Evaluation of Pressure Based and Density Based Solver to Investigate Supersonic Jet Flow through the Confined Wall

  • Atharva Shingnapurkar
  • , Avick Sinha
  • , Nitin Gulhane
  • , P.A. Rajiwade

Research output: Chapter in Book/Conference proceeding with ISSN or ISBNConference contribution with ISSN or ISBNpeer-review

Abstract

This study is primarily focused on the assessment of a pressure-based and density CFD solver for the numerical analysis of an under-expanded supersonic jet flow inside a canister tube. The simulation results of both types of solvers in terms of the pressure field and shock structure are compared to experimental measurement. A comparison study indicates that the pressure solvers produce the same key findings as the density-based, and are also closely in agreement with the data reported by Batson and Bertin. The pressure solver using coupled pressure-velocity algorithm showed nearly identical values of the pressure peaks and corresponding positions downstream of the tube wall. However, a pressure-based solver is more robust and computationally efficient. Thus, a pressure solver with coupled algorithm can be considered as an alternative for the study of complex supersonic compressible flows while maintaining accuracy.
Original languageEnglish
Title of host publicationAdvances in Thermal System, Materials and Design Engineering
EditorsP.A. Rajiwade, N.P. Gulhane
Place of PublicationLondon
PublisherRoutledge
Chapter24
Number of pages5
Edition1
ISBN (Print)9781041209607
DOIs
Publication statusPublished - Feb 2026
EventSecond International Conference on Advances in Thermal Systems, Materials and Design Engeneeing - Veermata Jijabai Technological Institute, Mumbai, India
Duration: 27 Dec 202428 Dec 2024
https://vjti.ac.in/atsmde-2024/

Conference

ConferenceSecond International Conference on Advances in Thermal Systems, Materials and Design Engeneeing
Abbreviated titleATSMDE-2024
Country/TerritoryIndia
CityMumbai
Period27/12/2428/12/24
Internet address

Keywords

  • Supersonic flow
  • Compressible flow
  • Mach disc
  • Shock wall interaction
  • k-omge SST turbulence model

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