Urban morphology and material properties are critical parameters in the formation of outdoor microclimates and their effects on the thermal comfort of pedestrians.
Light scattering approaches, to be effective in determining physical properties such as morphology and material composition, must comprehend this spectrum of length scales.
The model domain is resolved in a continuum approach by using effective properties related to morphology and material properties through percolation theory.
Many different cage designs exist, however the effect of cage morphology and material properties on the fusion process remains largely unknown.
The choice of conversion method (and converter) is at least as important a decision as the choice of resin for an UHMWPE component because both factors introduce a subtle change in the morphology and material properties of the consolidated polymer.
Associated with the favorable morphology and material composition changes, the electrocatalytic activity for OER of the SW Ni Ni3S2/NF is markedly enhanced.
The effects of the crystallographic orientation and the tool edge radius are considered in terms of dislocation evolution, stacking fault evolution, shearing plane evolution, atom displacement, cutting force, surface morphology, and material removal mechanism.
This is due to the fact that principal factors such as retention of smaller particulates, proof of cake filtration, membrane pore size, surface morphology, and material must be considered in such investigations (Amosa 2015a; Boerlage et al. 2002).
As it has been pointed out by Doyle and Lyons [1], metal oxides are extremely complex experimental system and their electrocatalytic activity is highly dependent on a multitude of parameters, such as the electronic structure at the surface and in the bulk, morphology and material preparation history.
The morphology and materials that make up the canyons of a city greatly influence the urban climate.
