Ansys si impegna a fare in modo che gli studenti di oggi abbiano successo, fornendogli il software gratuito di simulazione ingegneristica.
Ansys si impegna a fare in modo che gli studenti di oggi abbiano successo, fornendogli il software gratuito di simulazione ingegneristica.
Ansys si impegna a fare in modo che gli studenti di oggi abbiano successo, fornendogli il software gratuito di simulazione ingegneristica.
Per Stati Uniti e Canada
+1 844.462.6797
ANSYS BLOG
September 30, 2022
While today’s smart product designs offer expanded features and functionality, they’re also making the job of product development teams exponentially more challenging.
From cars and planes to medical equipment and consumer devices, it’s getting harder to verify and deliver reliable electronic performance. As more electronics are added to already-complex product systems, failure risks increase significantly — especially as more chips and printed circuit boards (PCBs) are squeezed into smaller and denser packages.
Electronics engineering teams not only need to assess the electromagnetic (EM) performance and structural integrity of their product systems, but also guard against thermal overstress, faulty solder joints, and other failure modes. They need to verify each individual component, as well as the multifaceted performance of the entire product system when exposed to real-world operating conditions.
What’s complicating this challenge? Just as they face historic shortages of engineering talent, product development teams are also being asked to increase their level of innovation and speed new products to market before competitors.
The problem is that, while electronics product systems have taken quantum leaps forward, the project management processes and tool kits that engineering teams use to deliver these designs have remained virtually unchanged. Despite the complexities of having several functional teams apply multiple physics at both the component and system levels, product development teams are still relying on outdated practices and technologies to manage this process.
As more engineering disciplines and product development stakeholders get involved in system-level simulation and analysis, manual processes and project handoffs become problematic. Email exchanges and verbal conversations are also fraught with risk. Important deadlines might be missed. Key verification steps could be skipped. Results might be lost, resulting in rework. And, lacking a real-time view across functions, no one might actually know where projects stand.
And that’s just one part of the issue. There’s also the nearly impossible job of effective data management. System-level and multiphysics product simulations generate enormous volumes of data. Most engineering teams are using consumer-grade databases and tools, including Excel spreadsheets and Google Docs, to manage, store, and share that critical information. As a result, it’s scattered across functional siloes and usually hard to locate quickly.
The risks of these error-prone, inefficient ways of working are bigger than daily inefficiency, high development costs, and slow launch cycles. They include product recalls, warranty costs, lost customer loyalty, and irreversible damage to the brand reputation. Also at stake: meaningful innovation, which is stymied as critical projects sit stalled and unnoticed somewhere in the development queue.
Fortunately, there’s a straightforward solution. Ansys Minerva is an enterprise-level simulation process and data management solution designed specifically to support highly collaborative, innovation-driven, interdisciplinary product development for complex systems including electronics. Backed by the proven performance of Ansys simulation software and based on 50 years of industry leadership, Minerva orchestrates and accelerates the development of advanced electronics.
Most electronics development teams are already leveraging the power of Ansys Sherlock to achieve fast, accurate, physics-based electronics reliability predictions at the component, board, and system levels. They’re likely using Ansys HFSS and Ansys SIwave to study and analyze EM performance, Ansys Icepak to conduct thermal analysis, and Ansys Mechanical to optimize structural and thermal properties. Minerva ties all these diverse activities into a single, cohesive workflow and brings cross-functional teams together on a unified platform.
Ansys Minerva complements the robust capabilities of Sherlock and other Ansys solutions by providing development teams with:
Minerva offers another key advantage in this environment of talent shortages and budget cuts: it democratizes the use of Ansys simulation tools. Non-simulation specialists can easily master Minerva’s intuitive user interface and initiate lightweight simulation runs. This helps development projects advance fluidly and continuously, instead of waiting for scarce simulation experts to move them forward.
Some of the world’s leading electronics product development teams are already using Minerva to eliminate blind spots, missed deadlines, lost data, redundant analysis, and design flaws that impact ultimate product reliability. Not only is Minerva helping them deliver more reliable designs and greater innovation, but it’s also cutting costs and accelerating launch dates through dramatic improvements in productivity and efficiency.
Ansys Level Up 3.0, scheduled for Tuesday, October 25, features a special session on optimizing electronics reliability via Minerva. Register now and get ready to bring the benefits of this unique simulation process and data management platform to your organization.