Visualization of molecular dynamics simulations showing the fast diffusion of hydrogen ions (pink trajectories) within the solid lattice of oxygen
in superionic ice.
Hydrogen ions
in superionic water ice can carry electrical charge, making it good at conducting electricity and generating magnetic fields.
Unlike water or regular ice,
in superionic ice the water molecules dissociate into charged atoms called ions, with the oxygen ions locked in a solid lattice, while the hydrogen ions move like the molecules in a liquid.
Not exact matches
Hints of the special phase, called
superionic ice, appeared
in water ice exposed to high pressures and temperatures, researchers report February 5
in Nature Physics.
Published on Aug. 28
in Nature Communications, the research revealed an entirely new type of
superionic ice that they call the P21 / c - SI phase, which occurs at pressures even higher than
in the interior of giant ice planets of our solar system.
Unlike Earth, which has two magnetic poles (north and south), ice giants can have many local magnetic poles, which leading theories suggest may be due to
superionic ice and ionic water
in the mantle of these planets.
As a foundational study, the research team investigated
superionic ice treating the ions as if they were classical particles, but
in future studies they plan to take quantum effects into account to further understand the properties of the material.
Scientists have predicted a new phase of
superionic ice, a special form of ice that could exist on Uranus and Neptune,
in a theoretical study performed by a team of researchers at Princeton University.
Signs of the strange substance, known as
superionic ice, showed up
in a laser experiment.
«Because we pre-compressed the water, there is less shock - heating than if we shock - compressed ambient liquid water, allowing us to access much colder states at high pressure than
in previous shock compression studies, so that we could reach the predicted stability domain of
superionic ice,» Millot said.
«Our work provides experimental evidence for
superionic ice and shows that these predictions were not due to artifacts
in the simulations, but actually captured the extraordinary behavior of water at those conditions.
In a paper published today in Nature Physics, a research team from Lawrence Livermore National Laboratory (LLNL), the University of California, Berkeley and the University of Rochester provides experimental evidence for superionic conduction in water ice at planetary interior conditions, verifying the 30 - year - old predictio
In a paper published today
in Nature Physics, a research team from Lawrence Livermore National Laboratory (LLNL), the University of California, Berkeley and the University of Rochester provides experimental evidence for superionic conduction in water ice at planetary interior conditions, verifying the 30 - year - old predictio
in Nature Physics, a research team from Lawrence Livermore National Laboratory (LLNL), the University of California, Berkeley and the University of Rochester provides experimental evidence for
superionic conduction
in water ice at planetary interior conditions, verifying the 30 - year - old predictio
in water ice at planetary interior conditions, verifying the 30 - year - old prediction.
The great significance of this «
superionic conduction» has only recently been appreciated for use
in batteries2.