Sentence examples for energetic interfaces from inspiring English sources

Photochemistry of organic inorganic energetic interfaces is a rapidly emerging research field in which energy absorption and interface stability mechanisms have yet to be established.

Systematic investigations reveal that molecular-doped reduced graphene oxide with fluorine atoms (MFGO) exhibits fast charge-extraction ability and well-aligned energetic interface characteristic due to its intrinsic structure, and MFGO promotes perovskite crystallization and orientation with minimized stoichiometric defects.

The proposed model also considers energetic boundary and interface conditions consistent with the boundary and interface conditions imposed on the solutions of the underlying wave system.

In the case of C5, energetic barriers at both interfaces were significantly reduced.

The photoelectrochemical characterization allowed to estimate also the oxides flat band potential and to get the necessary information to sketch the energetic of the metal/oxide/electrolyte interfaces.

We also studied and quantified the topological and energetic variability of interaction interfaces, finding a much higher heterogeneity in the context residues than in the consensus binding motifs.

Its composition, in particular, additives controls the energetic at the TiO2/dye/electrolyte interface, influencing the performance of dye solar cell.

In small systems, the energetic cost of the interface is too large, and dynamic coexistence results, which is also characterized by an S-bend in the microcanonical caloric curve.

The energetic offset at the interface provides the necessary driving force to overcome the strong binding energies (typically ∼ 0.3 eV) of singlet excitons resulting from the low dielectric constants of organic semiconductors (ε ∼ 3).[ 15] These neutral excitations are photogenerated on both the donor polymer and the fullerene domains, and charge generation occurs across the interface.

The objective of this contribution is to study computational aspects of modeling thermo-mechanical solids containing mechanically energetic, geometrically non-coherent Kapitza interfaces under cyclic loading.

By reviewing selected experimental examples, the atomic transport processes initiated by energetic heavy ions at the interfaces of thin film systems will be summarized.