TY - GEN
T1 - MUWS (Microbiology in Urban Water Systems) - An interdisciplinary approach to study microbial communities in urban water systems
AU - Deines, Peter
AU - Sekar, Raju
AU - Jensen, Henriette S.
AU - Tait, Simon
AU - Boxall, Joby B.
AU - Osborn, A. Mark
AU - Biggs, Catherine A.
PY - 2010
Y1 - 2010
N2 - Microbiology in Urban Water Systems (MUWS) is an integrated project, which aims to characterize the microorganisms found in both potable water distribution systems and sewer networks. These large infrastructure systems have a major impact on our quality of life, and despite the importance of these systems as major components of the water cycle, little is known about their microbial ecology. Potable water distribution systems are large, highly interconnected and dynamic, and difficult to control. Sewer systems are also large and subject to time varying inputs and demands. Their performance also faces increasing loading due to increasing urbanization and longer-term environmental changes. Therefore, understanding the link between microbial ecology and any potential impacts on short or long-term engineering performance is important. By combining the strengths and research expertise of civil-, biochemical engineers and molecular microbial ecologists, we aim to link the abundance and diversity of microorganisms to physical and engineering variables so that novel insights into the ecology of microorganisms within both water distribution systems and sewer networks can be explored. By presenting the details of this multidisciplinary approach, and the principals behind the molecular microbiological methods and techniques that we use, this paper will demonstrate the potential of an integrated approach to better understand urban water system function and so meet future challenges.
AB - Microbiology in Urban Water Systems (MUWS) is an integrated project, which aims to characterize the microorganisms found in both potable water distribution systems and sewer networks. These large infrastructure systems have a major impact on our quality of life, and despite the importance of these systems as major components of the water cycle, little is known about their microbial ecology. Potable water distribution systems are large, highly interconnected and dynamic, and difficult to control. Sewer systems are also large and subject to time varying inputs and demands. Their performance also faces increasing loading due to increasing urbanization and longer-term environmental changes. Therefore, understanding the link between microbial ecology and any potential impacts on short or long-term engineering performance is important. By combining the strengths and research expertise of civil-, biochemical engineers and molecular microbial ecologists, we aim to link the abundance and diversity of microorganisms to physical and engineering variables so that novel insights into the ecology of microorganisms within both water distribution systems and sewer networks can be explored. By presenting the details of this multidisciplinary approach, and the principals behind the molecular microbiological methods and techniques that we use, this paper will demonstrate the potential of an integrated approach to better understand urban water system function and so meet future challenges.
UR - http://www.scopus.com/inward/record.url?scp=84859919874&partnerID=8YFLogxK
M3 - Conference Proceeding
AN - SCOPUS:84859919874
SN - 9780415548519
T3 - Integrating Water Systems - Proceedings of the 10th International on Computing and Control for the Water Industry, CCWI 2009
SP - 397
EP - 403
BT - Integrating Water Systems - Proceedings of the 10th International on Computing and Control for the Water Industry, CCWI 2009
T2 - 10th International Conference on Computing and Control for the Water Industry: Integrating Water Systems, CCWI 2009
Y2 - 1 September 2009 through 3 September 2009
ER -