Keywordsphotocatalysis; purification of air and water; titanium dioxide nanotubes; TiO2; composites; photocatalysis; semiconductor; tantalate; sulfide; pollutant degradation; TiO2 photocatalysis; oxygen isotope; hydroxylation; ring-opening; decarboxylation; titanium dioxide; photocatalytic coatings; magnetron sputtering; doping; methylene blue; HiPIMS; antimicrobial activity; photocatalyst; TiO2; Y-zeolite; composite; hydrophobic modification; visible light; decomposition of 2-propanol gas; photocatalyst; VOCs; toluene; solar reactor; field test; titanium dioxide; hydroxyl radical; reactive oxygen species; EPR spectroscopy; spin trapping technique; sterically hindered amines; photocatalysis; plasma treatment; synergy; air-cleaner; field test; total suspended particulates; total volatile organic compounds; long-term usability; tungsten oxide; hydrothermal; photocatalytic; visible light; platinum; photodeposition; ethylene; photocatalyst; TiO2; microwave; non-thermal effect; wastewater treatment; microwave discharge electrodeless lamp; UV; photocatalysis; photochemistry; semiconductor; TiO2; rutile; anatase; absorption; scattering; particle-size; ESR; NMR; OH radical; superoxide radical; H2O2; acetaldehyde; metal doped TiO2; glutathione; amino acids; visible-light responsive photocatalysts; TiO2; photocatalysis; adsorb and shuttle; charge transfer; electron storage; carbon; zeolite; WO3; titania; photocatalytic activity; octahedral anatase particles; post-treatments; time-resolved microwave conductivity; photocatalysis; hydrocarbons; hydrogen; organic substrates; Fe/TiO2; PhotoFuelCells; photoelectrochemical cells; solar energy conversion; quantum dot sensitizers; TiO2; perovskite; photocatalysis; visible light active; water splitting; doping; photocatalysis; TiO2; activated carbon; silica; composite photocatalyst; diethyl sulfide; photocatalysis; dyes; rhodamine B; sensitization; AOPs environmental impact; risk assessment; environmental risk indexes; AOPs comparison; sustainability; TiO2; hematite; film; sol-gel; plasmatic; photocurrent; water splitting; photocatalysis; air purification; prototype modeling; photoreactor; coadsorption; indoor air; catalyst deactivation; byproducts; catalyst lifetime; photochemistry; photocatalysis; energy storage; green chemistry; benzylamine; imine; visible light; anatase; silicate; TiO2; hydrothermal; X-zeolite; Porous-glass; melt-quenching; composite; photocatalyst; adsorption; 2-propanol; TiO2 photocatalysis; CCA; chromium(VI); remediation; reduction; heterogeneous photocatalysis; disinfection; water; healthcare associated infections; microorganisms; solar reactors; solar fuels; heterogeneous photocatalysis; water splitting; renewable hydrogen; visible sensitization; hydrogen peroxide; bio-oxygenates photoreforming; electrocatalysis; carbon dioxide reduction; DFT; HOMO; LUMO; spin density; conductivity; TiO2 photocatalysis; DSC; Honda/Fujishima effect; emerging contaminants; pharmaceuticals; degradation; photoreactor design; six-flux model; UV-photolysis; Langmuir–Hinshelwood; modeling and simulation; collapsed titania nanotubes; FTIR; CO2 adsorption; defect sites; OH stretches
