Pore formation and its shape in solid influence contemporary issues of biology, engineering, foods, geophysics and climate change, etc.
Pore formation in solid influence not only microstructure of materials, but also contemporary issues of biology, engineering, foods, geophysics and climate change, etc.
Pore formation and its shape in solid influence not only microstructure of materials, but also contemporary issues of various sciences of biology, engineering, foods, geophysics and climate change, etc.
Distributions and shapes of pores in solids influence not only microstructure of materials, but also contemporary issues of biology, engineering, foods, geophysics and climate change, etc.
They attribute this phenomenon to a strong influence of solid-liquid phase transition in the capping molecules on the size-dependent "luminescence temperature antiquenching" [13, 14].
Apparently, the amount of magnesia solids has a strong influence and precipitation mainly occurs around the MgO particles.
The size of the solid particle influences the solubility because as a particle becomes smaller, the surface area-to-volume ratio of the particle increases.
To our knowledge, there is no study that has evaluated whether a solid fusion influences clinical outcome after minimally invasive lumbar fusion.
Jin and Flury ([2002]) reviewed the fate and transport of viruses in porous media to understand mechanisms and modeling of virus sorption, and concluded that factors such as solution chemistry, virus properties, soil properties, temperature, and association with solid particle influences virus survival, transport, and sorption in porous media.
