Corintis
Elison Matioli is a leading expert in electrical engineering with significant contributions in semiconductor technologies and electronic chip cooling. Currently serving as Co-Founder at Corintis since January 2022, Elison leads initiatives for advanced cooling solutions. As an Associate Professor at EPFL since 2015, Elison directs the POWERlab, focusing on power and RF electronics as well as thermal management. Previous experience includes a postdoctoral researcher role at the Massachusetts Institute of Technology, specializing in GaN semiconductors for power electronics, and a postdoctoral associate position at UC Santa Barbara, concentrating on GaN opto-electronic devices. Elison Matioli holds a Ph.D. in Materials Science from UC Santa Barbara, a Postdoctoral degree in Electrical and Electronics Engineering from MIT, a Bachelor's degree in Applied Physics and Mathematics from École Polytechnique, and a B.S. in Electrical Engineering from Universidade de São Paulo.
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Corintis
The biggest challenges of our lifetime, from climate change modeling to drug discovery, constantly require more computing power. For decades, chipmakers relied on making transistors in integrated circuits smaller, and packing more of them together, to achieve more powerful and efficient chips. However, all power that goes into these billions of transistors is turned into heat. This heat needs to be extracted, as overheating causes chips to fail and lose performance. With transistors approaching the size of a few atoms, extracting this highly concentrated heat is rapidly becoming a bottleneck for the next generations of computing. In addition, cooling of chips accounts for about 30% of electricity consumption in data centers, causing an enormous environmental footprint. Sustainable and high-performance heat extraction is key to satisfy our ever-increasing demand for computational power. We are a provider of breakthrough semiconductor cooling solutions. Our solution utilizes a network of microscopically small cooling channels embedded inside the chip, which enables us to extract 10 times more heat compared to the current leading market alternatives, and extract this heat over 50x more energy efficiently. This enables the powerful integrated circuits of the future to break thermal limitations in a sustainable manner.