that is, in short, called as a VEH, for turning this movement into electricity.

Ultimately, for a hopeless molecule, graphene has become something of a fascinating material that has twisted physics on its arch.