Visualising experimental flow fields through a stormwater gross pollutant trap


Autoria(s): Madhani, Jehangir T.; Young, Joseph A.; Brown, Richard J.
Data(s)

01/10/2014

Resumo

Abstract An experimental dataset representing a typical flow field in a stormwater gross pollutant trap (GPT) was visualised. A technique was developed to apply the image-based flow visualisation (IBFV) algorithm to the raw dataset. Particle image velocimetry (PIV) software was previously used to capture the flow field data by tracking neutrally buoyant particles with a high speed camera. The dataset consisted of scattered 2D point velocity vectors and the IBFV visualisation facilitates flow feature characterisation within the GPT. The flow features played a pivotal role in understanding stormwater pollutant capture and retention behaviour within the GPT. It was found that the IBFV animations revealed otherwise unnoticed flow features and experimental artefacts. For example, a circular tracer marker in the IBFV program visually highlighted streamlines to investigate the possible flow paths of pollutants entering the GPT. The investigated flow paths were compared with the behaviour of pollutants monitored during experiments.

Formato

application/pdf

video/x-msvideo

Identificador

http://eprints.qut.edu.au/63708/

Publicador

Springer

Relação

http://eprints.qut.edu.au/63708/2/63708.pdf

http://eprints.qut.edu.au/63708/5/63798.avi

DOI:10.1007/s12650-013-0188-8

Madhani, Jehangir T., Young, Joseph A., & Brown, Richard J. (2014) Visualising experimental flow fields through a stormwater gross pollutant trap. Journal of Visualization, 17(1), pp. 17-26.

Direitos

Copyright 2013 Springer

Fonte

School of Chemistry, Physics & Mechanical Engineering; Division of Technology, Information and Learning Support; High Performance Computing and Research Support; Science & Engineering Faculty

Palavras-Chave #010300 NUMERICAL AND COMPUTATIONAL MATHEMATICS #020303 Fluid Physics #091501 Computational Fluid Dynamics #GPT #Gross pollutant trap #LIC #line integral convolution #IBFV #Image based flow visualisation #PIV #Particle image velocimetry #CFD #Computational fluid dynamics
Tipo

Journal Article