Oxidative treatment of iodide-containing waters can form toxic iodinated disinfection byproducts (I-DBPs). To better understand the fate of iodine, kinetics, products, and stoichiometries for the reactions of ferrate(VI) with iodide (I-) and hypoiodous acid (HOI) were determined. Ferrate(VI) showed considerable reactivities to both I- and HOT with higher reactivities at lower pH. Interestingly, the reaction of ferrate(VI) with HOT (k = 6.0 X 10(3) M-1 s(-1) at pH 9) was much faster than with I- (k = 5.6 X 10(2) M-1 s(-1) at pH 9). The main reaction pathway during treatment of I--containing waters was the oxidation of to HOT and its further oxidation to IO3- by ferrate(VI). However, for pH > 9, the HOT disproportionation catalyzed by ferrate...
Iodinated disinfection byproducts (I-DBPs) are potent toxins found in drinking water, yet few have s...
[[abstract]]©2008 IWA- Potassium ferrate(VI) (K2FeO4) has advantageous properties such as a dual fun...
The transformation of iodide (I−) and hypoiodous acid (IO−) by Fe (II)-activated peroxydisulfate (PD...
© 2018 American Chemical Society. Oxidative treatment of iodide-containing waters can form iodinated...
Oxidative treatment of iodide-containing waters can form toxic iodinated disinfection byproducts (I-...
Oxidative treatment of iodide-containing waters can lead to a formation of potentially toxic iodinat...
[[abstract]]This study shows that iodinated disinfection by-products (I-DBPs) including iodoform (IF...
Iodine is a naturally-occurring halogen in natural waters generally present in concentrations betwee...
The rate of disappearance of iodine or triiodide was measured by mixing either OH⁻, Hg(II), H₃AsO₃, ...
We present a thorough analysis of the former works concerning the hydrolysis of iodine and its mecha...
Efforts are being made to tune the reactivity of the tetraoxy anion of iron in the +6 oxidation stat...
The reaction mechanism involved in the iodide anion oxidation initiated by hydrogen peroxide is rela...
Iodoorganic compounds are known for taste and odor problems in drinking waters. Iodoorganic compound...
The oxidation of iodide by synthetic birnessite (δ-MnO2) was studied in perchlorate mediain the pH r...
Iron(VI) and iron(V), known as ferrates, are powerful oxidants and their reactions with pollutants a...
Iodinated disinfection byproducts (I-DBPs) are potent toxins found in drinking water, yet few have s...
[[abstract]]©2008 IWA- Potassium ferrate(VI) (K2FeO4) has advantageous properties such as a dual fun...
The transformation of iodide (I−) and hypoiodous acid (IO−) by Fe (II)-activated peroxydisulfate (PD...
© 2018 American Chemical Society. Oxidative treatment of iodide-containing waters can form iodinated...
Oxidative treatment of iodide-containing waters can form toxic iodinated disinfection byproducts (I-...
Oxidative treatment of iodide-containing waters can lead to a formation of potentially toxic iodinat...
[[abstract]]This study shows that iodinated disinfection by-products (I-DBPs) including iodoform (IF...
Iodine is a naturally-occurring halogen in natural waters generally present in concentrations betwee...
The rate of disappearance of iodine or triiodide was measured by mixing either OH⁻, Hg(II), H₃AsO₃, ...
We present a thorough analysis of the former works concerning the hydrolysis of iodine and its mecha...
Efforts are being made to tune the reactivity of the tetraoxy anion of iron in the +6 oxidation stat...
The reaction mechanism involved in the iodide anion oxidation initiated by hydrogen peroxide is rela...
Iodoorganic compounds are known for taste and odor problems in drinking waters. Iodoorganic compound...
The oxidation of iodide by synthetic birnessite (δ-MnO2) was studied in perchlorate mediain the pH r...
Iron(VI) and iron(V), known as ferrates, are powerful oxidants and their reactions with pollutants a...
Iodinated disinfection byproducts (I-DBPs) are potent toxins found in drinking water, yet few have s...
[[abstract]]©2008 IWA- Potassium ferrate(VI) (K2FeO4) has advantageous properties such as a dual fun...
The transformation of iodide (I−) and hypoiodous acid (IO−) by Fe (II)-activated peroxydisulfate (PD...