Chlorine fate and transport in distribution systems: Experimental and modeling studies

It has become generally accepted that water quality can deteriorate in a distribution system through microbiological and chemical reactions in the bulk phase and/or at the pipe wall. The most serious aspect of water quality deterioration in a network is the loss of the disinfectant residual that can...

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Veröffentlicht in:Journal - American Water Works Association 2010-05, Vol.102 (5), p.144-156
Hauptverfasser: CLARK, ROBERT M., YANG, Y. JEFFREY, IMPELLITTERI, CHRISTOPHER A., HAUGHT, ROY C., SCHUPP, DONALD A., PANGULURI, SRINIVAS, KRISHNAN, E. RADHA
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container_end_page 156
container_issue 5
container_start_page 144
container_title Journal - American Water Works Association
container_volume 102
creator CLARK, ROBERT M.
YANG, Y. JEFFREY
IMPELLITTERI, CHRISTOPHER A.
HAUGHT, ROY C.
SCHUPP, DONALD A.
PANGULURI, SRINIVAS
KRISHNAN, E. RADHA
description It has become generally accepted that water quality can deteriorate in a distribution system through microbiological and chemical reactions in the bulk phase and/or at the pipe wall. The most serious aspect of water quality deterioration in a network is the loss of the disinfectant residual that can weaken the barrier against microbial contamination. Studies have suggested that one factor contributing to the loss of disinfectant residuals is the reaction between bulk‐phase disinfectants and pipe wall material. Free chlorine loss in corroded metal and polyvinyl chloride (PVC) pipes, subject to changes in velocity, was assessed during an experiment conducted under controlled conditions in a specially constructed pipe loop at the US Environmental Protection Agency's test and evaluation facility in Cincinnati, Ohio. These studies demonstrated that in older unlined metal pipes, the loss of chlorine residual increases with velocity but that wall demand in PVC was negligible.
doi_str_mv 10.1002/j.1551-8833.2010.tb10117.x
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subjects Antiseptics
Biofilms
Calibration
Cast iron
Chlorine
Coefficients
Corrosion
Disinfection & disinfectants
Distribution
Distribution Systems
Drinking water
Energy consumption
Environmental protection
Flow rates
Flow velocity
Mass transfer
Maximum flow
Modeling
Polyvinyl chloride
Potable water
PVC Pipe
Residual Chlorine
Steel pipes
Studies
Velocity
Vinyl polymers
water around the world
Water distribution
Water distribution systems
Water pipes
Water Quality
Water utilities
title Chlorine fate and transport in distribution systems: Experimental and modeling studies
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