Here, at Simulation Dynamics, our engineers have deep knowledge and expertise in FEA, CFD, and acoustic simulation, which enables them to solve complex acoustic, vibro-acoustic, and aero-acoustic problems. By leveraging advanced numerical simulation softwares such as Ansys Fluent and Siemens Star-CCM+ for flows simulation and FEA based Codes such as ABAQUS, Ansys, Nastran and LS-Dyna and acoustic solvers such as Actran, we can accurately predict noise and vibration levels and design products that meet regulatory requirements while delivering optimal performance and reliability.
Contact US and Discover SolutionsAdvanced NVH experimental and virtual tools are prerequisites for cost and time effective development minimizing pre-production troubleshooting effort and shortening time-to-market. Our scope of work ranges from NVH benchmark and target setting, troubleshooting, sound design, low noise powertrain and driveline development, NVH engineering within machine and vehicle integration up to full machine NVH development responsibility.
Simulation Dynamics offers a Virtual Engineering approach with Ansys Fluent and Star-ccm+ for flows simulation and FEA based Codes such as Ansys, Abaqus, Nastran and LS-Dyna, encompassing the accurate prediction of in-service loads, the performance evaluation, and the integrity assessment including the influence of manufacturing the components. Dependent of problem, we may use specialized solver such as ESI VA-one and MSC Actran as acoustics solver.
Cognitive FEA: Machine Learning-Predictive Structural Integrity
Deploy graph neural networks (GNNs) to forecast nonlinear material deformation, crack propagation, and fatigue failure. Train AI on legacy FEA datasets for ISO-certified validation of aerospace composites, additive manufacturing defects, and seismic-resistant infrastructure.
Aero-acoustics is becoming increasingly important in the aerospace industry due to the growing concern over the noise generated by various engineering applications, such as propellers, rotors, aircraft engines, and nozzles. This is particularly important in urban and suburban areas where aircraft noise can be a significant source of disturbance and can negatively impact the quality of life for people living near airports.
Aero-acoustics involves the study of the generation, propagation, and radiation of sound in the context of aerodynamic flows. It is used to analyze and optimize the design of aerospace vehicles to reduce noise levels and improve their acoustic performance.
Aero-acoustic simulations can be used to predict the noise generated by different components of an aircraft, such as engines and propellers, and to evaluate the effectiveness of different noise reduction strategies. These simulations can also help engineers to identify potential noise problems early in the design process and make changes to reduce noise levels before a physical prototype is built.
At the same time, aero-acoustics is essential for ensuring that aerospace vehicles meet regulatory noise standards and regulations. For example, the Federal Aviation Administration (FAA) in the United States sets noise standards for aircraft operations, and aero-acoustics simulations can be used to demonstrate compliance with these standards.
Our cutting-edge Artificial Intelligence & Machine Learning integrated development solutions combine technical excellence with business insight to deliver exceptional digital experiences.
We leverage modern frameworks with CFD & FEA solvers and cloud infrastructure to build applications that scale seamlessly with your industrial needs.
The noise generated by turbulent flows can come from various sources, including air conditioning systems, rotating fans, and other devices that create turbulence in the airflow.
In order to design quiet car interiors, it's important to understand the sound generation and propagation mechanisms that occur when air flows over and around various surfaces inside the car.
Aeroacoustics simulations can be used to analyze and optimize the design of car interiors, including the shape and positioning of various components, such as the seats, dashboard, and air conditioning ducts. By using advanced numerical methods and acoustic solvers, engineers can accurately predict noise levels and identify potential noise problems early in the design process, allowing for design changes to be made to reduce noise levels and improve the overall acoustic performance of the car.
Multiphysics AI: Simulate Fluids, Structures, & Electromagnetics
Model EV motor cooling, MEMS sensors, and satellite thermal-vibration coupling. Use pytorch/TensorFlow-integrated solvers to automate boundary conditions and predict multiphysics failures in mission-critical systems.
Our engineers provide solutions to optimize electric motor noise behavior while leaving electromagnetic performance unchanged. This involves analyzing the acoustic and vibration behavior of the motor, identifying the sources of unwanted noise and vibration, and implementing design modifications to mitigate these issues.
In addition, our engineers can help integrate electric power sources in the driveline while ensuring smooth operation with minimum NVH impact. This may involve analyzing the vibration behavior of the powertrain, optimizing the design of components such as bearings and dampers, and implementing control strategies to reduce NVH levels.
Our computational tools and services can also help balance NVH and ride comfort with body weight. This involves evaluating the NVH performance of different design options, optimizing the design of components and systems to reduce NVH levels, and balancing the trade-offs between NVH and other performance factors such as weight and ride comfort.
AI-Driven Simulations for Smarter Engineering.
Leverage Artificial Intelligence to optimize CFD, FEA, and multiphysics simulations. Automate workflows, reduce errors, and accelerate innovation. Transform your engineering processes with AI-powered insights.
Accurate noise prediction models are crucial for designing marine applications that meet customer expectations for on-board noise levels. Whether it's a large cruise ship or a small yacht, noise is a critical factor that must be addressed during the design phase.
Exterior noise generated by propellers, hull radiation, or mufflers can be a major challenge for marine applications. This noise must be limited for discretion or environmental reasons. Designers must use advanced modeling and simulation tools to accurately predict the exterior noise levels and identify design modifications to reduce noise levels.
Interior noise is also a major concern for crew and passenger comfort. The interior noise is typically a result of engine and machinery noise, as well as noise from water and air flow around the hull. The interior noise levels must be controlled to ensure a comfortable environment for the crew and passengers.
We use advanced modeling and simulation tools to predict noise levels for different operating conditions and identify design modifications to reduce noise levels. Our engineers can also design noise control solutions to address interior noise challenges, including noise barriers, damping materials, and noise-cancelling technologies.
Solve Complex Problems with Multiphysics Simulation.
Combine forces, heat, fluids, and more in a single multiphysics simulation platform. Drive innovation across aerospace, automotive, and energy sectors. Experience the power of integrated engineering solutions.
The engineering process of audio devices is unique because the complete audio system must be tested, taking into account various factors such as the acoustic properties of the surrounding environment, vibration and resonance of components, and the overall sound quality. This is particularly true for audio systems installed in cars, where the acoustic properties of the car interior can significantly affect the sound quality and engineers need to consider the complete system and take into account the acoustic properties of the car interior, as well as the interaction between different components. For example, the placement of the loudspeaker in the car door and the acoustic cavity behind the loudspeaker can significantly affect the sound quality.
To mitigate these problems and reduce the number of physical tests, engineers in the audio industry are increasingly turning to acoustic simulation. By using advanced acoustic simulation tools, our engineers can accurately predict the acoustic performance of different components and the complete system, including the effects of vibration, resonance, and the acoustic properties of the car interior.
Acoustic simulation can be used to optimize the design of audio systems, including the placement and orientation of different components, to achieve the desired sound quality and reduce noise and vibration levels.
Revolutionize Fluid Dynamics with CFD Simulation.
Optimize fluid flow, heat transfer, and turbulence with advanced CFD simulation tools. Enhance engineering designs for aerospace, automotive, and energy industries. Experience precision and efficiency in fluid dynamics analysis.