An investigation of river kinetic turbines: performance enhancements, turbine modelling techniques, and an assessment of turbulence models

The research focus of this thesis is on modelling techniques for river kinetic turbines, to develop predictive numerical tools to further the design of this emerging hydro technology. The performance benefits of enclosing the turbine in a shroud are quantified numerically and an optimized shroud de...

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Bibliographic Details
Main Author: Gaden, David L. F.
Other Authors: Bibeau, Eric L. (Mechanical and Manufacturing Engineering)
Format: Others
Language:en_US
Published: 2007
Subjects:
Online Access:http://hdl.handle.net/1993/2845
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spelling ndltd-LACETR-oai-collectionscanada.gc.ca-MWU.anitoba.ca-dspace#1993-28452013-01-11T13:30:40ZBibeau, Eric L. (Mechanical and Manufacturing Engineering)Gaden, David L. F.2007-09-27T18:11:03Z2007-09-27T18:11:03Z2007-09-27T18:11:03Zhttp://hdl.handle.net/1993/2845The research focus of this thesis is on modelling techniques for river kinetic turbines, to develop predictive numerical tools to further the design of this emerging hydro technology. The performance benefits of enclosing the turbine in a shroud are quantified numerically and an optimized shroud design is developed. The optimum performing model is then used to study river kinetic turbines, including different anchoring systems to enhance performance. Two different turbine numerical models are studied to simulate the rotor. Four different computational fluid dynamics (CFD) turbulence models are compared against a series of particle image velocimetry (PIV) experiments involving highly-separated diffuser-flow and nozzle-flow conditions. The risk of cavitation is briefly discussed as well as riverbed boundary layer losses. This study is part of an effort to develop this emerging technology for distributed power generation in provinces like Manitoba that have a river system well adapted for this technology.3826993 bytesapplication/pdfen_UShydropowerkinetic turbinerenewable energyparticle image velocimetry (PIV)computational fluid dynamics (CFD)distributed power generationAn investigation of river kinetic turbines: performance enhancements, turbine modelling techniques, and an assessment of turbulence modelsMechanical and Manufacturing EngineeringGole, A. (Electrical Engineering) Molinski, T. (Manitoba Hydro) Ormiston, S. (Mechanical and Manufacturing Engineering)Master of Science (M.Sc.)May 2007
collection NDLTD
language en_US
format Others
sources NDLTD
topic hydropower
kinetic turbine
renewable energy
particle image velocimetry (PIV)
computational fluid dynamics (CFD)
distributed power generation
spellingShingle hydropower
kinetic turbine
renewable energy
particle image velocimetry (PIV)
computational fluid dynamics (CFD)
distributed power generation
Gaden, David L. F.
An investigation of river kinetic turbines: performance enhancements, turbine modelling techniques, and an assessment of turbulence models
description The research focus of this thesis is on modelling techniques for river kinetic turbines, to develop predictive numerical tools to further the design of this emerging hydro technology. The performance benefits of enclosing the turbine in a shroud are quantified numerically and an optimized shroud design is developed. The optimum performing model is then used to study river kinetic turbines, including different anchoring systems to enhance performance. Two different turbine numerical models are studied to simulate the rotor. Four different computational fluid dynamics (CFD) turbulence models are compared against a series of particle image velocimetry (PIV) experiments involving highly-separated diffuser-flow and nozzle-flow conditions. The risk of cavitation is briefly discussed as well as riverbed boundary layer losses. This study is part of an effort to develop this emerging technology for distributed power generation in provinces like Manitoba that have a river system well adapted for this technology. === May 2007
author2 Bibeau, Eric L. (Mechanical and Manufacturing Engineering)
author_facet Bibeau, Eric L. (Mechanical and Manufacturing Engineering)
Gaden, David L. F.
author Gaden, David L. F.
author_sort Gaden, David L. F.
title An investigation of river kinetic turbines: performance enhancements, turbine modelling techniques, and an assessment of turbulence models
title_short An investigation of river kinetic turbines: performance enhancements, turbine modelling techniques, and an assessment of turbulence models
title_full An investigation of river kinetic turbines: performance enhancements, turbine modelling techniques, and an assessment of turbulence models
title_fullStr An investigation of river kinetic turbines: performance enhancements, turbine modelling techniques, and an assessment of turbulence models
title_full_unstemmed An investigation of river kinetic turbines: performance enhancements, turbine modelling techniques, and an assessment of turbulence models
title_sort investigation of river kinetic turbines: performance enhancements, turbine modelling techniques, and an assessment of turbulence models
publishDate 2007
url http://hdl.handle.net/1993/2845
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AT gadendavidlf investigationofriverkineticturbinesperformanceenhancementsturbinemodellingtechniquesandanassessmentofturbulencemodels
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