Several research groups have recently reported ab initio calculations of the melting properties of metals based on density functional theory, but there have been unexpectedly large disagreements between results obtained by different approaches. We analyze the relations between the two main approaches, based on calculation of the free energies of solid and liquid and on direct simulation of the two coexisting phases. Although both approaches rely on the use of classical reference systems consisting of parametrized empirical interaction models, we point out that in the free energy approach the final results are independent of the reference system, whereas in the current form of the coexistence approach they depend on it. We present a scheme f...
The temperature of Earth's core is a parameter of critical importance to model the thermal structure...
We apply the efficient two-optimized references thermodynamic integration using Langevin dynamics me...
The Earth's core consists of a solid ball with a radius of 1221 Km, surrounded by a liquid shell whi...
Several research groups have recently reported ab initio calculations of the melting properties of m...
Ab initio calculations of the melting properties of copper in the pressure range 0-100 GPa are repor...
Ab initio techniques based on density functional theory in the projector-augmented-wave implementati...
It has recently become possible to calculate the free energy and other thermodynamic functions of so...
We present a general scheme to accurately determine melting properties of materials from ab initio f...
A number of melting curves of various materials have recently been measured experimentally and calcu...
Two important thermodynamic quantities are bulk solid and liquid free-energy as a function of compos...
We have calculated the melting temperature of tungsten by two ab initio approaches. The first approa...
The solid inner core of the Earth and the liquid outer core consist mainly of iron(1) so that knowle...
Applying thermodynamic integration within an ab initio-based free-energy approach is a state-of-the-...
The aim of this study is to identify the best available inter-atomic potentials for molecular dynami...
The temperature of Earth's core is a parameter of critical importance to model the thermal structure...
We apply the efficient two-optimized references thermodynamic integration using Langevin dynamics me...
The Earth's core consists of a solid ball with a radius of 1221 Km, surrounded by a liquid shell whi...
Several research groups have recently reported ab initio calculations of the melting properties of m...
Ab initio calculations of the melting properties of copper in the pressure range 0-100 GPa are repor...
Ab initio techniques based on density functional theory in the projector-augmented-wave implementati...
It has recently become possible to calculate the free energy and other thermodynamic functions of so...
We present a general scheme to accurately determine melting properties of materials from ab initio f...
A number of melting curves of various materials have recently been measured experimentally and calcu...
Two important thermodynamic quantities are bulk solid and liquid free-energy as a function of compos...
We have calculated the melting temperature of tungsten by two ab initio approaches. The first approa...
The solid inner core of the Earth and the liquid outer core consist mainly of iron(1) so that knowle...
Applying thermodynamic integration within an ab initio-based free-energy approach is a state-of-the-...
The aim of this study is to identify the best available inter-atomic potentials for molecular dynami...
The temperature of Earth's core is a parameter of critical importance to model the thermal structure...
We apply the efficient two-optimized references thermodynamic integration using Langevin dynamics me...
The Earth's core consists of a solid ball with a radius of 1221 Km, surrounded by a liquid shell whi...