The design and development of processes involving supercritical fluids depend on how easy the phase equilibrium can be accurately modelled and predicted.
Comparing the results using Nosé-Hoover thermostat and the Langevin thermostat in model a, it shows that the Langevin thermostat nearly influences the motion of carbon nanotube and makes the system reach the equilibrium easier.
This indicated that it was easier to get equilibrium in the first unfolding transition than that in the second transition.
And it turns out that with these simple utility functions it's very easy to solve for equilibrium, predict what'll happen, and things look great until you get to financial equilibrium.
Since the expression (1 − m t tends towards zero as t grows large, it is easy to see that equilibrium is reached when pt = pm, i.e. when the gene frequency of the migrants equals the gene frequency of the resident population.
ECM tests showed that dendrite growth was a result of system under far-equilibrium conditions in sorts of fields as electrical field, thermal field, concentration field, etc., the farer off the equilibrium, the easier that ECM process took place.
This effect is easier to control in equilibrium scenarios as the underlying assumption of equilibrium would allow for some calibration of the distance between samples.
The lessons here are that our new idea, the idea of sub-game perfect equilibrium is pretty easy to go about finding.
The three report their results in Physical Review X. Systems in equilibrium are relatively easy to simulate, but natural systems are often driven far from equilibrium by absorbing light, burning energy-dense chemical fuel, or other driving forces.
In addition, it provides partial differential equations of equilibrium that are easy to solve using common techniques such as the Galerkin-Ritz method.
It is easy to see that the equilibrium is globally asymptotically stable, and consequently the system is dissipative.
