Advanced oxidation processes can be employed to remove organic and inorganic contaminants during the treatment of water and wastewater. The reaction between the hydroxyl radical (HO-), the material responsible for removing contaminants during treatemnt, and the target compound, R, is represented as follows: HO +R→ byproducts The rate law for decay of the target compound, rR, corresponding to this reaction is: TR = - KRCHO-CR Estimate the volume of a PER reactor needed to achieve 95 percent reduction of chlorobenzene, by advanced oxidation, using HO concentrations of 10-9 moles/L; 10- 10 moles/L; and 10-11 moles/L, if the flowrate is 3800 m/day, k is 4.3*109 L/mol-s, and the initial concentration of chlorobenzene is 25 ug/L for each reactor. Be sure to explain your thought process.

Introduction to Chemical Engineering Thermodynamics
8th Edition
ISBN:9781259696527
Author:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
Publisher:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
Chapter1: Introduction
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Advanced oxidation processes can be employed to remove organic and inorganic
contaminants during the treatment of water and wastewater. The reaction between the
hydroxyl radical (HO-), the material responsible for removing contaminants during
treatemnt, and the target compound, R, is represented as follows:
HO + R byproducts
The rate law for decay of the target compound, rR, corresponding to this reaction is:
TR = - KRCHO CR
Estimate the volume of a PFR reactor needed to achieve 95 percent reduction of
chlorobenzene, by advanced oxidation, using HO concentrations of 10-9 moles/L ; 10-
moles/L; and 10-11 moles/L, if the flowrate is 3800 m/day, k is 4.3*10° L/mol-s, and
the initial concentration of chlorobenzene is 25 ug/L for each reactor. Be sure to
explain your thought process.
10
Transcribed Image Text:Advanced oxidation processes can be employed to remove organic and inorganic contaminants during the treatment of water and wastewater. The reaction between the hydroxyl radical (HO-), the material responsible for removing contaminants during treatemnt, and the target compound, R, is represented as follows: HO + R byproducts The rate law for decay of the target compound, rR, corresponding to this reaction is: TR = - KRCHO CR Estimate the volume of a PFR reactor needed to achieve 95 percent reduction of chlorobenzene, by advanced oxidation, using HO concentrations of 10-9 moles/L ; 10- moles/L; and 10-11 moles/L, if the flowrate is 3800 m/day, k is 4.3*10° L/mol-s, and the initial concentration of chlorobenzene is 25 ug/L for each reactor. Be sure to explain your thought process. 10
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