Amorphous solids, like crystalline solids, exhibit a wide variety of atomic-scale structures.
Most solids exhibit a volumetric change with temperature variation, and thus the presence of a temperature distribution generally induces stresses created from boundary or internal constraints.
This series of isomorphic solids exhibits a wide range of electric, magnetic, optic, and catalytic properties that are readily applied in various commercial devices.
Although these practical capacities were lower than the expected theoretical ones corresponding to the formation of Li3M compounds, it appeared that, in the presence of graphite, amorphous solids exhibiting a (partly) covalent character like As and Sb gave better long life cycling properties than the crystalline and metallic bismuth.
More precisely elastic solids exhibit a surface free energy per unit area, which although has the same units as liquid surface tension, is more complicated.
A major distinction between liquids and elastic solids is that for liquids, the surface free energy is independent of area, whereas elastic solids exhibit an area-dependent surface free energy.
Results showed that at high superficial gas velocities, especially in the turbulent regime, the cross section solids holdup exhibited a radially symmetric distribution, which was not the case for the bubbling regime.
The pretreated solids exhibited excellent enzymatic digestibility, with saccharification yields of 86.9% and 81.1% for cellulose and xylan, respectively.
These guest-included solids exhibited the same PXRD patterns as the pristine 2 and 3.
A number of proteins related to fruit respiratory pathway and quality (i.e., firmness and soluble solids) exhibited significant changes over the course of fruit maturation and ripening.
