These results confirm, both experimentally and numerically, that side effects can be ignored given a suitably large specimen diameter and that this minimum diameter will be dependent on the cancellous architecture.
Wall effects can therefore be ignored despite the small filtration cell diameter, allowing tests to be performed with only about one-tenth of the slurry volume of a standard commercial cell.
Colonies less than 2 mm in diameter or faint colonies were ignored.
Very small blood vessels with a diameter below 4 pixels are ignored in this computation.
Colonies less than 2 mm in diameter or yellowish colonies were ignored.
Colonies less than 2 mm in diameter and faintly stained colonies were ignored.
The distances between particles are assumed quite large compared with their diameter, so that inter-particle reactions are ignored.
It is shown that thermal radiation noticeably accelerates the droplet evaporation, which is reflected in a more rapid decrease in the droplet diameter when compared to the case, when thermal radiation is ignored.
Some of the larger bright objects, with values for B ∼ 2, correspond to vesicles (1 2 μm diameter) filled with fluorescent protein, but those regions can be easily identified and ignored because they have abnormally large fluorescent intensity.
It is found that for a large storage tank with a small ratio of height to diameter, the strengthening effects of the bottom constraints are significant and should not be ignored.
