As the federal government invests heavily in domestic technology manufacturing, the University of Minnesota named its first-ever chief semiconductor officer in May.
The university is taking the action to help companies and public agencies compete for funding from the Creating Helpful Incentives to Produce Semiconductors (CHIPS) and Science Act and help Minnesota retain resiliency in the microelectronics industry.
Semiconductors conduct electricity and are essential components in electronic devices like mobile phones and computers. Manufacturers in East Asia dominate the industry, but the CHIPS program aims to make the U.S. more globally relevant and strengthen domestic supply chains. Because semiconductors are also integral to aerospace and defense projects, many feel having better local access to the technology is essential to national security.
Steven Koester, a professor in the university’s department of electrical and computing engineering, is doing extensive research that could change the semiconductor industry. Koester joined the university in 2010 and has been the director of the Minnesota Nano Center since 2021. In an interview edited for clarity and length, he discussed his work and its significance to the economy.
Why is this important for the University of Minnesota?
It’s important because I think there needs to be some high-level coordination for all of the semiconductor innovation that’s happening, both at the university and in the entire state of Minnesota. The Twin Cities has a huge amount of semiconductors here. We can grow as a semiconductor hub.
The CHIPS and Science Act has a significant amount of funds that’s intending to boost both domestic semiconductor manufacturing and R&D in the United States. So there’s a lot of funding opportunities. It’s seeding a lot of activity.
My position is intended to really try to provide that kind of coordination between academia, industry, state and federal governments to try to enhance the ecosystem that we have here in Minnesota.
Can you explain what you’re working on?
My current research is in advanced semiconductor devices. We’re working on making transistors [semiconductor components that control electrical voltage] that can be made smaller than traditional transistors now. If you can make transistors smaller you can fit more of them on a chip. We’re working with advanced materials that will allow kind of the ultimate scaling of semiconductor chips.