Improving Comfort and Robustness of Jabra Headsets with Simulation-driven Design, by GN Audio

1. FEA Explicit Dynamic for Drop Impact Simulation Using Altair Radioss　 2. Multi parameter Sensitivity Analysis & Deterministic Design Optimization on A/C Outdoor Unit. 3. Uncertainty Quantification & Reliability Based Design Optimization 2D CFD Case Study

Together with cloud providers and our other HPC partners, Intel is driving the performance and flexibility that are critical to running advanced HPC workloads in the cloud. We collaborate across our HPC ecosystem to help cloud providers offer accelerated, secure, and agile environments using our latest technologies, such as Intel® Xeon® processors. As cloud customers continue exploring new possibilities and applications for HPC, Intel is dedicated to facilitating their success. Intel works with HPC partners from various industries to enable forward-thinking cloud use cases such as bursting, AI, and advanced analytics. Learn how Intel collaborates with Public and Private Cloud Service Providers to optimize HPC workloads for fast, cost-effective execution on Intel-based Cloud Instances.

Dactem (a DAM group company), developer of specialist test, measurement and assembly solutions for the aerospace industries, presents an overview of the optimization of a thrust balance used for accurate measurements in electrical thruster qualification endurance testing. The presentation will provide details on how a Multiphysics simulation approach was used to find the optimum design taking mechanical, thermal and electromagnetic performance into account. Speakers: Emmanuel Pouleau, CEO, Dactem (a DAM Group company) Pierre Moutet, Engineer, Dactem (a DAM Group company) Duration: 15 minutes

Electrification is everywhere! It brings energy efficiency into systems and also helps add new smart functionalities to products. The electric motor is a key element of such systems, converting electricity into mechanical power. It is multiphysics by nature. Electric machine engineers need to take into account various constraints from the early stage of the design, looking at electromechanical performance, as well as respecting thermal and NVH constraints. Simulations need to integrate these multiple physics and also coupling effects. Dedicated tools and streamlined multiphysics workflows are developed in order to reduce complexity and speed up the design. Speakers: Limin Huang, Electromechanical Engineer, Altair Samia Saaidi, Senior Technical Specialist - Electromechanical Solutions, Altair Duration: 20 minutes

This workshop demonstrates how a simulation-driven design approach to product development can have a drastic impact on the performance, design time, and profitability of a new product. Using a belt sander tool as a demonstration model, our presenters show how Altair’s design and simulation technologies can conduct a concept design analysis and optimization of the sander external housing to improve stiffness and reduce weight. They go on to show how we can simulate the manufacturing process itself by looking at filling, packing, cooling and warpage of the plastic housing; before concluding with a series of stress analysis and validation studies such as a virtual drop test, 3-point bending simulation and even a study of the effect of the heat transfer of the electric motor. This is a valuable session to see how simulation technologies can be used throughout the design process, adding value and reducing development time at each stage. Speakers: Ujwal Patnaik, Global Business Development Manager, Altair Chris Sambell, Application Engineer, Altair Duration: 60 minutes

On an international stage, confidence in your design is the bridge to success. Engineering principles have been cultivated to satisfy design requirements and help analyze more and more accurately. For Team Albatross, as analysis of aircraft design holds crucial, Altair strikes to be the first choice. This integrated system houses major products such as Simlab, SImSolid, and Hypermesh which have helped us introduce new design validation analyses for the team. With Altair, we achieved greater computational power even on the simplest of laptop configurations. Altair Hypermesh has allowed dealing with complex geometries that come with our design with utmost ease, giving precise results. Powerful products of Altair such as SimSolid help us perform a plethora of analyses in a short span of time and completely eliminate the barrier of computing limitations. Such unique analysis tools of Altair have enabled Team Albatross to secure ranks in the top 3 for the past 2 years on an international level, and this year, Team Albatross also stood 1st nationwide. Seeing this, it is certain that with what Altair has to offer, Team Albatross is more than ready to advance in technological standards and bring laurels this year too!

In this prestation at SC21, Eric Lequiniou highlights the latest achievements of Altair Radioss™ running on Arm-based processors.

Learn how to maximize performance using AMD's 3rd Generation Epyc™ Processors to run simulations with Altair solvers in Eric Lequiniou’s presentation at SC21.

AAM has been providing mechanical drivelines to automotive customers for more than 25 years. As the automobile transitions to electrification, so too must the driveline. AAM has developed a suite of innovative, lightweight, compact and cost-optimized electric drive units and electric beam axles to meet the growing global technology demand as electric vehicles continue to expand over the next decade. Engineering simulation, optimization and validation tools were significant enablers to increase the validation confidence and reduce the time to market for these new products.

