According to the fundamental study of reactive species formation, a microstructure-dependent photocatalytic mechanism was established.
High-quality nitride microcavities have numerous applications in the fundamental study of room temperature light matter interactions [4, 5].
Substantial heat transfer literature has been studied on water based nanofluids used in the fundamental study for engineering applications.
Such materials are interesting from both points of the fundamental study of materials science as well as their applications [63, 64].
Carbonaceous materials as conductive materials have various morphology and crystallinity, therefore, the fundamental study of carbonaceous materials as conductive materials is important.
Particular emphasis is given to link statistical mechanics methods to the description of each one of the experimental stages within the catalyst's synthesis, setting a framework for the fundamental study of the emerging field of molecularly imprinted catalysts.
However, despite many years of intensive research in this direction, the fundamental study in this area still attracts a great attention due to a number of interesting effects primarily related to obtaining technology and size effects.
The obtained results are interesting from the standpoints of the fundamental study of the electrical properties of the porous binary semiconductor materials and of the potential practical applications in electronic and thermoelectric devices.
