Apolinario, Arlete published the artcileTailoring the anodic hafnium oxide morphology using different organic solvent electrolytes, Product Details of C2H5NO, the main research area is hafnium oxide electrochem anodization organic solvent electrolyte morphol; HfO2; anodic hafnium oxide; anodic oxide; anodization; dielectric; nanoporous; nanotubes; organic solvent; viscosity.
Highly ordered anodic hafnium oxide (AHO) nanoporous or nanotubes were synthesized by electrochem. anodization of Hf foils. The growth of self-ordered AHO was investigated by optimizing a key electrochem. anodization parameter, the solvent-based electrolyte using: Ethylene glycol, DMSO, formamide and N-methylformamide organic solvents. The electrolyte solvent is here shown to highly affect the morphol. properties of the AHO, namely the self-ordering, growth rate and length. As a result, AHO nanoporous and nanotubes arrays were obtained, as well as other different shapes and morphologies, such as nanoneedles, nanoflakes and nanowires-agglomerations. The intrinsic chem.-phys. properties of the electrolyte solvents (solvent type, dielec. constant and viscosity) are at the base of the properties that mainly affect the AHO morphol. shape, growth rate, final thickness and porosity, for the same anodization voltage and time. We found that the interplay between the dielec. and viscosity constants of the solvent electrolyte is able to tailor the anodic oxide growth from continuous-to-nanoporous-to-nanotubes.
Nanomaterials published new progress about Anodization. 123-39-7 belongs to class amides-buliding-blocks, name is N-Methylformamide, and the molecular formula is C2H5NO, Product Details of C2H5NO.
Referemce:
Amide – Wikipedia,
Amide – an overview | ScienceDirect Topics