"The current method of disinfection of water used by the United States Army requires a significant amount of mobilization and demobilization time as well as being energy intensive. In an effort to improve small unit mobility a need for a light-weight, low maintenance, highly mobile disinfection system has arisen. In addition to the potential military use, a system of this type could provide a safe drinking water product during the aftermath of natural or man-made disasters, reducing the burden on emergency management services. A prototype system was developed that is self-powered, has low maintenance requirements, and can be stored for extended periods of time without requiring special storage of hazardous materials. Power was provided to the system using a hybrid renewable energy system consisting of a wind turbine and photovoltaic array. The energy generated from the renewable energy system was stored using an ultracapacitor. Disinfection of water was achieved using an ultraviolet disinfection unit. The prototype unit was field tested to evaluate the energy capability and disinfection effectiveness. The results of field testing demonstrated the feasibility of such a system, but several recommendations for modification of the system became apparent. The primary modification would be the removal of the wind turbine which was determined to be redundant, as the PV array provided sufficient energy to the system"--Abstract, page iv.
Elmore, A. Curt
Cawlfield, Jeffrey D.
Geosciences and Geological and Petroleum Engineering
M.S. in Geological Engineering
Leonard Wood Institute
Missouri University of Science and Technology
Journal article titles appearing in thesis/dissertation
- Development of a mobile water disinfection unit powered by renewable energy
66 pages in various pagings
© 2009 Matthew Christopher Vitello, All rights reserved.
Thesis - Open Access
Photovoltaic power generation
Water -- Purification -- Ultraviolet treatment
Print OCLC #
Electronic OCLC #
Link to Catalog Record
Vitello, Matthew, "A mobile water disinfection unit powered by renewable energy systems" (2009). Masters Theses. 6887.