Two-dimensional Ti3C2 MXene films replace costly ITO and low-capacitance carbons with conductive, transparent layers for energy storage and electronics.
MXene template layers enable oriented perovskite thin-film growth on silicon and polymer substrates despite lattice mismatch and heat limits.
Using fluorophosphate salt and acid in a nonaqueous solvent, this case improves MXene yield and sheet homogeneity for EM shielding.
Asymmetrical outer-layer ordering in MAX phases enables MXenes with tunable semiconductive, magnetic, and photocatalytic behavior.
MXene layers encapsulate post-transition metals to resolve dispersion incompatibility and enhance mechanical strength.
Halogen-free MXene synthesis uses base etchants to remove MAX phase layers, preventing surface halogen contamination that causes oxidation instability.
Halogenated titanium compounds enable chemical vapor deposition of high-purity thin films with minimal residual carbon.
Specific tritertbutyl aluminum isomers reduce compositional variability to deliver consistent aluminum-doped transition metal carbide thin films.
Replacing vanadium metal with vanadium carbide lowers production costs while maintaining physical properties for catalyst applications.
Varying oxygen concentration in thermal plasma production adjusts titanium carbide nanoparticle electric resistance.
Thermal plasma synthesis converts oxide slurries into TiC-Zr-Si composite particles that resist oxidation at elevated temperatures.
Titanium carbide/porous carbon composite overcomes low adsorption efficiency in conventional electro-adsorption by providing rich pore structures.
High-energy ball milling reduces crystal grain size of low-grade metal oxides, enabling effective oxygen removal during heat treatment.
Gaseous phase silanization deposits a hydrophobic layer on activated Ti3C2 MXene to enhance non-polar volatile organic compound affinity.
Fluoridic acid etching produces transparent MXene films that achieve 1000 F/cm3 capacitance while lowering fabrication costs compared to ITO.
Spark plasma sintering creates MXene compounds with uniform tablet morphology, resolving wide particle dispersion that limits electrical conductivity.
A method converts carbon dioxide into solid carbides via exothermic reactions with silicon or titanium.