A natural gas droplet is generated at certain thermodynamic conditions through three stages: supersaturation, where the gas has more molecules than it should have in equilibrium, forming “embryos” of liquid phase; nucleation, where embryos form groups of different shapes and sizes of nanometer order; and the droplet growth, where the number of molecules increases until equilibrium is reached. In this paper, the homogeneous nucleation and droplet growth of natural gas applied to gravitational separators operating at high pressure conditions (7MPa) are analyzed. The results showed that at a high pressure, the initial drop size reached was 8.024 nanometers and the final diameter of the drop was 4.18 micrometers
Although nucleation phenomena are among the most widespread of all naturally occurring phenomena, ev...
The homogeneous nucleation of water vapor in atmospheres of helium, neon, argon, krypton, and xenon ...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/77215/1/AIAA-2005-4831-470.pd
A natural gas droplet is generated at certain thermodynamic conditions through three stages: supersa...
The first quantitative experimental results are presented on homogeneous nucleation and droplet grow...
ABSTRACT This paper describes the development and implementation of a molecular simulation model to ...
When natural gas at high pressure passes a throttling valve, a mist is formed of submicroscopic drop...
A thermodynamic model of the formation free energy of a droplet, based on a real equation of state, ...
Homogeneous nucleation processes are characterized by the nucleation rate and the critical droplet s...
A mathematical model taking into account small (and constant) gravitational levels is developed for ...
A droplet growth model is formulated that describes the growth of homogeneous multi-component drople...
Droplet growth rates of droplets suspended in methane gas and supersaturated water and/or n-nonane v...
Heterogeneous nucleation is studied by Monte Carlo simulations and phenomenological theory, using th...
Carrier gases are used in most nucleation experiments for releasing the latent heat generated during...
For over a century, nucleation for all systems was thought simplistically to be a process that advan...
Although nucleation phenomena are among the most widespread of all naturally occurring phenomena, ev...
The homogeneous nucleation of water vapor in atmospheres of helium, neon, argon, krypton, and xenon ...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/77215/1/AIAA-2005-4831-470.pd
A natural gas droplet is generated at certain thermodynamic conditions through three stages: supersa...
The first quantitative experimental results are presented on homogeneous nucleation and droplet grow...
ABSTRACT This paper describes the development and implementation of a molecular simulation model to ...
When natural gas at high pressure passes a throttling valve, a mist is formed of submicroscopic drop...
A thermodynamic model of the formation free energy of a droplet, based on a real equation of state, ...
Homogeneous nucleation processes are characterized by the nucleation rate and the critical droplet s...
A mathematical model taking into account small (and constant) gravitational levels is developed for ...
A droplet growth model is formulated that describes the growth of homogeneous multi-component drople...
Droplet growth rates of droplets suspended in methane gas and supersaturated water and/or n-nonane v...
Heterogeneous nucleation is studied by Monte Carlo simulations and phenomenological theory, using th...
Carrier gases are used in most nucleation experiments for releasing the latent heat generated during...
For over a century, nucleation for all systems was thought simplistically to be a process that advan...
Although nucleation phenomena are among the most widespread of all naturally occurring phenomena, ev...
The homogeneous nucleation of water vapor in atmospheres of helium, neon, argon, krypton, and xenon ...
Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/77215/1/AIAA-2005-4831-470.pd