We present a first-principles study of the electron-phonon interaction and the prediction of the superconducting critical temperature in molecular metallic hydrogen. Our study is able to single out the features which drive the system towards superconductivity: mainly, a rich and complex Fermi surface and strongly coupled phonon modes driving the intra- or intermolecular charge transfer. We demonstrate that in this simple system, a very high superconducting critical temperature can be reached via electron-phonon and Coulomb electron-electron interactions
Recent experimental developments in hydrogen-rich materials at high pressures have put this class of...
A room temperature superconductor is probably one of the most desired systems in solid state physics...
We present first-principles calculations of metallic atomic hydrogen in the 400–600 GPa pressure ran...
We present a first-principles study of the electron-phonon interaction and the prediction of the sup...
We present a first-principles study of the electron-phonon interaction and the prediction of the sup...
A detailed study of the electron-phonon interaction in the Cmca phase of metallic hydrogen and of it...
The structural, electronic, and dynamical properties of molecular hydrogen under pressure are invest...
First-principles calculations based on density-functional theory including anharmonicity within the ...
We investigate the role of specific phonon mode symmetries for the room-temperature superconductivit...
Hydrogen-based compounds under ultrahigh pressure, such as the polyhydrides H3S and LaH10, supercond...
We investigate the role of specific phonon mode symmetries for the room-temperature superconductivit...
Hydrogen-based compounds under ultrahigh pressure, such as the polyhydrides H3S and LaH10, supercond...
The detailed study of the selected thermodynamic properties of the superconducting phase in the mole...
First-principles calculations based on density-functional theory including anharmonicity within the ...
Recent experimental developments in hydrogen-rich materials at high pressures have put this class of...
Recent experimental developments in hydrogen-rich materials at high pressures have put this class of...
A room temperature superconductor is probably one of the most desired systems in solid state physics...
We present first-principles calculations of metallic atomic hydrogen in the 400–600 GPa pressure ran...
We present a first-principles study of the electron-phonon interaction and the prediction of the sup...
We present a first-principles study of the electron-phonon interaction and the prediction of the sup...
A detailed study of the electron-phonon interaction in the Cmca phase of metallic hydrogen and of it...
The structural, electronic, and dynamical properties of molecular hydrogen under pressure are invest...
First-principles calculations based on density-functional theory including anharmonicity within the ...
We investigate the role of specific phonon mode symmetries for the room-temperature superconductivit...
Hydrogen-based compounds under ultrahigh pressure, such as the polyhydrides H3S and LaH10, supercond...
We investigate the role of specific phonon mode symmetries for the room-temperature superconductivit...
Hydrogen-based compounds under ultrahigh pressure, such as the polyhydrides H3S and LaH10, supercond...
The detailed study of the selected thermodynamic properties of the superconducting phase in the mole...
First-principles calculations based on density-functional theory including anharmonicity within the ...
Recent experimental developments in hydrogen-rich materials at high pressures have put this class of...
Recent experimental developments in hydrogen-rich materials at high pressures have put this class of...
A room temperature superconductor is probably one of the most desired systems in solid state physics...
We present first-principles calculations of metallic atomic hydrogen in the 400–600 GPa pressure ran...