Towards consistent hybrid overset mesh methods for rotorcraft CFD
SUMMARYThe overset mesh method chimera is popular within the rotorcraft research community, because the use of multiple, non‐matching grids make the CFD simulations of bodies in relative motion much simpler. Consequently, the relative motion between the helicopter blades and fuselage can be accurate...
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Published in: | International journal for numerical methods in fluids Vol. 74; no. 8; pp. 543 - 576 |
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Format: | Journal Article |
Language: | English |
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Bognor Regis
Blackwell Publishing Ltd
20-03-2014
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Abstract | SUMMARYThe overset mesh method chimera is popular within the rotorcraft research community, because the use of multiple, non‐matching grids make the CFD simulations of bodies in relative motion much simpler. Consequently, the relative motion between the helicopter blades and fuselage can be accurately accounted for. In this paper, the method for treating overset grids within CFD codes is presented. It is compatible with multi‐block, structured‐grid solvers. The proposed method is based on hierarchy of overset, non‐matching grids, whose cells are automatically identified as computational or non‐computational and localised with respect to all grids they overlap with. The efficiency of the method relies on the hierarchical, multi‐step approach, for the overset mesh localisation and the use of a tree search. Because of the high efficiency of the algorithm, the search for overlapping cells can be carried out on‐the‐fly, during time‐marching of the unsteady, implicit CFD solver. In addition, the algorithm is suitable for parallel execution. The method has been demonstrated for several flows, ranging from simple aerofoils to rotor‐body interaction. The paper presents and demonstrates the method and shows that it has a low CPU overhead. It also highlights the limitations of the method and suggests remedies for improvement. Copyright © 2013 John Wiley & Sons, Ltd.
A novel method for overset mesh solution localisation is presented in this paper, based on three key components: 1) The use of a pre‐localisation method to reduce the required searches for bloc‐to‐block overlaps on multi‐block structured grids. 2) A representation of the CFD mesh as a binary tree for fast point‐in‐box checks. 3) An exact arithmetics library to preserve accuracy for point co‐ordinate comparisons. The results show minimal overhead in terms of CPU time and are compared for accuracy against matching grid results or against sliding grid methods. The method was effective for a range of test cases from simple aerofoils to rotor/fuselage configurations. |
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AbstractList | SUMMARY The overset mesh method chimera is popular within the rotorcraft research community, because the use of multiple, non-matching grids make the CFD simulations of bodies in relative motion much simpler. Consequently, the relative motion between the helicopter blades and fuselage can be accurately accounted for. In this paper, the method for treating overset grids within CFD codes is presented. It is compatible with multi-block, structured-grid solvers. The proposed method is based on hierarchy of overset, non-matching grids, whose cells are automatically identified as computational or non-computational and localised with respect to all grids they overlap with. The efficiency of the method relies on the hierarchical, multi-step approach, for the overset mesh localisation and the use of a tree search. Because of the high efficiency of the algorithm, the search for overlapping cells can be carried out on-the-fly, during time-marching of the unsteady, implicit CFD solver. In addition, the algorithm is suitable for parallel execution. The method has been demonstrated for several flows, ranging from simple aerofoils to rotor-body interaction. The paper presents and demonstrates the method and shows that it has a low CPU overhead. It also highlights the limitations of the method and suggests remedies for improvement. Copyright © 2013 John Wiley & Sons, Ltd. [PUBLICATION ABSTRACT] SUMMARYThe overset mesh method chimera is popular within the rotorcraft research community, because the use of multiple, non‐matching grids make the CFD simulations of bodies in relative motion much simpler. Consequently, the relative motion between the helicopter blades and fuselage can be accurately accounted for. In this paper, the method for treating overset grids within CFD codes is presented. It is compatible with multi‐block, structured‐grid solvers. The proposed method is based on hierarchy of overset, non‐matching grids, whose cells are automatically identified as computational or non‐computational and localised with respect to all grids they overlap with. The efficiency of the method relies on the hierarchical, multi‐step approach, for the overset mesh localisation and the use of a tree search. Because of the high efficiency of the algorithm, the search for overlapping cells can be carried out on‐the‐fly, during time‐marching of the unsteady, implicit CFD solver. In addition, the algorithm is suitable for parallel execution. The method has been demonstrated for several flows, ranging from simple aerofoils to rotor‐body interaction. The paper presents and demonstrates the method and shows that it has a low CPU overhead. It also highlights the limitations of the method and suggests remedies for improvement. Copyright © 2013 John Wiley & Sons, Ltd. A novel method for overset mesh solution localisation is presented in this paper, based on three key components: 1) The use of a pre‐localisation method to reduce the required searches for bloc‐to‐block overlaps on multi‐block structured grids. 