Subsequent memory activations in control subjects were material-specific with predominantly left sided activations for verbal subsequent memory and similar right sided activations for visual subsequent memory.
Ionization effects are expected to be more significant in materials with covalent/ionic bonding involving predominantly well-localized electrons.
Control subjects showed material-specific memory encoding activations with predominantly left hemispheric activations for word encoding and right for face encoding.
These materials were predominantly microporous (with BET surface areas of 828 m2 g−1 and 1408 m2 g−1), exhibiting high CO2 uptake capacities (1.96 mmol g−1 and 2.69 mmol g−1 at 273 K, 1 bar).
By controlling the conditions it was possible to obtain predominantly ultramicroporous materials with mean pore widths over the range 0.53 0.77 nm.
In contrast, SBM materials with a longer polystyrene block predominantly formed micelles in the PPE phase and the blends revealed a highly anisotropic morphology.
Thermal storage systems with phase change materials are predominantly designed, analysed and optimised through numerical modelling.
The activated carbon (AC) materials exhibited predominantly mesoporous framework with specific surface area between 147 and 385 m2 g−1.
The temperature of the Sun's surface is so high that no solid or liquid can exist there; the constituent materials are predominantly gaseous atoms, with a very small number of molecules.
Simultaneously, it was detected that the production well was filled for around 200 m with material consisting predominantly of native copper (Cu(0); about 50%), together with magnetite (Fe3O4) and other minerals (Regenspurg et al. 2015).
