July 7, 2022
You probably know that optimization software can provide better solutions than experience alone — and that it can get there 10x or even 100x faster than the old, manual workflow of design, prototype, test, refine, and repeat. Optimization software automates the process of virtually testing hundreds, if not thousands, of scenarios to identify the best candidates, so it’s no wonder that the performance improvements can be off the charts. But automating individual processes is yesterday’s news.
Today’s complex system designs require engineers with expertise in several disciplines — electromagnetics, computational fluid dynamics, structures, and more — to work together to optimize entire systems. To add to the level of difficulty, they are using different computer-aided design and engineering (CAD/CAE) software tools to fine-tune the design and simultaneously simulate different physics. That’s no small task, especially considering that different engineers often use software from different companies. Even more, making an adjustment to optimize for one type of physics might result in a suboptimal solution for a previously optimized type of physics, sending the design back for further optimization and creating a lengthy ping-pong effect. To tap into the power of automated optimization, you need an open, CAD/CAE-agnostic solution that orchestrates an efficient workflow across engineering disciplines and physics.
Leading companies have been using Ansys optiSLang to do just that for decades, increasingly relying on its constantly updated capabilities — including a decade of artificial intelligence and machine learning (AI/ML) advances — to tackle complex engineering problems faster. One antenna and radar product vendor connected optiSLang, Ansys HFSS, and Microsoft Excel to reduce engineering time and associated costs by 84%, resulting in an improved design.
While new innovations increased systems complexity, optiSLang has become even easier to use. You don’t have to be an optimization expert to benefit from optiSLang. You can use the simple drag-and-drop interface to connect design tools, whether you’re using our competitor’s solvers, products from our partners, or our own leading solutions like HFSS for electromagnetic simulation, Ansys SIwave for signal and power integrity (SI/PI) analysis of printed circuit boards, or Ansys Lumerical and Ansys Speos to simulate photonics and optical systems.
System engineering isn’t limited to electromagnetics and SI/PI analysis, and neither is optiSLang. Mechanics, fluids, and noise, vibration, and harshness (NVH) can all be orchestrated and automated with optiSLang.
For example, Schaeffler Group coupled Ansys Motor-CAD electric motor design software with optiSLang to help create a computationally efficient workflow to enable multiphysics, multi-objective design optimization of electric machines. To generate results far faster, Schaeffler computed a metamodel in optiSLang, then used the software to also run the optimization. That enabled them to run thousands of optimization iterations within minutes.
“By coupling front-loading methodologies, Schaeffler created an efficient and flexible tool that enables product designers and engineers to use the same optimization workflow for any electric machine concept — and to have results in minutes,” writes Pierre Millithaler, Schaeffler Automotive Buehl GmbH & Co. KG. “Instead of it taking 50 hours to simulate 100 samples using finite element analysis (FEA), the metamodel-based optimization can simulate 10,000 samples within minutes.”
Visit us in booth 1539 at this year’s Design Automation Conference (DAC), from July 10-14 in San Francisco. Ansys experts will present during the following discussions:
We’re here to answer your questions and look forward to speaking with you. A member of our Ansys sales team will contact you shortly.