Models of melting taking into account the finite material size (as for example the diameter of a spherical nanoparticle) lead to a melting point depression compared to the bulk. Selected approaches are presented in this review and compared to available experimental data on gold. Their sensitivity to thermodynamic parameters such as molar volume, surface energy, and enthalpy of melting is highlighted. Within the given accuracy all models describing the non-surface-melting case seem to be valid for gold. In such cases, the simplest solution should be preferred
Atomistically informed analysis of melting is conducted to predict equilibrium melting points of alu...
The melting temperature of a nanoscaled particle is known to decrease as the curvature of the solid-...
International audienceThe fundamental physical properties of nanocrystals, such as their electronic ...
Models of melting taking into account the finite material size (as for example the diameter of a sph...
A semi-empirical thermodynamic model for size dependency of melting point of nano particles and wire...
A model is proposed to calculate the melting points of nanoparticles based on the Lennard-Jones (L-J...
Thermodynamic model first published in 1909, is being used extensively to understand the size-depend...
A careful comparison of the experimental results reported in the literature reveals different variat...
We report on the size-dependent melting of prism-shaped nanoparticles based on thermodynamic model a...
The report presents the basic models describing the melting temperature of nanomaterials based on di...
We report atomistic simulations of the melting of nanocrystalline gold with mean grain sizes from 1....
Many physical properties of materials, especially the melting point, change when the physical size o...
All most all theoretical models assume spherical nanoparticles. However, thermodynamic properties of...
In this paper we analyse the melting of a spherically symmetric nanoparticle, using a continuum mode...
In this paper, a new theoretical two-phase (solid–liquid) type model of melting temperature has deve...
Atomistically informed analysis of melting is conducted to predict equilibrium melting points of alu...
The melting temperature of a nanoscaled particle is known to decrease as the curvature of the solid-...
International audienceThe fundamental physical properties of nanocrystals, such as their electronic ...
Models of melting taking into account the finite material size (as for example the diameter of a sph...
A semi-empirical thermodynamic model for size dependency of melting point of nano particles and wire...
A model is proposed to calculate the melting points of nanoparticles based on the Lennard-Jones (L-J...
Thermodynamic model first published in 1909, is being used extensively to understand the size-depend...
A careful comparison of the experimental results reported in the literature reveals different variat...
We report on the size-dependent melting of prism-shaped nanoparticles based on thermodynamic model a...
The report presents the basic models describing the melting temperature of nanomaterials based on di...
We report atomistic simulations of the melting of nanocrystalline gold with mean grain sizes from 1....
Many physical properties of materials, especially the melting point, change when the physical size o...
All most all theoretical models assume spherical nanoparticles. However, thermodynamic properties of...
In this paper we analyse the melting of a spherically symmetric nanoparticle, using a continuum mode...
In this paper, a new theoretical two-phase (solid–liquid) type model of melting temperature has deve...
Atomistically informed analysis of melting is conducted to predict equilibrium melting points of alu...
The melting temperature of a nanoscaled particle is known to decrease as the curvature of the solid-...
International audienceThe fundamental physical properties of nanocrystals, such as their electronic ...