Serial ozone/peroxide/low pressure UV treatment for synergistic and effective organic micropollutant conversion

Serial ozone/peroxide/low pressure UV was tested for an advanced oxidation process (AOP) application on pre-treated surface water in a pilot plant. The pilot plant consisted of an ozone loop reactor followed by a low pressure UV (LP-UV) reactor. Fourteen model compounds and 6 or 10ppm hydrogen perox...

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Veröffentlicht in:Separation and purification technology 2012-10, Vol.100, p.22-29
Hauptverfasser: Lekkerkerker-Teunissen, K., Knol, A.H., van Altena, L.P., Houtman, C.J., Verberk, J.Q.J.C., van Dijk, J.C.
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container_start_page 22
container_title Separation and purification technology
container_volume 100
creator Lekkerkerker-Teunissen, K.
Knol, A.H.
van Altena, L.P.
Houtman, C.J.
Verberk, J.Q.J.C.
van Dijk, J.C.
description Serial ozone/peroxide/low pressure UV was tested for an advanced oxidation process (AOP) application on pre-treated surface water in a pilot plant. The pilot plant consisted of an ozone loop reactor followed by a low pressure UV (LP-UV) reactor. Fourteen model compounds and 6 or 10ppm hydrogen peroxide were dosed to the water. Ozone doses varied from 0.5 to 2.0g/m3 and UV doses varied, depending on the UV transmission (73–83%) of the water, between 700 and 950mJ/cm2. The treatment process was evaluated on bromate formation, compound conversion and energy demand. The bromate formation during the O3/H2O2 process was kept lower than 0.5μg/L by using a peroxide dose of 6ppm and an ozone dose of 1.5mg/L. With a 1.5mg/L ozone dose and 6ppm of peroxide, 8 out of 14 compounds were converted by more than 90% with an energy consumption of 0.027kWh/m3. During the subsequent UV/H2O2, the EEO for atrazine was 0.52kWh/m3; together with the O3/H2O2, the EEO for serial AOP was 0.55kWh/m3, which was 0.73kWh/m3 for UV/H2O2 only. During O3/H2O2 treatment, the DOC decreased with 0.2mg/L and the UV-T254 increased with almost 5%, illustrating the synergistic effect of serial AOP. When 3 UV reactors in series were used, with each reactor dosing 1/3 of the total dose, the total conversion increased 5–15%.
doi_str_mv 10.1016/j.seppur.2012.08.030
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subjects Advanced oxidation process
Applied sciences
atrazine
Bromate
Bromates
Chemical engineering
Continental surface waters
Conversion
energy conversion
Exact sciences and technology
hydrogen peroxide
Low pressure
Low pressure UV
Natural water pollution
oxidation
Ozone
Peroxide
Peroxides
Pilot plants
Pollution
Reactors
Serials
surface water
synergism
Water treatment and pollution
title Serial ozone/peroxide/low pressure UV treatment for synergistic and effective organic micropollutant conversion
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