2) A representation of the CFD mesh as a binary tree for fast point‐in‐box checks. 3) An exact arithmetics library to preserve accuracy for point co‐ordinate comparisons. The results show minimal overhead in terms of CPU time and are compared for accuracy against matching grid results or against sliding grid methods. The method was effective for a range of test cases from simple aerofoils to rotor/fuselage configurations. The overset mesh method chimera is popular within the rotorcraft research community, because the use of multiple, non-matching grids make the CFD simulations of bodies in relative motion much simpler. Consequently, the relative motion between the helicopter blades and fuselage can be accurately accounted for. In this paper, the method for treating overset grids within CFD codes is presented. It is compatible with multi-block, structured-grid solvers. The proposed method is based on hierarchy of overset, non-matching grids, whose cells are automatically identified as computational or non-computational and localised with respect to all grids they overlap with. The efficiency of the method relies on the hierarchical, multi-step approach, for the overset mesh localisation and the use of a tree search. Because of the high efficiency of the algorithm, the search for overlapping cells can be carried out on-the-fly, during time-marching of the unsteady, implicit CFD solver. In addition, the algorithm is suitable for parallel execution. The method has been demonstrated for several flows, ranging from simple aerofoils to rotor-body interaction. The paper presents and demonstrates the method and shows that it has a low CPU overhead. It also highlights the limitations of the method and suggests remedies for improvement. A novel method for overset mesh solution localisation is presented in this paper, based on three key components: 1) The use of a pre-localisation method to reduce the required searches for bloc-to-block overlaps on multi-block structured grids. 2) A representation of the CFD mesh as a binary tree for fast point-in-box checks. 3) An exact arithmetics library to preserve accuracy for point co-ordinate comparisons. The results show minimal overhead in terms of CPU time and are compared for accuracy against matching grid results or against sliding grid methods. The method was effective for a range of test cases from simple aerofoils to rotor/fuselage configurations. The overset mesh method chimera is popular within the rotorcraft research community, because the use of multiple, non‐matching grids make the CFD simulations of bodies in relative motion much simpler. Consequently, the relative motion between the helicopter blades and fuselage can be accurately accounted for. In this paper, the method for treating overset grids within CFD codes is presented. It is compatible with multi‐block, structured‐grid solvers. The proposed method is based on hierarchy of overset, non‐matching grids, whose cells are automatically identified as computational or non‐computational and localised with respect to all grids they overlap with. The efficiency of the method relies on the hierarchical, multi‐step approach, for the overset mesh localisation and the use of a tree search. Because of the high efficiency of the algorithm, the search for overlapping cells can be carried out on‐the‐fly, during time‐marching of the unsteady, implicit CFD solver. In addition, the algorithm is suitable for parallel execution. The method has been demonstrated for several flows, ranging from simple aerofoils to rotor‐body interaction. The paper presents and demonstrates the method and shows that it has a low CPU overhead. It also highlights the limitations of the method and suggests remedies for improvement. Copyright © 2013 John Wiley & Sons, Ltd. |
Author | Barakos, G.N. Woodgate, M.A. Rokicki, J. Jarkowski, M. |
Author_xml | – sequence: 1 givenname: M. surname: Jarkowski fullname: Jarkowski, M. organization: CFD Laboratory, School of Engineering University of Liverpool, L69 3GH, UK – sequence: 2 givenname: M.A. surname: Woodgate fullname: Woodgate, M.A. organization: CFD Laboratory, School of Engineering University of Liverpool, L69 3GH, UK – sequence: 3 givenname: G.N. surname: Barakos fullname: Barakos, G.N. email: Correspondence to: G. N. Barakos, CFD Laboratory, School of Engineering University of Liverpool, L69 3GH, UK., g.barakos@liverpool.ac.uk organization: CFD Laboratory, School of Engineering University of Liverpool, L69 3GH, UK – sequence: 4 givenname: J. surname: Rokicki fullname: Rokicki, J. organization: Institute of Aeronautics and Applied Mechanics Warsaw University of Technology, 00-665 Warsaw, Poland |
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Snippet | SUMMARYThe overset mesh method chimera is popular within the rotorcraft research community, because the use of multiple, non‐matching grids make the CFD... The overset mesh method chimera is popular within the rotorcraft research community, because the use of multiple, non‐matching grids make the CFD simulations... SUMMARY The overset mesh method chimera is popular within the rotorcraft research community, because the use of multiple, non-matching grids make the CFD... The overset mesh method chimera is popular within the rotorcraft research community, because the use of multiple, non-matching grids make the CFD simulations... |
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SubjectTerms | Accuracy Algorithms Central processing units chimera method Computational fluid dynamics Finite element method Fuselages Mathematical models overset mesh rotor flow rotor/fuselage Searching |
Title | Towards consistent hybrid overset mesh methods for rotorcraft CFD |
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