Aeroelastic wind tunnel tests of the RIBES wing model. Nicolosi, F., Cusati, V., Ciliberti, D., Della Vecchia, P., & Corcione, S. Volume 92, Biancolini, M., E. & Cella, U., editors. Flexible Engineering Toward Green Aircraft, pages 9-28. Springer Nature Switzerland AG, 2020.
Flexible Engineering Toward Green Aircraft [link]Website  doi  abstract   bibtex   
Aeroelastic wind tunnel tests on a half-wing model have been performed at the University of Naples “Federico II” to acquire data about aerodynamic forces, section pressure coefficient, stress, strain, and model displacement, to validate high fidelity Fluid-Structure Interaction approaches based on Reynolds-Averaged Navier-Stokes and Finite Element Method solutions investigated at the University of Rome “Tor Vergata”. Most of the available experimental databases of aeroelastic measurements, performed on aircraft wings, model full scale systems, focusing primarily on aerodynamic aspects rather than on structural similitudes. To investigate flow regimes that replicate realistic operating conditions, wind tunnel test campaigns involve the generation of relative high loads on models whose safe dimensioning force the adoption of structural configurations that lose any similitude with typical wing box topologies. The objective of this work is to generate a database of loads, pressure, stress, and deformation measurements that is significant for a realistic aeronautical design problem. At this aim, a wind tunnel model of a half-wing that replicates a typical metallic wing box structure and instrumented with pressure taps and strain gages has been investigated. All experimental data and numerical models are freely available to the scientific community at the website www.ribes-project.eu.
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 abstract = {Aeroelastic wind tunnel tests on a half-wing model have been performed at the University of Naples “Federico II” to acquire data about aerodynamic forces, section pressure coefficient, stress, strain, and model displacement, to validate high fidelity Fluid-Structure Interaction approaches based on Reynolds-Averaged Navier-Stokes and Finite Element Method solutions investigated at the University of Rome “Tor Vergata”. Most of the available experimental databases of aeroelastic measurements, performed on aircraft wings, model full scale systems, focusing primarily on aerodynamic aspects rather than on structural similitudes. To investigate flow regimes that replicate realistic operating conditions, wind tunnel test campaigns involve the generation of relative high loads on models whose safe dimensioning force the adoption of structural configurations that lose any similitude with typical wing box topologies. The objective of this work is to generate a database of loads, pressure, stress, and deformation measurements that is significant for a realistic aeronautical design problem. At this aim, a wind tunnel model of a half-wing that replicates a typical metallic wing box structure and instrumented with pressure taps and strain gages has been investigated. All experimental data and numerical models are freely available to the scientific community at the website www.ribes-project.eu.},
 bibtype = {inbook},
 author = {Nicolosi, Fabrizio and Cusati, Vincenzo and Ciliberti, Danilo and Della Vecchia, Pierluigi and Corcione, Salvatore},
 editor = {Biancolini, Marco Evangelos and Cella, Ubaldo},
 doi = {10.1007/978-3-030-36514-1_2},
 chapter = {Aeroelastic wind tunnel tests of the RIBES wing model},
 title = {Flexible Engineering Toward Green Aircraft}
}

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