Arizona State University Joins National Foundry School to Advance Workforce Development in Advanced Manufacturing

American manufacturing is entering a defining period. As the United States works to reshore the production of critical technologies—from microelectronics to aerospace components—the country faces a pressing question: who will build, run, and scale the factories of the future? The White House addressed that question head-on with the announcement of the Foundry School, a national initiative led by the U.S. Department of State in partnership with the U.S. Department of Labor. Among the eight universities selected to lead this effort is Arizona State University, a recognition of the institution’s deep infrastructure, industry ties, and proven record in workforce development.

For students, early-career engineers, and professionals considering a move into advanced manufacturing, this announcement carries real consequences. It signals where federal resources, industry attention, and educational investment are converging—and it opens concrete pathways into one of the USA’s most strategically important sectors. If you are evaluating engineering programs or considering a manufacturing career, now is the time to explore how Arizona State University and its peers are building the talent pipeline. Request more information about engineering and manufacturing programs to see whether this path fits your goals.

A National Effort to Prepare the Next Generation of Manufacturing Leaders

The Foundry School was announced in Washington, D.C., by Vice President J.D. Vance, with U.S. Secretary of State Marco Rubio and Under Secretary of State for Economic Affairs Jacob Helberg also participating in the launch. The initiative’s purpose is straightforward: develop and train the workforce America needs to prepare the next generation of entrepreneurs, engineers, inventors, and industrial leaders capable of building and operating advanced manufacturing enterprises.

Arizona State University joins Stanford University, The Ohio State University, Vanderbilt University, Washington University in St. Louis, Penn State, Georgia Tech, and the University of Kansas in leading the program. Stanford played a key role in shaping the Foundry School, drawing on its expertise in fabrication facilities, robotics research, and policy. Together, these eight institutions will translate industry expertise into education, embedding advanced manufacturing knowledge directly into curricula and workforce programs.

The federal government’s role is to expand the effort nationally by aligning resources, convening partners, and supporting workforce pathways. The universities, in turn, bring the academic depth and physical infrastructure required to train workers at scale—a combination that few countries can match across an entire higher education system.

Why Advanced Manufacturing Workforce Development Matters Now

The push to reshore manufacturing of critical technologies is not simply about factory floors. It is about sustaining an entire industrial ecosystem: the engineers who design products for manufacturability, the technicians who operate precision equipment, the supply chain specialists who manage global inputs, and the leaders who scale enterprises from prototype to mass production.

For decades, the USA offshored much of this capability. Rebuilding it requires more than capital investment. It requires people—thousands of them—trained in both the technical fundamentals and the operational realities of modern industry. That is the core challenge the Foundry School is designed to address, and it explains why workforce development has become a national priority rather than a regional concern.

ASU President Michael Crow, who joined the vice president and other university presidents at the announcement, framed the stakes clearly: “This is about universities and industry working together to accelerate all things associated with enhancing workforce preparation, enhancement, and competitiveness.” He added that Arizona State University was asked to participate to help ensure the United States continues to lead the economy of the future.

For prospective students, the message is equally clear. The skills that industries need most—automation, precision production, systems thinking—are the ones this initiative is built to teach, and demand for them is only growing.

What Students Will Learn Inside the Foundry School

One of the most distinctive features of the Foundry School is who does the teaching. Across the eight participating universities, the program will run 17 sessions, each led by founders and CEOs from advanced manufacturing enterprises. These are practitioners who have built and scaled industrial companies, not only studied them.

The instructor pool is deliberately international. Leaders will be drawn from the United States, the Republic of Korea, Japan, Taiwan, and India—countries that anchor the global advanced manufacturing landscape. Students will gain exposure to different industrial cultures, production philosophies, and market dynamics, which is invaluable preparation for careers in globally integrated supply chains.

Core Topics: From Materials to Factory Economics

The curriculum covers the full arc of what it takes to build and operate a manufacturing enterprise, including:

• Materials science and selection — understanding how material choices cascade through design, tooling, and yield.
• Precision production — the processes and tolerances that separate working prototypes from reliable mass production.
• Automation and robotics — the technologies transforming factory floors and the skills needed to deploy them.
• Supply chains — managing the complex global networks that feed modern production.
• Factory economics — the financial realities of running facilities at scale.
• Industrial leadership — the management and entrepreneurial skills required to grow companies.

