This paper focuses on the intensive research work performed to characterize the micro- and nanostructure of each unirradiated layer (silicon carbide and pyrocarbon coatings).
Despite the intensive research in this area, none of the studies available in the literature provides all the possible relevant information about CCTO fabrication, structure, the factors influencing its dielectric properties, CCTO immobilization, and sensing applications.
Among the intensive research on this area, in vitro studies clearly assume the leadership, while in vivo studies remain secondary.
Based on this hypothesis, intensive research focused on developing new non-peptide DPP-4 inhibitors has been carried out.
In this context, intensive research has been conducted to provide flexible turbo decoder targeting high throughput, multi-mode, multi-standard, and power consumption efficiency.
To solve this problem, intensive research effort on frequency domain channel equalization (FDE) is currently ongoing in two directions: (i) orthogonal frequency division multiplexing (OFDM) [2], and (ii) single carrier (SC -FDE [3].
To this end, intensive research is conducted to support MN and UDN, e.g., solutions for in-band backhaul, where the access and backhaul share the same spectrum, specific distributed RRM schemes, or dynamic nomadic node selection for backhaul optimization.
The ethnographic style of investigation used to achieve this required intensive research but we feel it provided real insights which we were able to feed back to the practices.
