Synthesis and inkjet printing of aqueous ZnS:Mn nanoparticles

Spectroscopic investigation of CuxMg0.2−xZn0.8S (x = 0, 0.05, 0.10, 0.15) thin films for deep and dilute blue LED applications

“…[ 43,44 ] Peaks at 435 nm, 482 nm, 492 nm and 524 nm assigned to S vacancy. [ 1,43,45,46 ] The peak at 564 nm [ 1 ] originates from the Zn vacancy. These assignments of peaks are supported by EDX analysis for composition.…”

Zirconia nano-colloids transfer from continuous hydrothermal synthesis to inkjet printing

“…For example, it was shown that dispersing commercial TiO2 nanopowders involves an ultrasound treatment and a proper selection of the dispersant, despite a low particle content of 1-3 %wt [21,23]. Nonetheless, these efforts do not always lead to singularly dispersed nanoparticles, as a certain degree of agglomeration was observed in some cases [21,23,24] One of the strategies to overcome these problems is synthesizing nanoparticles directly dispersed in a liquid medium. Continuous hydrothermal synthesis (CHS) represents a powerful route for the synthesis of various materials in the form of a liquid dispersion of nanosized particles with a narrow size distribution.…”

Kinetics of oxygen adsorption on ZnS nanoparticles synthesized by precipitation process

“…Recently, dual florescence-MR cellular and molecular imaging has been investigated using ZnS:Mn nanoparticles [18,19]. Addition of manganese to ZnS as a doping element leads to a red shift in the emission peak of the PL spectrum [20,21]. On the other hand, reduction of the ZnS particle size leads to the blue shift of the PL emission peak with respect to the bulk ZnS [17].…”