Found the first 2D system containing a new liquid phase

Found the first 2D system containing a new liquid phase

Scientists from the National Laboratory of Ok Ridge used neutron dissipation for a new study to determine whether the atomic structure of a particular material could contain a spiral-rotating liquid, tracking the rotations on the honeycomb of a trichloride-iron magnet, physicists discovered the first 2D system in which it could be located.

The discovery will be useful in future studies of physical phenomena that may lead to the emergence of the next generation of information technologies; for example, scientists will be able to study fractons.

"Spiral fluids are particularly interesting because of their potential to create quantum spinal fluids, spinal textures and fracton excitations," said Shan Gao of the Ok Ridge National Laboratory, who led a study published in the Physical Review Letters.

A long-standing theory predicted that a cellular grate could contain spiral-rotating fluid, a new phase of matter in which rotations form variable corporeal structures.

However, until this study, there was no experimental evidence of this phase in the two-dimensional system; the two-dimensional system contains laminated crystallistic material in which the interaction is stronger in the flat direction than in the folding direction.

Scientists used iron trichloride and approached an expert in the cultivation and study of 2D materials. Just as two-dimensional layers of graphene exist in a volume graphite in the form of net carbon honeycombs, two-dimensional layers of iron exist in the volumetric trichloride of iron in the form of two-dimensional honeycomb layers.

Scientists used to suspect that this interesting cellular material could demonstrate complex magnetic behavior at low temperatures. In a new study, physics confirmed the theory. Each honeycomb layer has chlorine atoms above and below it, forming chlorine-iron-chlor stoves.

In the study, scientists used neutron dissipation technologies to map spinal movements in the spiral fluid.