This recorded webinar introduces Simcenter 3D user interface, simulation process, mesh setup, simulation setup, and post processing.
This Tip & Trick shows how to use the results from a thermal simulation to create a temperature load in a structural simulation using fields. A contour of the resulting temperature load will be generated and compared to the thermal results.
This Tips & Trick shows how to display a fem’s 2D element thickness values. In addition, NX lets you create a field of 2D element thicknesses, which you can reuse in the same or different model, on finer or different meshes altogether.
Software tools like Simcenter have enabled private and public organizations alike. Spacecraft designers have powerful tools to confidently deal with complexity, reduce costs and risks, and deliver excellence and safety. Download the white paper to find out what Space 4.0 holds in store and what you’ll need to compete.
With 3 simple improvements to Simcenter 3D turbomachinery manufacturers and designers can more efficiently create a whole engine model that streamlines multiphysics analysis and provides greater insight into the interrelated effects of heat transfer, fluid flow and structural mechanics in turbomachinery designs.
This white paper takes a deep, technical dive into the pitfalls of random base excitation simulation, offering solutions to help you obtain accurate results efficiently, with limited computation time. Discover the keys to improving your random analysis workflow while reducing costs.
The term “AI” has been freighted with meanings in the popular imagination long before realizing practical uses. Now that AI is finally showing its value, we can examine what it means in manufacturing and engineering, specifically for uses in simulation.
AI is no longer the stuff of science fiction. It offers concrete benefits in all areas of engineering, manufacturing, and operations. Artificial intelligence (AI) has an enormous potential to advance industries and change the way we work, live, and create.
A lot of companies have slowly become “data rich” but they are still “wisdom poor,” as much of their collected data goes unused and un-managed. How can manufacturers move ahead with AI projects efficiently and successfully? This post covers a few of the key concepts for industrial AI in engineering and manufacturing.
Electrification and digitalization are omnipresent in all aspects of modern life –from how we drink coffee to how our food is produced and to the complex behind-the-scenes processes of how we manufacture products.
Change Notice, a weekly video podcast hosted by Instrumental Inc., seeks to address the topic in conversation with product design engineering leaders. In a recent episode, Maya HTT’s Remi Duquette joined host Anna-Katrina Shedletsky for a deep dive into the changes he’s seen over the last 10+ years.
Answer this survey to understand your AI maturity level, and equally important, get the resulting report to ensure you take the right next step towards successful AI operations. Typical Stakeholder: VP, Director, Manager for Maintenance, Operations, Plant, Fleet, and Service management
How can discrete and continuous manufacturing take full advantage of rising digital technologies? Will the deployment of machine learning succeed, even in “dirty” industrial environments?
STAR-CCM+ can now serve your innovation team better than ever with its new 2022.1 release.
This white paper takes a deep, technical dive into the pitfalls of random base excitation simulation, offering solutions to help you obtain accurate results efficiently, with limited computation time. Discover the keys to improve your random analysis workflow while reducing costs.
This webinar goes into specific detail about how to address certification challenges, including: Structural loads and performance, Flutter, Landing and take-off, Structural occupant protection, High frequency electromagnetic simulation, Noise and vibration, and Electric drive.
This series of four webinars offers solutions to the challenges of next-gen electromechanical design.
Simcenter 3D FE Model Update helps improve the fidelity of simulations. By adjusting the model’s material and physical properties parameters (called Design Variables), it is possible to produce a close match to actual product performance.
Assessing thermal-mechanical performance takes more than looking at the individual components separately. You must consider whole engine. How do you go about doing that as efficiently as possible? Hint: one engineer working alone to develop a whole engine model won’t cut it. A better approach to accelerating performance engineering is to divide the workload into sub-assemblies and combine models in assembly FEMs.
This post explores how to assess thermo-mechanical performance and behavior in the context of the different missions the final product will undertake.
This series of posts looks at the thermo-mechanical performance engineering needed to ensure systems and components remain safe and achieve the best performance, even under high stresses and temperatures. These posts also explore how to ensure the design and development process is as seamless, collaborative and efficient as possible to reduce error, cost and development time.
Modeling battery systems and improving performance with simulation and optimization. This webinar explores the complex problem of battery systems design, testing and analysis for electric vehicles.
The global simulation industry collaboration and technology alliance Revolution in Simulation (“Rev-Sim” at www.rev-sim.org), created to accelerate innovation through the … Continue reading Revolution in Simulation™ Announces Maya HTT as Newest Sponsor
This webinar showcases how Maya HTT clients are successfully utilizing data and enabling non-data scientists to leverage AI technologies. Those looking to understand what industrial IoT and AI can bring to an engineering organization are encouraged to view this webinar.
Each year, the McGill Formula Electric (MFE) team designs and produces an electric racing car. Using Simcenter made the task efficient and fast – a huge improvement over Excel grids and the Simulink model much less intuitive. The simulation is now easy to modify to evaluate other designs.
Teignbridge Innovation and Technology department employs STAR-CCM+, by Siemens Digital Industries Software (DISW), to run fast and accurate computational fluid dynamics (CFD) simulations.
With over 20 years of experience, Bativac is a leading building mechanics company located in Quebec, Canada. The Bativac team helps their clients make efficient and cost-effective decisions, whether they are undertaking the complete planning of a project or analysing modifications to an existing system. Bativac recently contributed their expertise in ventilation to the Centre Hospitalier de l’Université de Montréal (CHUM) project.
Reaction Dynamics (RDX) has been pursuing innovative research into rocket propulsion for 5 years. Having solved the problems inherent to hybrid rocket engines, the company, headed by CEO Bachar Elzein, elected to offer dedicated launches to orbit for small satellites. They promise faster, cheaper, and more reliable access to space.
This team of engineering students embarked on a lofty and ambitious project: to prove that electric airplanes could take flight. Find out how, with some coaching from Maya HTT, they were able to refine their battery and airplane design using Amesim and STAR-CCM+ software, and overcome the propulsion challenges to achieve success.
Reaction Dynamics (RDX) has been pursuing innovative research into rocket propulsion for 5 years. Having solved the problems inherent to hybrid rocket engines, the company, headed by CEO Bachar Elzein, elected to offer dedicated launches to orbit for small satellites. They promise faster, cheaper, and more reliable access to space.