Sustainable designs last longer. David Yáñez from Vortex Bladeless, a Spanish start-up, shares his vision of the technology, the strategies used for the integration of the different physical phenomena involved in the simulation-driven design, and the development of their resonating structures having minimal parts susceptible to wear by friction. The simulation results from CFD, with fluid-structure interaction, and electromagnetic field simulation are compared with experimental wind tunnel results and from in-service environments.

An intuitive and robust CFD workflow is available in Altair® SimLab® - a process-oriented, feature-based finite element analysis software that allows you to quickly and accurately simulate the engineering behavior of complex assemblies. For fluid and thermal analyses, SimLab can make the model setup process even faster, repeatable, thereby minimizing tedious manual steps that can be automated. A live demo will be performed using real-world models to show the simple and smooth analysis process in Altair SimLab that goes from CAD to results in minutes.

For the past three decades, Altair’s optimization solutions have driven the innovative, lightweight, and structurally efficient designs of many products you see and use every day. The intense focus on additive manufacturing in recent years have given a boost to topology optimization and generative design, providing more freedom to explore alternatives. Today, we keep on innovating the technology, looking at including multiple physics, like thermal, electromagnetics, and fluid flow to drive design. Altair AcuSolve – coupled with Altair Optistruct – enables engineers to find the optimum shape by simply defining inlets, outlets, and the allowable space in which the solver can work. AcuSolve’s gradient-based topology optimization method will quickly and efficiently find the path of least resistance to deliver fluid flows with minimal effort.

To design today’s tightly packaged electronic systems it is essential to create a thermal analysis model of the PCB within its enclosure. Learn how Altair SimLab provides robust and repeatable workflows for fast, accurate, and consistent analysis, even for occasional users allowing them to confidently identify and correct potential design issues earlier in development with accurate thermal analysis that doesn’t require advanced CFD knowledge.

With lightweighting at the forefront of the sustainability discussion, Altair HyperWorks has introduced a targeted environment to rapidly create models for topology optimization. The complete HyperWorks Design Space environment includes an automotive-only non-design space library, collision detection, and a fast and efficient voxel Boolean mesh engine. It facilitates the creation of new model variants in seconds without the need to go back to CAD. In addition to automotive BIW architecture studies, it supports design space local and global modeling for generic sub-systems throughout different industries. The concept adhesive workflow is also available to identify location of structural adhesive.

The increasing complexity of machines requires active management and evaluation of potential product failures and simulation of physically accurate conditions during development. Achieved through multiphysics simulation, Altair SimLab can simulate a wide range of interacting physical models including fluid-structure interaction (FSI) and thermomechanical simulation. By helping with complex design problems, simplified modeling workflows give a deeper understanding of phenomena and root causes of unwanted behavior.

In this session we will highlight how Altair HyperWorks supports efficient data processing and visualization, thereby helping users to make decisions faster. From the simulation-driven design workflow, fully integrated with HyperWorks’ model build functionalities, to the high-performance visualization and reporting of simulation results, HyperWorks provides the best framework to visualize, process, and report data

Altair products are quickly evolving into AI-driven products. Starting from the modeling and visualization products, the latest release of Altair HyperWorks includes features like shapeAI, which quickly finds and classifies parts “by shape” inside geometry files or finite element meshes - when you want to locate all of the bolts, shafts, and gears in a complex assembly - by applying machine learning.

This presentation discusses how and why business are moving to Oracle Cloud and what benefits they're realizing in areas including biomedical research, automotive simulation, and weather forecasting. The presentation, by HPC cloud architect Dr. Kevin Jorissen from Oracle, was recorded at the 2021 Altair HPC Summit, and is about 30 minutes long. View all HPC Summit 2021 Presentations

We are seeing a mass increase in data, coming at us from all directions. Whether you are running AI-enhanced HPC applications on-premises or HPC workloads in the cloud, you need platforms and solutions that will offer the performance, scalability, and flexibility to redefine what’s possible with HPC. This presentation by Trish Damkroger from Intel aired at the 2021 Altair HPC Summit, and is about 17 minutes long. View all HPC Summit 2021 Presentations

The scalability performance of Altair Radioss software when running in parallel with up to 1152 cores, using mono and multi-domain techniques, was assessed for a large airplane-ditching model. Within the range of cores tested for the multi-domain (72 to 288 cores), the overall efficiency of the multi-domain simulations was significantly higher than the monodomain, taking almost a third of the time to complete the simulation when compared to the monodomain model for 72 cores. Both techniques have shown excellent scalability, with high scaling efficiency and with outstanding reliability of the results. This presentation by Rafael Bini Leite from National Institute for Aviation Research (NIAR), Amarendra Joshi from Oracle, and Jean-Michele Terrier of Altair aired at the 2021 Altair HPC Summit, and is about 25 minutes long. View all HPC Summit 2021 Presentations

