Program Overview: Vortex Interaction Aerodynamics Relevant to Military Air Vehicle Performance

Abstract

1. The number of special sessions was altered from seven to six after paper submission due to Covid-19. Replace content of Table 1 on page 9 with the following image: (Table presented). 2. Edit the first sentence of section C, next to Table 1, from AVT-316 is entering its final year of research, and seven special sessions have been established to highlight the AVT-316 research findings to date. to AVT-316 is entering its final year of research, and six special sessions have been established to highlight the AVT-316 research findings to date. Here the word ‘seven’ has been changed to ‘six.’ 3. SciTech 2022 references have had paper numbers added. These were only available after paper submission. Replace references 16-36 with the following: [16] Hitzel, S. M., “Combat Aircraft Vortex Interaction - Design, Physics & CFD-Tools,” AIAA Paper No. 2022-0156, 2022. [17] Breitsamter, C., and Sedlacek, D., “Aerodynamic Characteristics and Topology of Interfering Vortex Systems at Hybrid Delta Wings,” AIAA Paper No. 2022-0026, 2022. [18] Guilmineau, E., Wackers, J., and Visonneau, M., “Computational Analysis of Subsonic Vortex Interaction on Multi Swept Delta Wing Configurations,” AIAA Paper No. 2022-0027, 2022. [19] Schütte, A., and Werner, M., “Turbulence Model Effects on the Prediction of Transonic Vortex Interaction on a Multi-Swept Delta Wing,” AIAA Paper No. 2022-0295, 2022. [20] Hövelmann, A., Winkler, A., Pfnür, S., and Hitzel, S. M., “Hybrid-Delta Wing Simulations – Industrial Application for Combat Aircraft Design,” AIAA Paper No. 2022-0157, 2022. [21] Ghoreyshi, M., von Rooij, M., and Nangia, R. K., “NATO AVT--316, Multi-Swept Combat Wing Design – Aerodynamic Ways Towards a Robust Flight Envelope,” AIAA Paper No. 2022-0296, 2022. [22] Jirásek, A., Seidel, J., Ghoreyshi, M., and Aref, Pooneh, “Design Perspectives of a System Identification Approach of the NATO AVT-316 Multi-Swept Wing Aerodynamics,” AIAA Paper No. 2022-0297, 2022. [23] Breitsamter, C., Sedlacek, D., Guilmineau, E., Wackers, J., and Visonneau, M., “Assessment of Hybrid Delta Wing Vortex Flow Investigation – Part I at Subsonic Conditions,” AIAA Paper No. 2022-0565, 2022. [24] Russel, A., Peshkin, D., Werner, M., and Eccleston, S., “Assessment of Hybrid Delta Wing Vortex Flow Investigation – Part II at Transonic Conditions,” AIAA Paper No. 2022-0158, 2022. [25] Hitzel, S. M., “Status of Vortex Interaction on Combat Aircraft - Physics Understood, Simulation Tool Demands, Quality & Cost,” AIAA Paper No. 2022-0159, 2022. [26] Taylor, N. T., “AVT-316 Missile Facet: Overview of its Formation, Objectives and Manner of Working,” AIAA Paper No. 2022-0001, 2022. [27] Schnepf, C., Dikbas, E., Loupy, G. JM., DeSpirito, J., Tormalm, M. H., Anderson, M., and Shaw, S., “The Influence of the Computational Mesh on the Prediction of Vortex Interactions about a Generic Missile Airframe,” AIAA Paper No. 2022-1176, 2022. [28] Park, M. A., “The Influence of Adaptive Mesh Refinement on the Prediction of Vortex Interactions about a Generic Missile Airframe,” AIAA Paper No. 2022-1177, 2022. [29] Anderson, M., “The Influence of the Numerical Scheme in Predictions of Vortex Interaction about a Generic Missile Airframe,” AIAA Paper No. 2022-1178, 2022. [30] Shaw, S., “The Influence of Modelling in Predictions of Vortex Interactions About a Generic Missile Airframe: RANS,” AIAA Paper No. 2022-0416, 2022. [31] Tormalm, M. H., “The Influence of Scale Resolving Simulations in Predictions of Vortex Interaction about a Generic Missile Airframe,” AIAA Paper No. 2022-1685, 2022. [32] Barakos, G. N., Boychev, K., and Steijl, R., “Simulations of flows around complex and simplified supersonic store geometries at high incidence angles using statistical and scale-resolving turbulence models,” AIAA Paper No. 2022-1686, 2022. [33] Loupy, G. J. M., “A Focused Study into the Prediction of Vortex Formation about Generic Missile and Combat Aircraft Airframes,” AIAA Paper No. 2022-0160, 2022. [34] Schnepf, C. and Tormalm, M. H., “Comparisons of predicted and measured aerodynamic characteristics of the DLR LK6E2 missile airframe,” AIAA Paper No. 2022-2307, 2022. [35] Schnepf, C., Dikbas, E., Loupy, G. JM., Cesur, I. S., DeSpirito, J., and Tormalm, M. H., “Comparisons of Predicted and Measured Aerodynamic Characteristics of the DLR LK6E2 Missile Airframe (Scale Resolving),” AIAA Paper No. 2022-2308, 2022. [36] Taylor, N., “AVT-316 Missile Facet: Lessons learned concerning the prediction of Vortex Flow Interactions about Generic Missile Configurations,” AIAA Paper No. 2022-0002, 2022. © 2022, American Institute of Aeronautics and Astronautics Inc, AIAA. All rights reserved.