Nanoindentation and Scanning Electron Microscopy (SEM) were implemented to characterize nanomechanical properties and microstructures of the old and new ITZs.
In this work, a computational methodology has been implemented to characterize the thermal engineering performance of a planar SOFC.
Locally dual porosity models are implemented to characterize the heterogeneity of small-scale natural fractures, and large-scale fractures are represented explicitly by discrete fracture models.
These results are implemented to characterize the assembly of SV40 virus and to obtain information on the putative pathways controlling the progressive build-up of the SV40 capsid.
The FT-IR, SEM, EDX, TEM, and surface area analysis methods were implemented to characterize the morphological, chemical, thermal and surface properties of the developed adsorbent.
The stack flow uniformity and the standard flow deviation indexes are implemented to characterize the flow distributions in the stack and among the channels of FT-SOFC's, respectively.
In addition, linearization of the breakthrough curve by dynamic models was implemented to characterize the adsorption process by the composite adsorbent in ECPS column model.
Particularly, X-ray CT scanning was implemented to characterize the weak bonding interfaces formed in the layered extrusion processes.
SVD and MDS methods have been implemented to characterize the ionospheric variability using the GPS-TEC data with different latitudes.