In order to ensure the safety of passengers and on-board personnel, finite element calculation is used at SNCF as part of the acquisition, renovation / modernization projects of trains as a decision aid and preparation for testing approval of trains. This is the main case of the mechanical strength of bolted and screwed assemblies, and more and more of the integration of composite materials into rolling stock structures in order to make them more capacious and less energy intensive. To do this, SNCF is developing methodologies to make the modeling of bolted assemblies and composite parts more reliable, as well as topology optimization. The tools of the HyperWorks suite, and in particular, the OptiStruct solver, allow SNCF to represent its types of materials, as well as these phenomena (bolted assemblies + topology optimization).

Presented at the ATCx Heavy Equipment in May 2021.

Speakers: Patrick Jumin, Derik Joël Kengne Tapchom & Karim Slimani, SNCF

Duration: 20 minutes

Dr. Fatma Kocer VP, Engineering Data Science at Altair showcases the impact of AI in development environments. In particular on how CAE tools will evolve and Design Exploration is taken to the next level.

Brett Chouinard, President and COO of Altair discusses Development challenges in Industrial machinery and illustrates how Altair's scalable simulation solutions provide the environment for simulation-driven innovation and how machine learning expands the capabilities furter.

Felix Koerfer, Technical Consultant at Altair, gives a Demo Sessions on Altair Simulation Solutions for faster evaluation of real-world machines, explaining how accurate structural assessment with real loading conditions allows assessment of global stress and deformations, evaluation of bolt forces, and how accuracy & deformation of linear bearings cna be achieved.

Simon Zwingert, Technical Consultant, gives a Demo Sessions on Altair Simulation Solutions for faster evaluation of real-world machines, explaining how, to improve the design with studies and the design exploration on the complete assembly to perform weld line optimization.

Martin Kemp, Regional Manager at Altair, Dr. Denis Cumming, a Senior Lecturer at The University of Sheffield, John Milios, CEO at Sendyne, Dr. Gregory Offer, Reader at Imperial College London and finally Professor Jun Xu, Director of Vehicle Energy & Safety Laboratory at The University of North Carolina, present - Developing Predictive Electro Thermal Cell Models for Pack Level Deployment. This presentation will focus on the simulation of the battery cell to represent its complex thermal and mechanical behaviour. The thermal behaviour requires the simulation of the electric behaviour within the cell which leads to the generation of heat. Managing the thermal behaviour is fundamental to the long term health of the battery. The talk provides an overview of the technologies used to simulate battery behaviour, commencing with the understanding of the battery structure including the simulation of electrode manufacture. Both electrochemical and equivalent circuit models will be discussed with the advantages and disadvantages of both methods presented. Finally, machine learning technology is used to create an intelligent cell model which retains accuracy whilst delivering computational efficiency which can be used in Part 2.

Altair CTO James Dagg presents an overview of the journey Altair took to develop the leading modeling and visualization technologies we have today, and provides a look at what’s coming next to help you reduce your product delivery time. James Dagg has been at Altair for more than 30 years and is a visionary behind Altair’s software strategy and development activities. He has also led the development of Altair’s concept design technologies and oversaw the development of Altair’s CAE software suite for more than a decade.

In his presentation, Dr. Darren Ashby, CAE Group Leader at Jaguar Land Rover discusses some of the technological developments that have led to reduced meshing time and enhanced model quality at Jaguar Land Rover. Additionally he shares some thoughts on the direction of finite elements modelling, future functionalities, and new technologies which will enable further productivity gains at the company. Dr. Darren Ashby, CAE Group Leader at Jaguar Land Rover has been at the company for over 30 years, having joined as a technical apprentice and progressing to where he is now as the CAE Group Leader for Virtual Model Build and Analysis. He holds a PHD in philosophy focused in mechanical engineering from Coventry University.

Steve White looks after Altair’s UK technical support team having joined the company in 2018. In his presentation, Steve is going to give us a brief overview and demo of the HyperWorks pre- and post-processing solutions, demonstrating the intuitive user interface and efficient workflows that can lead to significant time reductions in your model build activities.

Ross Atherton is a Structural Systems Design Engineer in the Rolls-Royce Civil Aerospace Future Programmes Engineering department. After a period of supporting Rolls-Royce’s growing large engine fleet, Ross turned to future products; and has since led a small team designing, assessing, and enhancing the conceptual product architecture of future market opportunities. Ross’ presentation will go into detail on how Rolls-Royce have deployed the Altair Hyperworks toolset to enhance the structural efficiency of their UltraFan engine, covering: rapid model and mesh creation; new insights from structural optimisation and robust design; integrated post-processing; and the resulting acceleration of the engineering design iteration cycle.

