Nutrient Removal Performance Of A Wood Chip Bioreactor Treatment System Receiving Silage Bunker Runoff

Silage bunker runoff is a form of agricultural pollution that contributes to aquatic ecosystem degradation. Current handling and treatment methods for this process wastewater are often ineffective or expensive. A woodchip bioreactor is an emerging treatment technology designed to facilitate denitrif...

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Main Author: Kraft, Deborah Joy
Format: Others
Language:en
Published: ScholarWorks @ UVM 2019
Subjects:
Online Access:https://scholarworks.uvm.edu/graddis/981
https://scholarworks.uvm.edu/cgi/viewcontent.cgi?article=1981&context=graddis
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spelling ndltd-uvm.edu-oai-scholarworks.uvm.edu-graddis-19812019-10-20T11:30:11Z Nutrient Removal Performance Of A Wood Chip Bioreactor Treatment System Receiving Silage Bunker Runoff Kraft, Deborah Joy Silage bunker runoff is a form of agricultural pollution that contributes to aquatic ecosystem degradation. Current handling and treatment methods for this process wastewater are often ineffective or expensive. A woodchip bioreactor is an emerging treatment technology designed to facilitate denitrification through the provision of an anaerobic, carbon rich environment. A wood chip bioreactor treatment system, consisting of three pre-treatment tanks, two wood chip bioreactors, and one infiltration basin, was constructed at the Miller Research Complex in South Burlington, Vermont in 2016. Runoff and leachate from an adjacent silage storage bunker is directed into the system. The pre-treatment tanks include two settling tanks and one aeration tank. The former allows for sedimentation of organic matter, while the latter is designed to allow for nitrogen transformations that will help maximize nitrogen removal in the bioreactors. During the summer and fall of 2017, sampling occurred at four points within the system in order to determine the efficacy of various treatment steps. Samples were analyzed for nitrate (NOx—N), ammonium (NH4+-N), total nitrogen (TN), soluble reactive phosphorus (SRP), and total phosphorus (TP) in order to compare inflow and outflow pollutant concentrations and loads. Results indicate that this treatment system significantly reduced nutrient loads in the runoff. Over the entirety of the sampling period, the influent TN and TP mass load were both reduced by approximately 44%. 2019-01-01T08:00:00Z text application/pdf https://scholarworks.uvm.edu/graddis/981 https://scholarworks.uvm.edu/cgi/viewcontent.cgi?article=1981&context=graddis Graduate College Dissertations and Theses en ScholarWorks @ UVM bioreactor nitrogen phosphorus runoff silage bunker wood chip Art and Design Environmental Sciences Water Resource Management
collection NDLTD
language en
format Others
sources NDLTD
topic bioreactor
nitrogen
phosphorus
runoff
silage bunker
wood chip
Art and Design
Environmental Sciences
Water Resource Management
spellingShingle bioreactor
nitrogen
phosphorus
runoff
silage bunker
wood chip
Art and Design
Environmental Sciences
Water Resource Management
Kraft, Deborah Joy
Nutrient Removal Performance Of A Wood Chip Bioreactor Treatment System Receiving Silage Bunker Runoff
description Silage bunker runoff is a form of agricultural pollution that contributes to aquatic ecosystem degradation. Current handling and treatment methods for this process wastewater are often ineffective or expensive. A woodchip bioreactor is an emerging treatment technology designed to facilitate denitrification through the provision of an anaerobic, carbon rich environment. A wood chip bioreactor treatment system, consisting of three pre-treatment tanks, two wood chip bioreactors, and one infiltration basin, was constructed at the Miller Research Complex in South Burlington, Vermont in 2016. Runoff and leachate from an adjacent silage storage bunker is directed into the system. The pre-treatment tanks include two settling tanks and one aeration tank. The former allows for sedimentation of organic matter, while the latter is designed to allow for nitrogen transformations that will help maximize nitrogen removal in the bioreactors. During the summer and fall of 2017, sampling occurred at four points within the system in order to determine the efficacy of various treatment steps. Samples were analyzed for nitrate (NOx—N), ammonium (NH4+-N), total nitrogen (TN), soluble reactive phosphorus (SRP), and total phosphorus (TP) in order to compare inflow and outflow pollutant concentrations and loads. Results indicate that this treatment system significantly reduced nutrient loads in the runoff. Over the entirety of the sampling period, the influent TN and TP mass load were both reduced by approximately 44%.
author Kraft, Deborah Joy
author_facet Kraft, Deborah Joy
author_sort Kraft, Deborah Joy
title Nutrient Removal Performance Of A Wood Chip Bioreactor Treatment System Receiving Silage Bunker Runoff
title_short Nutrient Removal Performance Of A Wood Chip Bioreactor Treatment System Receiving Silage Bunker Runoff
title_full Nutrient Removal Performance Of A Wood Chip Bioreactor Treatment System Receiving Silage Bunker Runoff
title_fullStr Nutrient Removal Performance Of A Wood Chip Bioreactor Treatment System Receiving Silage Bunker Runoff
title_full_unstemmed Nutrient Removal Performance Of A Wood Chip Bioreactor Treatment System Receiving Silage Bunker Runoff
title_sort nutrient removal performance of a wood chip bioreactor treatment system receiving silage bunker runoff
publisher ScholarWorks @ UVM
publishDate 2019
url https://scholarworks.uvm.edu/graddis/981
https://scholarworks.uvm.edu/cgi/viewcontent.cgi?article=1981&context=graddis
work_keys_str_mv AT kraftdeborahjoy nutrientremovalperformanceofawoodchipbioreactortreatmentsystemreceivingsilagebunkerrunoff
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