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Benchmark Active Controls Technology (BACT) Wing CFD Results

David Schuster, Robert E. Bartels

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Abstract

The Benchmark Active Controls Technology (BACT) wing test (see chapter 8E) provides data for the validation of aerodynamic, aeroelastic, and active aeroelastic control simulation codes. These data provide a rich database for development and validation of computational aeroelastic and aeroservoelastic methods. In this vein, high-level viscous CFD analyses of the BACT wing have been performed for a subset of the test conditions available in the dataset. The computations presented in this section investigate the aerodynamic characteristics of the rigid clean wing configuration as well as simulations of the wing with a Static and oscillating aileron and spoiler deflection Two computational aeroelasticity codes extensively used at NASA Langley Research Center arc implemented in this simulation They are the ENS3DAF and CFL3DAlS computational aeroelasticity programs. Both of these methods solve the three-dimensional compressible Navier-Stokes equations for both rigid and flexible vehicles, hut they use significantly different approaches to the solution df the aerodynamic equations of motion. Detailed descriptions of both methods are presented in the following section.

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What this paper is about

The Benchmark Active Controls Technology (BACT) wing test (see chapter 8E) provides data for the validation of aerodynamic, aeroelastic, and active aeroelastic control simulation codes. These data provide a rich database for development and validation of computational aeroelastic and aeroservoelastic methods. In this vein, high-level viscous CFD analyses of the BACT wing have been performed for a subset of the test conditions available in the dataset. The computations presented in this section investigate the aerodynamic characteristics of the rigid clean wing configuration as well as simulations of the wing with a Static and oscillating aileron and spoiler deflection Two computational aeroelasticity codes extensively used at NASA Langley Research Center arc implemented in this simulation They are the ENS3DAF and CFL3DAlS computational aeroelasticity programs. Both of these methods solve the three-dimensional compressible Navier-Stokes equations for both rigid and flexible vehicles, hut they use significantly different approaches to the solution df the aerodynamic equations of motion. Detailed descriptions of both methods are presented in the following section.

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Available abstract

The Benchmark Active Controls Technology (BACT) wing test (see chapter 8E) provides data for the validation of aerodynamic, aeroelastic, and active aeroelastic control simulation codes. These data provide a rich database for development and validation of computational aeroelastic and aeroservoelastic methods. In this vein, high-level viscous CFD analyses of the BACT wing have been performed for a subset of the test conditions available in the dataset. The computations presented in this section investigate the aerodynamic characteristics of the rigid clean wing configuration as well as simulations of the wing with a Static and oscillating aileron and spoiler deflection Two computational aeroelasticity codes extensively used at NASA Langley Research Center arc implemented in this simulation They are the ENS3DAF and CFL3DAlS computational aeroelasticity programs. Both of these methods solve the three-dimensional compressible Navier-Stokes equations for both rigid and flexible vehicles, hut they use significantly different approaches to the solution df the aerodynamic equations of motion. Detailed descriptions of both methods are presented in the following section.

Key concepts: Aeroelasticity, Aileron, Computational fluid dynamics, Aerodynamics, Wing, Benchmark (surveying), Computer science, Structural engineering

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