Super-large-scale flow visualization using natural snowfall for the study of utility-scale wind turbine flows

Authors

  • Aliza Abraham "Department of Mechanical Engineering, University of Minnesota, United States of America; Saint Anthony Falls Laboratory, University of Minnesota, United States of America"
  • Jiarong Hong "Department of Mechanical Engineering, University of Minnesota, United States of America; Saint Anthony Falls Laboratory, University of Minnesota, United States of America"

DOI:

https://doi.org/10.18409/ispiv.v1i1.132

Keywords:

Super-large-scale, flow visualization, utility-scale wind turbine wake, atmospheric boundary layer, field measurement

Abstract

With the rapid growth of wind turbine installation in recent decades, fundamental physical understanding of the flow around wind turbines and farms is becoming increasingly critical for further efficiency increases. However, the effort to develop this understanding is hindered by the significant challenges involved in modelling such a complex dynamic system with a wide range of relevant scales (blade boundary layer thickness at ∼ 1 mm to atmospheric scales at ∼ 1 km). Additionally, conventional methods used to measure air flow around wind turbines in the field (e.g., lidar) are limited by low spatio-temporal resolutions.

Author Biography

  • Aliza Abraham, "Department of Mechanical Engineering, University of Minnesota, United States of America; Saint Anthony Falls Laboratory, University of Minnesota, United States of America"

    Aliza Abraham is finishing up her PhD in Mechanical Engineering at the University of Minnesota, where she studies fluid-structure interactions of utility-scale wind turbines.

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Published

2021-09-29

Issue

Section

Jets, Shear Layers and Wakes