Actran AeroAcoustics
Actran AeroAcoustics
Predicting the noise generated by complex flows
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Whether noise comes from an air conditioning system, a rotating fan, or any other device that creates noise through turbulent flows, the sound generation and propagation mechanisms must be addressed to satisfy the ever increasing customer quality expectations. These systems are often required to operate for extended periods of time. Even low noise levels can significantly degrade the comfort for the user. With Actran, engineers from all industries have tools to predict and understand how to design quiet workplaces, quiet car and aircraft interiors, or silent electronic devices.
Actran AeroAcoustics is a module that features advanced capabilities to predict accurate and efficient noise generation of turbulent flows. Results from an unsteady flow simulation performed with CFD codes such as MSC's SC/Tetra™, Fluent™, Star-CD™, StarCCM+™, Powerflow™, OpenFOAM™ and others are used by Actran AeroAcoustics to compute aerodynamic noise sources. The acoustic propagation from these aerodynamic sources are then computed to provide users with acoustic results such as noise levels and directivity.
Using Actran AeroAcoustics, the noise generated by any turbulent flow can be thoroughly predicted. Users can benefit from all features of the Actran software suite to study the interaction between the aeroacoustic noise sources and a vibrating structure, absorbent materials, or acoustic traps such as resonators.
Applications for Actran AeroAcoustics include rotating fans, air conditioning modules and side mirrors. It provides users with a complete understanding of the physical phenomena involved in the noise creation process.
Actran AeroAcoustics offers high performance solvers and parallel processing features with full integration in the Actran pre- and post-processing environment, Actran VI. It can also be combined with Actran VibroAcoustics in order to address aero-vibro-acoustic challenges such as side mirror noise.
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Collateral
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e-bookSeize success in EV manufacturing
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e-bookSolving Engineering Acoustic Challenges
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e-bookNVH targets eBook
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ArticleSound Attenuation Prediction of High Speed Railway...
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BrochureActran brochure
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Case studies
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Case studyBelgian building research institute: Actran helps...
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Case studyMeta: Optimising storage server chassis...
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Case studySatven: AI/ML based trimmed body NTF...
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Case studyAnalysis of Acoustic Behaviour of Louvers using Actran
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Case studySNCF trains: Travel quietly and sustainably
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Case studyGeneral Motors: Comfortable eV design, frequency shift
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Case studySchindler: Driving elevator design through simulation
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Case studySimulating and validating loudspeakers
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Case studyHow BAIC optimized car-body damping by simulation
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Case studyThales Alenia Space: Predicting mechanical shock...
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Case studyYamaha: A vision of sound
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Case studyAirbus: Aircraft engine noise simulation...
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Case studyCNH Industrial: Actran helps reduce time...
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Case studyRenault anticipates design requirements with Actran...
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Case studyDura Automotive Systems: Actran helps evaluate spare...
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Case studyAutoneum: Unleashing the new era of NVH simulation
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Case studyDura Automotive Systems maintains acoustic...
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Case studyAirbus Defence and Space: Actran helps predict vibro...
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Case studyTenneco Inc.: Exhaust active noise cancellation
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Case studyAlpha cabin: Evaluating acoustic properties porous...
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Case studyAvio ensure the VEGA launcher's structural integrity
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Case studyHEAD Acoustics: Using simulation to optimize...
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Case studyChina Motor Corporation: Pass-by noise sources...
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Case studyMultiphysics: Efficient aeroacoustic modelling...
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Case studyChina Railway Design Corporation: Attenuation predict..
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Case studyEcole Centrale Lyon: Tackling jet noise adjoint wave...
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Case studyFaster testing and virtual validation of access
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Case studyMaking solar panels ready for lift-off
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Case studyAirbus: Simulation optimizes acoustic liners reduces...
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Videos
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VideoACTRAN | Acoustic Simulation for the Aeronautical...
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VideoACTRAN | Noise Prediction Moving Mechanisms Coupled...
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VideoACTRAN | Acoustic Radiation Analysis
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VideoACTRAN | Solving higher frequency acoustic radiation...
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VideoIntroduction to Actran Student Edition
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VideoACTRAN | Acoustic Study of an Aircraft Engine
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VideoACTRAN | Acoustic Simulation of Duct, Intake & Exh..
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VideoSC/Tetra & Actran - Vehicle Wind Noise: Aero-acoustics
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VideoACTRAN | Reduce Noise and Improve Sound Quality
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VideoACTRAN | Simulation & Optimization of Acoustic Treat...
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VideoACTRAN | Introduction to Aero-Acoustic Analysis
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VideoACTRAN | Simulation & Optimization of Acoustic Trans...
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VideoACTRAN | Intake & Exhaust Systems
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On-demand webinars
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WebinarAddressing the future of global noise challenges
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WebinarHow to facilitate Aeroacoustics CAE
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WebinarAcoustic Transparency
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WebinarDuct Acoustics
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WebinarVehicle pass-by noise compliance
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WebinarIndustrial Context Challenges
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WebinarAcoustic Radiation
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WebinarHow to improve acoustic interior comfort?
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WebinarHigh Frequency Vibroacoustics
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WebinarEngineering Simulation: Improve acoustic comfort
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WebinarDuct Acoustics
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WebinarAddressing the future of global noise challenges
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WebinarAcoustic Transparency
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WebinarAcoustic Radiation
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WebinarDesigning a quieter & more sustainable world
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WebinarAcoustics Radiation
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WebinarIntroduction to Actran Jumpstart
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WebinarAcoustic performances in real-time
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WebinarHow to facilitate Aeroacoustics CAE
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WebinarAcoustic Transparency
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WebinarAccelerate your acoustic simulations
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WebinarIndustrial Context & Challenges
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WebinarAcoustics Industrial Context & Challenges
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WebinarAcoustic Radiation
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WebinarAcoustic Transparency Calculation
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WebinarDuct Acoustics
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WebinarWrap-Up and Introduction to Actran JumpStart
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WebinarHow to improve acoustic interior comfort?
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WebinarAcoustic simulation using customized interfaces
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