One strategy to force diffusion barriers is to increase the fraction of dissolved oxygen with hyperoxia.
The species segregation in the solid phase is enhanced with a decrease in the system inelasticity, an increase in the average solid fraction or an increase in the size ratio, due to the competition of three diffusion forces: the thermal diffusion force, the ordinary diffusion force, and the pressure diffusion force.
In addition to bone marrow perfusion, the amount of contrast agent at any time within the bone marrow depends on several additional inter-related variables including microvessel permeability, endothelial surface area, hydrostatic pressure, osmotic pressure, diffusion, convective forces, interstitial pressure and clearance.
A novel method is presented for solving the forced transient diffusion flame in the exit region of a coflow burner.
This leads to apply non-equilibrium condition in which, mass transfer phenomena, in addition to the concentration diffusion, will be a function of pressure diffusion, external force diffusion and thermal diffusion (Bird et al. 2002).
This was demonstrated through simulations made by forcing the diffusion coefficients of H2 and O2 to be equal and thereby eliminating preferential diffusion.
Notice that until now, for reasons of simplicity, we have considered to be the receiver, which forces the diffusion to occur last along the acoustic path.
Too many geographic locations in a dataset forces the diffusion process to average over a very high state space, which can be difficult, and may lead to uncertainties in the model (P. Lemey, personal communication).
This leads us to conclude that sexual selection not only stabilizes the complexes, but can also force mutation diffusion.
