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Characterisation of Turbulent Duct Flows: Experiments and Direct Numerical Simulations (Springer Theses)

Characterisation of Turbulent Duct Flows: Experiments and Direct Numerical Simulations (Springer Theses)

Characterisation of Turbulent Duct Flows: Experiments and Direct Numerical
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Characterisation of Turbulent Duct Flows: Experiments and Direct Numerical Simulations (Springer Theses) Paperback - 2020

by Owolabi, Bayode

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Details

  • Title Characterisation of Turbulent Duct Flows: Experiments and Direct Numerical Simulations (Springer Theses)
  • Author Owolabi, Bayode
  • Binding Paperback
  • Condition Used - Good
  • Pages 141
  • Volumes 1
  • Language ENG
  • Publisher Springer
  • Publication date 2020-08-14
  • Illustrated Yes
  • Features Illustrated
  • Bookseller's Inventory # 3030197476.G
  • ISBN 9783030197476 / 3030197476
  • Weight 0.56 lbs (0.25 kg)
  • Dimensions 9.21 x 6.14 x 0.38 in (23.39 x 15.60 x 0.97 cm)
  • Category Technology & Industrial Arts
  • Dewey Decimal Code 530.1
  • Quantity available 1

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Reader reviews for Characterisation of Turbulent Duct Flows: Experiments and Direct Numerical Simulations (Springer Theses)

From the publisher

This book presents several new findings in the field of turbulent duct flows, which are important for a range of industrial applications. It presents both high-quality experiments and cutting-edge numerical simulations, providing a level of insight and rigour rarely found in PhD theses.

The scientific advancements concern the effect of the Earth's rotation on large duct flows, the experimental confirmation of marginal turbulence in a pressure-driven square duct flow (previously only predicted in simulations), the identification of similar marginal turbulence in wall-driven flows using simulations (for the first time by any means) and, on a separate but related topic, a comprehensive experimental study on the phenomenon of drag reduction via polymer additives in turbulent duct flows.

In turn, the work on drag reduction resulted in a correlation that provides a quantitative prediction of drag reduction based on a single, measurable material property of the polymer solution, regardless of the flow geometry or concentration. The first correlation of its kind, it represents an important advancement from both a scientific and practical perspective.

From the rear cover

This book presents several new findings in the field of turbulent duct flows, which are important for a range of industrial applications. It presents both high-quality experiments and cutting-edge numerical simulations, providing a level of insight and rigour rarely found in PhD theses.

The scientific advancements concern the effect of the Earth's rotation on large duct flows, the experimental confirmation of marginal turbulence in a pressure-driven square duct flow (previously only predicted in simulations), the identification of similar marginal turbulence in wall-driven flows using simulations (for the first time by any means) and, on a separate but related topic, a comprehensive experimental study on the phenomenon of drag reduction via polymer additives in turbulent duct flows.

In turn, the work on drag reduction resulted in a correlation that provides a quantitative prediction of drag reduction based on a single, measurable material property of the polymer solution, regardless of the flow geometry or concentration. The first correlation of its kind, it represents an important advancement from both a scientific and practical perspective.

About the author

Bayode Owolabi is a postdoctoral fellow at the University of Alberta in Canada. He completed a bachelor's degree in Mechanical Engineering at the Federal University of Technology Akure Nigeria in 2010, after which he was awarded a Commonwealth scholarship for a master's degree in Energy Generation at the University of Liverpool. In 2015, Bayode was enrolled on the dual PhD programme between the University of Liverpool and National Tsing Hua University Taiwan, and successfully defended his thesis in December 2018. His research interests include wall-bounded turbulent flows, transition to turbulence, polymer drag reduction and rheology.

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