Simulation of phage dynamics in multi-reactor models of complex wastewater treatment systems

K Krysiak-Baltyn; GJO Martin; AD Stickland; PJ Scales; SL Gras

Journal article

Simulation of phage dynamics in multi-reactor models of complex wastewater treatment systems

K Krysiak-Baltyn, GJO Martin, AD Stickland, PJ Scales, SL Gras

Biochemical Engineering Journal | ELSEVIER SCIENCE BV | Published : 2017

DOI: 10.1016/j.bej.2016.10.011

Abstract

Existing population models of bacteria and phages have most commonly described single well-mixed reactors. Whilst crucial to gain an understanding of population dynamics, these models are not directly applicable to scenarios requiring multi-reactor models. Using standard approaches we have formulated these models to describe behaviour within multiple interconnected reactors. A model incorporating phage dynamics in wastewater treatment systems was then developed to investigate the potential use of phages as a tool to reduce foaming or bulking. The model couples wastewater treatment dynamics within the commercial software GPS-X (Hydromantis Inc.) with phage dynamics through a newly developed a..

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University of Melbourne Researchers

Greg Martin Author

Anthony Stickland Author

Peter Scales Author

Sally Gras Author

Related Projects (3)

DAIRY INNOVATION HUB: TRANSFORMATIONAL RESEARCH TO UNDERPIN THE FUTURE OF THE AUSTRALIAN DAIRY MANUFACTURING INDUSTRY (PROJECT 2A)

The University of Melbourne, The University of Queensland and Dairy Innovation Australia will join in this Research Hub to address significa..

Bacteriophages for foam control in wastewater processing

This project will develop new strategies to reduce troublesome foaming at sewerage treatment plants in Australia. It will enable water autho..

DAIRY INNOVATION HUB: TRANSFORMATIONAL RESEARCH TO UNDERPIN THE FUTURE OF THE AUSTRALIAN DAIRY MANUFACTURING INDUSTRY

Dairy Innovation Hub: transformational research to underpin the future of the Australian dairy manufacturing industry. The University of Mel..

Grants

Awarded by Australian Research Council

Funding Acknowledgements

This work was funded by an Australian Research Council Linkage Grant (LP120100304) with input from Melbourne Water, South Australia Water and Water Corporation. Sally Gras and Gregory Martin are supported by The ARC Dairy Innovation Hub (IH120100005).