Recently, more complex characterizations have emerged that focus on the role of MCS in influencing strategic change, through interactive controls, and balanced scorecard approaches, which integrate a range of measures to enable strategic outcomes.
The fabrication of custom-shaped OPVs produced information concerning the technical boundaries of layout design and manufacturing prior to further steps towards more complex OPV designs, module characterization and process upscaling are taken.
When the situation is not "static" any longer, that is, the observer moves, the characterization is more complex.
This also paves the way to the characterization of even more complex traits (e.g., yield, resistance to stresses, diseases) or processes (e.g., fruit ripening, growth efficiency, senescence) [4, 8].
In contrast to detection and progression of visual field defects, characterization is a more complex task.
When transport rates are comparable with those of metabolism or excretion, the distribution models become more complex and require kinetic data for characterization.
However, quantitative linkage between solubility behavior in chemically simple melts and more complex natural magma compositions await detailed structural characterization of the water solution mechanisms in simple and complex magmatic melts.
The potential for such differences for new biosimilars based on equally or more complex production processes has driven requirements for characterization and preclinical studies.
Characterization also has become more subordinate to "the general purpose and design"; moreover, Dickens was presenting characters of greater complexity who provoke more complex responses in the reader (William Dorrit, for instance).
A second, and much more complex class of questions concerns the identification and characterization of dedicated energy crops.
