The AlN nanowall structures can be valuable for adsorption devices using the large surface volume ratio such as demonstrated for GaN nanowall network crystals [19, 20].
Another corollary of smallness is the immense surface:volume ratio compared with macroscopic systems, which means that interfacial physical chemistry becomes of vital importance when formulating nanocomposites.
Furthermore, the larger surface:volume ratio of small particles makes them increasingly adhesive, decreasing mobility.
If cells spread, the surface volume ratio increases dramatically, and this can be achieved by membrane growth.
There was a decreased trabecular thickness and an increased cancellous bone surface:volume ratio in MMP9 −/− mice compared with WT mice regardless of Plg deficiency.
3D microarchitectural parameters of cancellous bone, such as trabecular thickness, bone surface:volume ratio and structure model index, were computed, and meaningful 3D microarchitectural parameters of cortical bone were also calculated.
Alternatively or complementary, the disappearance of membrane blebs during the spreading of round early G1 cells, might deliver the extra membrane that is required due to the increased surface volume ratio that takes place during the spreading of round cells.
