Difference between revisions of "T-junction by Bahram Haddadi and colleagues"

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[[category:basic tutorial]]
 
[[category:basic tutorial]]
 
[[category:laminar]]
 
[[category:laminar]]
* '''contributor''': Bahram Haddadi, Clemens Gößnitzer, Jozsef Nagy, Vikram Natarajan, Sylvia Zibuschka, Yitong Chen
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* '''contributor''': Bahram Haddadi, Clemens Gößnitzer, Sylvia Zibuschka, Yitong Chen
 
* '''affiliation''': Forschungsgruppe Thermische Verfahrenstechnik & Fluiddynamische Simulation am Institut für Verfahrenstechnik der Technischen Universität Wien, Austria
 
* '''affiliation''': Forschungsgruppe Thermische Verfahrenstechnik & Fluiddynamische Simulation am Institut für Verfahrenstechnik der Technischen Universität Wien, Austria
 
* '''contact''': <mail address='bahram.haddadi.sisakht@tuwien.ac.at' description='author'>click here for email address</mail>
 
* '''contact''': <mail address='bahram.haddadi.sisakht@tuwien.ac.at' description='author'>click here for email address</mail>

Revision as of 11:43, 14 March 2018

  • contributor: Bahram Haddadi, Clemens Gößnitzer, Sylvia Zibuschka, Yitong Chen
  • affiliation: Forschungsgruppe Thermische Verfahrenstechnik & Fluiddynamische Simulation am Institut für Verfahrenstechnik der Technischen Universität Wien, Austria
  • contact: click here for email address
  • OpenFOAM version: OpenFOAM 5.0 and v1712
  • Published under: CC BY-NC-SA license (creative commons licenses)
  • Editorial board: Bahram Haddadi, Christian Jordan, Michael Harasek

Residence time distribution

Explanation: Use the simpleFoam and scalarTransportFoam to simulate the flow through a square cross section T pipe and calculate RTD (Residence Time Distribution) for both inlets using a step function injection.

Tuvienna10.png

Objectives:

  • Understanding RTD calculation using OpenFOAM
  • Using multiple solver for a simulation

Picture: Bahram Haddadi, TU Wien