Efforts are being made to tune the reactivity of the tetraoxy anion of iron in the+ 6 oxidation
state (FeVIO42–), commonly called ferrate, to further enhance its applications in various …

Abstract Many iron (II, III, VI)-and manganese (II, IV, VII)-based oxidation processes can
generate reactive iron/manganese species (RFeS/RMnS, ie, Fe (IV)/Fe (V) and Mn (III)/Mn …

Although the Fe (VI)–sulfite process has shown great potential for the rapid removal of
organic contaminants, the major active oxidants (Fe (IV)/Fe (V) versus SO4•–/• OH) involved …

Fe (VI) has received increasing attention since it can decompose a wide range of trace
organic contaminants (TrOCs) in water treatment. However, the role of short-lived Fe (IV) …

In the realm of wastewater treatment, the power of ferrate (Fe (VI)) and peracetic acid (PAA)
as oxidants stands out. But their combined might is where the enhancement truly lies. Their …

This paper investigated ultraviolet A light-emitting diode (UVA-LED) irradiation to activate Fe
(VI) for the degradation of micropollutants (eg, sulfamethoxazole (SMX), enrofloxacin, and …

Abstract Bisphenol E (bis (4-hydroxyphenyl) ethane, BPE), as a typical endocrine disrupting
chemical, is commonly detected in source water and drinking water, which poses potential …

Current research focuses on introducing additional energy or reducing agents to directly
accelerate the formation of Fe (IV) and Fe (V) from ferrate (Fe (VI)), thereby ameliorating the …

This paper investigated the oxidation of recalcitrant micropollutants [ie, atenolol (ATL),
flumequine, aspartame, and diatrizoic acid] by combining ferrate (VI)(FeVIO42–, FeVI) with a …

To reveal the role of ferrate self-decomposition and the fates of intermediate iron species [Fe
(V)/Fe (IV) species] during ferrate oxidation, the reaction between ferrate and methyl phenyl …