The influence of factors, namely, electrostatic interaction, hydrogen bonding, dipole dipole interaction and polydispersity index under different conditions (i.e., temperature, salt, and solvent) on critical concentration and scaling exponents are investigated extensively.
The propositions assembled here encourage us to reconsider mobility, concentration and the scale of architectural intervention in our own era of urban expansion.
Its propositions encourage us to reconsider mobility, concentration, and the scale of architectural intervention in our own era of urban expansion.
Clustering methods discover natural concentration and large-scale inhomogeneities in relational data.
One possible solution is to measure urban background PM concentration and small-scale indicators of traffic exposure and traffic noise separately.
An experimental setup is presented tailored towards reduction of the two main sources of risk for the concept, which are concentration polarization and scaling on the membrane surface.
The latter part of the POP-IF, after the first sampling data point, was derived by interpolating the individual plasma radioactivity concentration measurements and scaling it by the unchanged FLT fraction modelled using one of three reduced blood sampling protocols as described in the next paragraph.
The influence of EtOH concentration, subsurface layering and scale on flushing solution delivery and PCE recovery was investigated through a combination of experimental and mathematical modeling studies.
The scale inhibitor concentration is determined using standard addition method, based on a semi-empirical linear relationship between scale inhibitor concentration and the logarithm of scale induction time.
Results show that in clay-rich sandstone aquifers, ion exchange plays a key role in determining the maximum concentration and the time scale of released cations in receiving natural waters.
