ABSTRACT

Advanced oxidation processes (AOPs) for micropollutant treatment have proved to be efficient and cost-effective techniques because of possessing features like high oxidation performance and no subsequent pollution. Besides, these processes have been used to effectively degrade certain classes of new contaminants that conventional technology cannot handle. Further, emerging complex contaminations require a more advanced material composition for their degradation. Various emerging materials used in AOPs include graphene, solid pyrite, FeCuC, nickel–zinc ferrite composite material, BiFeO3 magnetic nanoparticles, Fe-TiO2/activated carbon (AC), Fe3O4/TiO2/reduced graphene oxide (RGO), 2Fe-CeO2 catalyst, Fe-TiO2/AC (FTAC), CuO/Cu2O/Cu, graphitic carbon nitride (g_C3N4)_Bi2O2CO3, SiC_B2iO2CO3, Mn2O3/AC, CuOx/granular activated carbon (GAC), Fe–Mn–O nanosheets/wood carbon, iron ore tailings, Fe2O3/NaHSO3, FeNi3/SiO2/ZnO, Fe3O4, WO3/bucky paper membrane, peracetic acid and Fe(II), bentonite/TiO2/Ag, Fe3O4 nanoparticles, Fe@Fe2O3/active carbon fiber (ACF), FeNi3/chitosan/BiOI, Ag-CuFe2O4@WO3, carbon nano tubes (CNTs), TiO2/CNT, Fe/CNT, persulfate (PS)/Cuo, PS/Cuo/ultrasound (US), PS/Fe0/US, periodate and its composites, nanocomposites of MXene, Ti3C2, (ti3C2Tx) MXene, ZnO/Ti3C2Tx, etc. This chapter presents a comprehensive overview of the characteristics of emerging materials of distinct AOPs and their prospective advancements in improving micropollutant treatment efficiency.