ITA and Embraer Aeroelasticity Cooperation in Preparation for the AEPW-4

This paper showcases the collaborative efforts between ITA (academic) and Embraer (aircraft manufacturer) in developing advanced methods to address the upcoming challenges of the 4th Aeroelastic Prediction Workshop. For predicting static wing loads, a rapid conceptual design method that accounts for structural geometric nonlinearity is introduced. A matched flutter solution is proposed for control surface flutter in geometrically nonlinear wings. For predicting limit cycle oscillations, the approach combining an unsteady vortex lattice with a transient structural geometric nonlinear solver is presented. Furthermore, a framework that integrates an open-source Reynolds-Averaged Navier-Stokes solver with a geometric nonlinear structural solver is developed to handle transonic static deflections.

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Published
2025-07-16
DOI
https://doi.org/10.2514/6.2025-3380
Primary Topic
Computational Fluid Dynamics and Aerodynamics
Type
article
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article

ITA and Embraer Aeroelasticity Cooperation in Preparation for the AEPW-4

Angelo A. Verri, Flávio Luiz de Silva Bussamra, Omer Cavalcanti de Almeida, Vitor G. Kleine et al.
Computational Fluid Dynamics and Aerodynamics
article

ITA and Embraer Aeroelasticity Cooperation in Preparation for the AEPW-4

Angelo A. Verri, Flávio Luiz de Silva Bussamra, Omer Cavalcanti de Almeida, Vitor G. Kleine, Julio Cesar Santana Fernandes, BRUNO RAFAELL MACHADO OLIVEIRA, Ana Luiza de Lemos Gomes, Felipe B. de Melo, Henrique S. Schleetz, Withor F. Menezes
article en

Abstract

This paper showcases the collaborative efforts between ITA (academic) and Embraer (aircraft manufacturer) in developing advanced methods to address the upcoming challenges of the 4th Aeroelastic Prediction Workshop. For predicting static wing loads, a rapid conceptual design method that accounts for structural geometric nonlinearity is introduced. A matched flutter solution is proposed for control surface flutter in geometrically nonlinear wings. For predicting limit cycle oscillations, the approach combining an unsteady vortex lattice with a transient structural geometric nonlinear solver is presented. Furthermore, a framework that integrates an open-source Reynolds-Averaged Navier-Stokes solver with a geometric nonlinear structural solver is developed to handle transonic static deflections.

Instituto Tecnológico de Aeronáutica (BR), Embraer (Brazil) (BR)
Openalex Percentile: Top 82%
Computational Fluid Dynamics and Aerodynamics
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