Promising novel transparent conductive F-doped ZnSnO3 thin films for optoelectronic applications

Effect of Li Doping on Structural, Optical, and Optoelectrical Characteristics of ZnSnO3 Thin Films Prepared by Nebulizer Spray Pyrolysis

“…Furthermore, the Li-doped ZTO 3 layers' , 1 χ ( ) , 3 χ ( ) and n 2 magnitudes are all roughly larger than those of previous semiconductors that have been recorded. 37,48 Hot-probe instrument of the Li-doped ZTO 3 films.-A hot probe apparatus was required to determine the type of semiconductor. The hot probe gadget measures p-type conductivity in the Li-doped ZTO 3 films.…”

“…They noted that the fluorine doping addition improves the electrical conductivity, optical carrier concentration, optical conductivity, and optical mobility of the ZTO 3 thin films. 37 The goal of the current study is to create innovative Li-doped ZTO 3 layers by spray pyrolysis and address the impact of Li doping content on the optical, optoelectrical, and structural properties of the Li-doped ZTO 3 layers.…”

Comprehensive review of micro/nanostructured ZnSnO3: characteristics, synthesis, and diverse applications

“…[5][6][7] Among them, nanostructures of ZnSnO 3 (various nano shapes, such as wires, rods, rings, tubes, cubes, and spheres) have attracted considerable interest owing to their advantageous chemical sensitivity, wide energy bandgap, high transmittance percentage, electron mobility, low price, non-toxicity, and earth abundance. 5,[8][9][10][11][12][13] The performance of energy storage devices and catalysis is greatly affected by the morphology, structure, and physical characteristics of the active electrode materials. Furthermore, LN-type ZnSnO 3 , which possesses a high spontaneous polarization (theoretical value P r z 59 mC cm −2 ), has been experimentally observed in epitaxial thin lms with a value of P r z 47 mC cm −2 .…”

“…Accordingly, to overcome this limitation and improve their characteristics, researchers are actively engaged in the development of ternary oxides, such as ZnSnO 3 and In-Zn-O. [5][6][7] Among them, nanostructures of ZnSnO 3 (various nano shapes, such as wires, rods, rings, tubes, cubes, and spheres) have attracted considerable interest owing to their advantageous chemical sensitivity, wide energy bandgap, high transmittance percentage, electron mobility, low price, non-toxicity, and earth abundance. 5,[8][9][10][11][12][13] The performance of energy storage devices and catalysis is greatly affected by the morphology, structure, and physical characteristics of the active electrode materials.…”