Stephen White, Technical Support Manager, introduces Altair SimLab, a process-oriented, feature-based finite element modeling software that allows you to quickly and accurately simulate behaviour of complex assemblies. SimLab covers multiple physics including structural, thermal and fluid dynamics which can be easily setup and automated, helping to drastically reduce the time you spend creating finite element models and interpreting results.

BMW Motorrad is the motorcycle division of BMW, a German multinational company manufacturing luxury automobiles and motorcycles. With the first motorcycle manufactured in 1923, their current product line includes a variety of shaft, chain, and belt-driven models designed for off-road, dual-purpose, and sports powered by a variety of engines ranging from a single cylinder, various two cylinder (parallel twin, flat twin, boxer etc.), four cylinders inline and six-cylinder inline ones. BMW Motorrad faced a challenge with their model build processes, needing to move previously outsourced crankshaft modeling work in-house while also reducing lead time. Through a semi-automated modeling process based on Altair SimLab, BMW Motorrad developed scripts which reduced FE model generation time down 80%, from 2 weeks of manual work to just half a day. Ruediger Ott, HyperWorks Business Development at Altair, presents a use case from BMW Motorcycles who found that they could significantly reduce the model build time of their powertrain assemblies with SimLab, making use of the automation capabilities to minimize manually effort and refinement.

Matt Bone, CFD engineer at Totalsim takes us through Totalsim's deployment of Altair’s pre-processor, which now comes equipped with a full suite of tools for CFD meshing and model set-up. We’ll see some of the automated tools can fill holes and gaps between parts and wrapping techniques to create exterior watertight meshes or cavity meshes, all built around saving you time with you CFD model build.

Julien Hoyez, Senior Application Engineer at Altair takes us through Altair’s revolutionary new composite modelling workflow, aimed at accelerating and simplifying every stage of pre-processing. Julien will show us how the dedicated Composites Browser in HyperWorks 2020’s streamlined and intuitive interface enables you to rapidly model, manipulate and review ply-based models.

Matt Kedgley from Engenuity introduces us to FiRMA, an analysis method that tackles the difficult task of predicting the structural performance of randomly oriented fibre composite components. This method has been developed and made possible using a customisation of Hypermesh. The Finite Element (FE) models are pre-processed into the FiRMA format before being submitted for analysis solve through HyperStudy.

Kenneth King is a Stress Engineer for the aerospace sector for Atkins. He’s is a chartered engineer with over 10 years’ experience in stress analysis using hand calculations and finite element analysis. While working at Atkins Aerospace he has been involved in projects on Airbus A350 and Single Aisle Aircraft. In addition to aerospace sector, he has worked in infrastructure, rail, offshore wind, nuclear and oil & gas sectors. Kenneth shows us a real life example of how Hypermesh has saved modelling time of finite element models when designing composite bridge structures. He will show us how the Hypermorph module in Hypermesh can be used to drive the design analysis cost down by reducing model creation lead time.

This presentation is by Program Manager Rob Jopson. It’s a given that the simulation models we build are intended to capture and predict physical behavior, the data used to create them is not always representative of the manufacturing process used to build the physical part. For layered composite parts in particular, this mismatch can cause significant overhead in managing the simulation data as the model is created and evolves. To solve this problem, Altair’s ply-based modeling methodology strives to maintain a 1:1 relationship between the simulation data and the manufacturing process, independent of solver. The latest developments of this methodology will be presented as a workflow in the new Composite Browser, available in HyperWorks. The recording is about 18 minutes long and was originally presented at the 2020 ATCx Composites.

This workshop on end-to-end workflow for modeling layered composites in HyperWorks was conducted by Program Manager André Möenicke. The recording is about an hour and 37 minutes long, and and was first presented at the 2020 ATCx Composites.

This workshop on molding and structural simulation of injection molded parts was conducted by Frank Ehrhart, EMEA Technical Specialist - Material Engineering/Multiscale Designer. The recording is a little over an hour long, and and was first presented at the 2020 ATCx Composites.

Variational asymptotic beam section (VABS) is a unique technology continuously funded by the US Army since 1988 and it has become a tool of choice in the helicopter and wind turbine industries for modeling composite rotor blades. With analysis of a finite element meshed cross section, VABS can compute the best set of beam properties for 1D beam analysis and also accurately recover 3D stress/strain distribution over the cross section. VABS has been integrated with HyperWorks and OptiStruct for Altair users to take advantage of this powerful technology for better design and analysis of composite beam-like structures.  The recording of the presentation by Dr. Wenbin Yu, CTO of AnalySwift, is almost 20 minutes long, and was originally presented at the 2020 ATCx Composites.