Synthesis of Single-Phase MoO3-Nanoparticles Using Various Acids for the Fabrication of n-MoO3/p-Si Junction Diode

Efficient Samarium-Grafted-C3N4-Doped α-MoO3 Used as a Dye Degrader and Antibacterial Agent: In Silico Molecular Docking Study

“…The phases. 17 Several methods were used to prepare different structures and morphologies of MoO 3 , such as microwave methodology, electrochemical method, sonochemical method, coprecipitation, flame synthesis, and hydrothermal process.…”

“…MoO 3 is a semiconducting material of the n-type having a significant band gap (ranging from 2.8 to 3.2 eV) that has several possible applications, including catalysis, sensors, batteries, photography, display devices, and lubricants. The MoO 3 nanomaterial, being thermally inert, can exist in three different crystalline structures of orthogonal (α-MoO 3 ), monoclinic (β-MoO 3 ), and hexagonal ( h -MoO 3 ) MoO 3 phases . Several methods were used to prepare different structures and morphologies of MoO 3 , such as microwave methodology, electrochemical method, sonochemical method, coprecipitation, flame synthesis, and hydrothermal process.…”

“…The MoO 3 nanomaterial, being thermally inert, can exist in three different crystalline structures of orthogonal (α-MoO 3 ), monoclinic (β-MoO 3 ), and hexagonal ( h -MoO 3 ) MoO 3 phases. 17 Several methods were used to prepare different structures and morphologies of MoO 3 , such as microwave methodology, electrochemical method, sonochemical method, coprecipitation, flame synthesis, and hydrothermal process. Coprecipitation is the preferred method due to the ease in synthesizing α-MoO 3 nanomaterials and its cost-effectiveness.…”

Facile synthesis and effect of thermal treatment on MoO3−x@MoS2 (x = 0, 1) bilayer nanostructure: toward photoelectrochemical applications

“…Molybdenum oxides (MoO 3-x , x = 0, 1) are highly attractive transition metal oxides due to their exceptional thermal stability and bandgap energy (E g ≅ 3.2 eV), efficient charge transport, and metallic electrical conductivity behavior with distorted rutile structure. These features make MoO 3-x ideal materials for various applications, including photocatalysts, HER, supercapacitors, photodiodes, gas sensing, display devices, and the reforming process [36][37][38][39][40][41][42][43][44][45][46]. MoO 3-x catalysts, with Mo 4+ O 2 , and Mo 6+ O 3 phases, have shown promising catalytic activity for the partial oxidation of water molecules, owning to the presence of electron-free sites that allow for a greater degree of freedom in structure deformation (Mo 4+ and Mo 6+ ) [38,47,48].…”