Abstract
SHS investigation development is considered from the geographical and historical viewpoint. 3 stages are described. Within Stage 1 the work was carried out in the Department of the Institute of Chemical Physics in Chernogolovka where the scientific discovery had been made. At Stage 2 the interest to SHS arose in different cities and towns of the former USSR. Within Stage 3 SHS entered the international scene. Now SHS processes and products are being studied in more than 50 countries.
Abstract
In this chapter, the measurements of fluorescence lifetimes of short-chain
dyads ((E)-4-(((9H-fluorene-2-yl) Dimino)-methyl), N, N dimethyl-aniline (NND
MBF)-graphene quantum dot (GQD) nanocomposite systems were made. The results
observed from this system have been compared with the pristine dyad (p-dyad) and
graphene oxide (GO)-dyad nanocomposite and Carbon Quantum Dot(CQD)
nanocomposite. When compared to pristine dyad and dyad-GO systems, the dyad-GQD
appears to be a much better light-energy converter because of its superior capacity for
trans-conformer retention, which can occur even under a photoexcitation state. In the
instance of the nanocomposite dyad NNDMBF-GQD, the surface trap effects may be
the cause of the excited state's trans-conformer's relative stability when compared to its
pristine form.
Keywords:
Carbon quantum dots, Charge-separated species, Charge recombination, Electron transfer, Electron donor, Electron acceptor, Energy storage, Fluorescence lifetimes, Graphene quantum dots, Graphene oxide, Nanocomposites, Pristine dyad.
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Authors:Bentham Science Books