Research project

Sandham - Next generation of SBLI code, EP/F011016/1

Project overview

This project aims to re-engineer a code for direct and large eddy simulation of transitional and turbulent flow. The original code was developed by the applicants for simulation of shock-wave/boundary-layer interaction (SBLI) problems and has become known as the SBLI code. Since its development the code has proved to be a flexible research tool and has been applied to a wide range of research problems including subsonic airfoils and aero-acoustics. With more geometrically-challenging applications and new algorithmic improvements, such as non-reflecting boundary conditions and sub-grid scale models for turbulence, the code has split into several variants. The present project will undertake a comprehensive re-engineering of the code, aiming to add capability and bring the various elements back together, while retaining the flexibility of the original code as a research platform. Well-developed code elements will be modularised and removed from normal user access. A suite of validation cases will be programmed and used during the code modification, which will include an update to current language version and incorporation of a version control system for parts of the code. The utility of the new version will be demonstrated by a new state-of-the-art direct numerical simulation of transition due to oblique shock wave impingement, including more flow physics than previous simulations. A formal code release will be made during the project, with users consulted throughout.

Staff

Lead researchers

Professor Neil Sandham

Professor of Aerospace Engineering
Research interests
  • Transonic aerodynamics of wings
  • Hypersonic flows with transition to turbulence
  • Flow over rough surfaces
Connect with Neil

Collaborating research institutes, centres and groups

Research outputs

N.D. Sandham, E. Schuelein, A Wagner, S Willems & J Steelant, 2014, Journal of Fluid Mechanics, 752, 1-33
Type: article
N. De Tullio, P. Paredes, N. D. Sandham & V. Theofilis, 2013, Journal of Fluid Mechanics, 735, 613-646
Type: article
J.A. Redford, N.D. Sandham & G.T. Roberts, 2010, AIAA Journal, 48(12), 2818-2830
Type: article