editor's blog
Subscribe Now

Getting Away from Rare Materials

Every couple months or so it’s not hard to find some mention somewhere in the mainstream media about the industrial world’s vulnerability with respect to rare materials. Obviously, anything that’s actually rare has a limited supply overall. In other cases, there may be lots of material, but if it’s locked up in one country, then that country has the potential to create scarcity at will. Makes everyone just a tad jumpy.

Not being a materials scientist per se, it’s always amazed me that some specific bizarre metal or ceramic can have some critical function for a battery or a transistor or, heck, even a connector. Seems dibs and dabs of these substances show up all over.

More surprising, then, was a suggestion by imec’s Rudy Lauwereins that the concerns about rare materials will melt away with new engineered materials. While he didn’t outright say it would be easy, his comments came with an assuredness that felt very out of sync with the world of materials discovery that I had been raised with.

Our chemistry and physics history books often tell stories of trial and error. How many materials did Edison try before landing on tungsten for a light bulb? How many tales are there of scientists patiently working through a menagerie of substances either to see if they work in an application or, even more fundamentally, just to see what happens in a given situation?

But it seems like we’ve pretty much gone through all the random combinations. Or perhaps we’ve hit all the good stuff and the yield on further such explorations aren’t worth the effort. Most importantly, however, we now know how this stuff works. Or we think we do.

It’s this newer atomic-level knowledge of materials that will make the difference. Mr. Lauwereins describes it simply as understanding the mechanical, electrical, and optical properties of different atoms, and then using that knowledge to engineer new materials directly – possibly coming up with things that don’t even exist in nature, and so wouldn’t be found in an old-school lab with a long laundry list of things to try.

Bottom line: he was confident that our dependence on rare materials will disappear as engineered analogs replace them. Could we end up replacing geopolitical concerns with fears of “geo-corporate” control? Possibly, but, at the very least, that’s an “artificial” issue that can, in theory, be solved. Ultimately, if we do things right, scarcity would only apply to materials that were truly rare, and by avoiding their use, we become less vulnerable.

Leave a Reply

featured blogs
Apr 25, 2024
Structures in Allegro X layout editors let you create reusable building blocks for your PCBs, saving you time and ensuring consistency. What are Structures? Structures are pre-defined groups of design objects, such as vias, connecting lines (clines), and shapes. You can combi...
Apr 25, 2024
See how the UCIe protocol creates multi-die chips by connecting chiplets from different vendors and nodes, and learn about the role of IP and specifications.The post Want to Mix and Match Dies in a Single Package? UCIe Can Get You There appeared first on Chip Design....
Apr 18, 2024
Are you ready for a revolution in robotic technology (as opposed to a robotic revolution, of course)?...

featured video

How MediaTek Optimizes SI Design with Cadence Optimality Explorer and Clarity 3D Solver

Sponsored by Cadence Design Systems

In the era of 5G/6G communication, signal integrity (SI) design considerations are important in high-speed interface design. MediaTek’s design process usually relies on human intuition, but with Cadence’s Optimality Intelligent System Explorer and Clarity 3D Solver, they’ve increased design productivity by 75X. The Optimality Explorer’s AI technology not only improves productivity, but also provides helpful insights and answers.

Learn how MediaTek uses Cadence tools in SI design

featured paper

Designing Robust 5G Power Amplifiers for the Real World

Sponsored by Keysight

Simulating 5G power amplifier (PA) designs at the component and system levels with authentic modulation and high-fidelity behavioral models increases predictability, lowers risk, and shrinks schedules. Simulation software enables multi-technology layout and multi-domain analysis, evaluating the impacts of 5G PA design choices while delivering accurate results in a single virtual workspace. This application note delves into how authentic modulation enhances predictability and performance in 5G millimeter-wave systems.

Download now to revolutionize your design process.

featured chalk talk

Intel AI Update
Sponsored by Mouser Electronics and Intel
In this episode of Chalk Talk, Amelia Dalton and Peter Tea from Intel explore how Intel is making AI implementation easier than ever before. They examine the typical workflows involved in artificial intelligence designs, the benefits that Intel’s scalable Xeon processor brings to AI projects, and how you can take advantage of the Intel AI ecosystem to further innovation in your next design.
Oct 6, 2023
25,811 views