Keyword search (4,164 papers available)

"Mulligan CN" Authored Publications:

Title Authors PubMed ID
1 Evaluation and Utilization of Aged Bacteria in MICP Technology Fukue M; Lechowicz Z; Mulligan CN; Takeuchi S; Takeuchi H; 41900613
ENCS
2 Metal Exposure, Bioaccumulation, and Toxicity Assessment in Sediments from the St. Lawrence River Before and After Remediation Using a Resuspension Technique Javid M; Mulligan CN; Lefranc M; Rosabal Rodriguez M; 40559906
ENCS
3 Sustainable Recovery of Critical Minerals from Wastes by Green Biosurfactants: A Review Deravian B; Mulligan CN; 40509347
ENCS
4 Mineral Carbonation for Carbon Sequestration: A Case for MCP and MICP Wilcox SM; Mulligan CN; Neculita CM; 40076853
ENCS
5 Integration of Membrane-Based Pretreatment Methods with Pressure-Retarded Osmosis for Performance Enhancement: A Review Pakdaman S; Nouri G; Mulligan CN; Nasiri F; 40077246
ENCS
6 Properties and Behavior of Sandy Soils by a New Interpretation of MICP Fukue M; Lechowicz Z; Mulligan CN; Takeuchi S; Fujimori Y; Emori K; 40004331
ENCS
7 Oil spills in coastal regions of the Arctic and Subarctic: Environmental impacts, response tactics, and preparedness Bi H; Wang Z; Yue R; Sui J; Mulligan CN; Lee K; Pegau S; Chen Z; An C; 39689468
ENCS
8 Microbially Induced Calcium Carbonate Precipitation as a Bioremediation Technique for Mining Waste Wilcox SM; Mulligan CN; Neculita CM; 38393202
ENCS
9 Preparation, characteristics, and performance of the microemulsion system in the removal of oil from beach sand Bi H; Mulligan CN; Lee K; An C; Wen J; Yang X; Lyu L; Qu Z; 37399736
ENCS
10 Inhibited and Retarded Behavior by Ca2+ and Ca2+/OD Loading Rate on Ureolytic Bacteria in MICP Process Fukue M; Lechowicz Z; Fujimori Y; Emori K; Mulligan CN; 37176240
ENCS
11 Removal of Nutrients from Water Using Biosurfactant Micellar-Enhanced Ultrafiltration Binte Rafiq Era S; Mulligan CN; 36838547
ENCS
12 Surfactant-enhanced mobilization of persistent organic pollutants: Potential for soil and sediment remediation and unintended consequences Bolan S; Padhye LP; Mulligan CN; Alonso ER; Saint-Fort R; Jasemizad T; Wang C; Zhang T; Rinklebe J; Wang H; Siddique KHM; Kirkham MB; Bolan N; 36265382
ENCS
13 Utilization of a biosurfactant foam/nanoparticle mixture for treatment of oil pollutants in soil Vu KA; Mulligan CN; 35834082
ENCS
14 Remediation of oil-contaminated soil using Fe/Cu nanoparticles and biosurfactants Vu KA; Mulligan CN; 35361056
ENCS
15 Incorporation of Optical Density into the Blending Design for a Biocement Solution Fukue M; Lechowicz Z; Fujimori Y; Emori K; Mulligan CN; 35269187
ENCS
16 Feasibility of Pressure-Retarded Osmosis for Electricity Generation at Low Temperatures Abbasi-Garravand E; Mulligan CN; 34436319
ENCS
17 Exploring the use of alginate hydrogel coating as a new initiative for emergent shoreline oiling prevention Bi H; An C; Mulligan CN; Wang Z; Zhang B; Lee K; 34346356
ENCS
18 Filtration for improving surface water quality of a eutrophic lake. Palakkeel Veetil D, Arriagada EC, Mulligan CN, Bhat S 33310244
ENCS
19 Start-up of oxygen-limited autotrophic partial nitrification-anammox process for treatment of nitrite-free wastewater in a single-stage hybrid bioreactor. Hosseinpour B, Saborimanesh N, Yerushalmi L, Walsh D, Mulligan CN 31378146
CSFG
20 Pilot-scale application of a single-stage hybrid airlift BioCAST bioreactor for treatment of ammonium from nitrite-limited wastewater by a partial nitrification/anammox process. Saborimanesh N, Walsh D, Yerushalmi L, Arriagada EC, Mulligan CN 31267396
BIOLOGY
21 An eco-friendly method for heavy metal removal from mine tailings. Arab F, Mulligan CN 29594884
ENCS

 

Title:Start-up of oxygen-limited autotrophic partial nitrification-anammox process for treatment of nitrite-free wastewater in a single-stage hybrid bioreactor.
Authors:Hosseinpour BSaborimanesh NYerushalmi LWalsh DMulligan CN
Link:https://www.ncbi.nlm.nih.gov/pubmed/31378146?dopt=Abstract
DOI:10.1080/09593330.2019.1649467
Publication:Environmental technology
Keywords:Candidatus Brocadia species16S rRNA sequencingNitrite-free ammonium-rich wastewateranammox processhybrid technology
PMID:31378146 Category:Environ Technol Date Added:2019-08-07
Dept Affiliation: CSFG
1 Department of Building, Civil and Environmental Engineering, Concordia University, Montreal, Canada.
2 Department of Biology, Centre for Structural and Functional Genomics, Montreal, Canada.

Description:

Start-up of oxygen-limited autotrophic partial nitrification-anammox process for treatment of nitrite-free wastewater in a single-stage hybrid bioreactor.

Environ Technol. 2019 Aug 04;:1-9

Authors: Hosseinpour B, Saborimanesh N, Yerushalmi L, Walsh D, Mulligan CN

Abstract

This study presents effective ammonium removal from nitrite-free ammonium-rich synthetic wastewater through combined partial nitrification (PN) and anammox processes in a multi-zone hybrid airlift bioreactor (BioCAST). Removal efficiencies of ammonia-nitrogen and total nitrogen up to 85.6% and 81.2%, respectively, were achieved shortly after the start-up of bioreactor treating the nitrite-free ammonium-rich synthetic wastewater with ammonium concentrations of 10-350 mg/L. The hybrid (containing suspended and attached biomass) and multi-zone design of the bioreactor with different dissolved oxygen levels, along with the inoculation with anammox-containing sludge were the main factors in the successful start-up of the bioreactor. Nitrate accumulation problem due to the fast growth of nitrite-oxidizing bacteria in the bioreactor was controlled by two operating strategies including lowering the HRT from 4 days to 2 days and controlling the dissolved oxygen concentration in the aerobic zone of the bioreactor between 0.9 and 1.2 mg/L. Moreover, the 16S rRNA gene analysis confirmed that the partial nitrification of ammonia to nitrite occurred by Nitrosomonas sp. primarily in the suspended biomass in the aerobic zone, while the conversion of nitrite to N2 occurred by Candidatus Brocadia species in the anoxic zone. This study showed the effective removal of ammonium from a nitrite-free wastewater by providing a proper HRT, controlling the DO concentration between 0.9 and 1.2 mg/L in the aerobic zone, and preventing biomass loss using both suspended and attached microbial cultures in different zones of the bioreactor.

PMID: 31378146 [PubMed - as supplied by publisher]





BookR developed by Sriram Narayanan
for the Concordia University School of Health
Copyright © 2011-2026
Cookie settings
Concordia University