ASM

Traditional scaling has taken the semiconductor industry a long way. But as device architectures become increasingly complex, the future of patterning will be defined by purpose-built materials. ASM Flowable Carbon marks a new era of materials discovery, helping tackle the growing patterning challenges associated with logic and memory scaling. Learn how innovation in materials is shaping the next generation of semiconductor manufacturing in this blog from Kyle Campbell. 🔗 Read the blog : https://lnkd.in/epiBrNqi

For 60 years, we’ve pushed the boundaries of what materials can do. Now, we’re taking another step forward. Meet ASM XP8® Vertos™ Flowable Carbon: the market’s first plasma-enhanced chemical vapor deposition (PECVD) flowable carbon film. While conventional carbon films were not designed for modern 3D architecture demands, Vertos™ Flowable Carbon combines gap fill and planarization in a single PECVD process, reducing process complexity, improving topography control, and enabling 3D scaling. As semiconductor scaling continues, materials innovation is as critical as architectural design. This next-gen patterning solution will shape what comes next. Discover more about what’s next in materials innovation https://lnkd.in/geAmNtgC

Ever wondered what it’s like to work at the forefront of semiconductor innovation? We are kicking off a new series featuring ASM locations around the globe. First up: Korea. Our teams across Korea are driving performance in advanced processes and materials engineering. If you're passionate about precision engineering and solving complex technical challenges, we have a spot for you. 🔗 Discover ASM in Korea : https://lnkd.in/eevCZg36 ✨ Stay tuned, we’re featuring a new market next week!

Over the past few months, ASMers in Korea, Taiwan, the US and the Netherlands came together to help tell our story. Real people. Real workplaces. Real connections. It's a celebration of the curiosity, collaboration, and ambition that defines ASM. The people who ask bigger questions solve complex challenges and turn possibilities into reality every day. Because progress doesn't start with technology. It starts with us. ASM. Where possibility becomes reality. https://lnkd.in/eYfzEs6U 🎬 Watch the video to see our teams in action!

More AI. More compute. More scaling challenges. That's where materials innovation comes in. At ASM, we engineer the Angstrom-level layers powering advanced logic and memory- keeping semiconductor scaling move forward. From atoms to AI.

At SEMICON Taiwan, ASM experts Abhudaya Mishra and Angada Sachid explored how mastery of materials is helping the industry address the growing scaling challenge driven by the AI hypercycle. Couldn't make the session? Discover the key insights from the discussion, including perspectives on some of the industry's most pressing questions, in our latest blog article: https://lnkd.in/gmgD-rZD

Breakthroughs start at the atomic level. At ASM, we engineer the materials behind AI, clean energy and next-generation devices and we’re looking for the minds who will take us further. We’re heading to a range of recruitment events this season. If you’re ready to work on challenges measured in atoms but felt around the world, come and meet us. Your next breakthrough starts here.  Join us: https://lnkd.in/gySE6Y3F

In 2011, the path to FinFET wasn't guaranteed. ASM enabled the transition with materials innovation and atomic-scale precision, helping make the next generation of powerful, efficient chips possible. When lithography reaches its limits, materials redefine what's possible.

More layers. More performance. More problems? Put your semiconductor knowledge to the test and see if you can guess what's standing in the way of next-gen 3D logic. Swipe through the clues to solve the puzzle—and see how advanced materials are helping overcome it ➡️

2007 changed semiconductor history forever. When transistor scaling needed a reset,  ASM delivered—turning breakthrough precursor chemistry into high-volume manufacturing reality. Today’s AI and cloud infrastructure run on modern computing. Modern computing runs on materials engineered at the atomic level. Materials define progress.