Kyle Squires, dean of ASU’s Ira A. Fulton Schools of Engineering, captured why this practitioner-led model matters: “Decisions made early in a design show up much later, in tooling, in yield, and in whether a product can be manufactured at scale. Teaching engineers to see that whole system is what our faculty do, and this partnership puts our students and emerging builders alongside the practitioners who solve those problems for a living.”

Arizona State University’s Role in the National Initiative

Arizona State University was selected for this national effort because of what it has already built. The university brings critical infrastructure—both physical and human—combined with proven industry partnerships capable of producing a manufacturing workforce at scale. ASU training programs are already moving workers directly into fabrication roles, and its facilities and faculty expertise anchor several federally funded programs focused on reshoring critical technologies.

“We have all kinds of initiatives already underway at ASU,” Crow noted. “We are deeply engaged in work related to training, to special R&D advancement, to advanced manufacturing, and to teaching, learning, and discovery activities with industry. ASU is built for this assignment.”

The initiative also gives the Ira A. Fulton Schools of Engineering an opportunity to extend its expertise in engineering education and research into a national workforce development mission. Nearly all of the Fulton Schools’ programs feed directly into the technologies and workforce that reshoring depends on.

The Scale of the Ira A. Fulton Schools of Engineering

The Fulton Schools is the largest engineering school in the country, with nearly 33,000 students. Size matters here: it means the university can absorb national-scale training demands in a way smaller programs cannot. It also means students join a large, active community of peers, clubs, competitions, and industry recruiters.

The results show up in employment outcomes. Arizona State University ranks No. 2 among U.S. public universities—and within the top 15 nationally—for graduate employability according to the Global Employability University Ranking and Survey. Employers cite ASU graduates’ practical skills, digital literacy, and job readiness as differentiators.

ISTB12: A Working Laboratory for Manufacturing Careers

The clearest physical expression of ASU’s manufacturing commitment is Interdisciplinary Science and Technology Building 12 (ISTB12), a 173,000-square-foot facility on the Polytechnic campus in Mesa, Arizona. The building is home to the School of Manufacturing Systems and Networks and functions as a collaborative hub where students and industry work side by side.

Students train in the facility with skills that transfer across aerospace, microelectronics, medical devices, energy, and beyond. Rather than learning manufacturing as an abstraction, they work with the same categories of equipment and systems they will encounter in industry—a key reason ASU graduates move into fabrication roles quickly.

If hands-on facilities like ISTB12 align with how you want to learn, consider scheduling a campus visit or attending a virtual information session to see the environment for yourself.

Career Outcomes in Advanced Manufacturing

Students and professionals often ask what careers advanced manufacturing actually leads to. The answer spans far more than traditional factory work:

• Manufacturing and process engineers who design and optimize production systems.
• Automation and robotics specialists who implement and maintain intelligent equipment.
• Supply chain and operations analysts who keep complex production networks running.
• Quality and nondestructive testing professionals who ensure products meet demanding standards.
• Founders and industrial entrepreneurs who build new manufacturing enterprises from the ground up.

The Foundry School’s emphasis on factory economics and industrial leadership reflects an important insight: the country does not only need employees for existing companies. It needs people capable of creating the next generation of them. That entrepreneurial dimension distinguishes this initiative from conventional workforce training.

For mid-career professionals, the initiative also matters. Reshoring creates demand for people who combine industry experience with updated technical knowledge in automation, materials, and production systems. Workforce pathways supported by the Department of Labor are designed to move workers into these roles efficiently.

How Prospective Students Can Prepare

If the Foundry School’s mission resonates with you, there are practical steps to take now:

1. Build quantitative and systems foundations. Coursework in mathematics, physics, and computer science remains the entry point to engineering programs.
2. Seek hands-on experience early. Robotics teams, maker spaces, and internship programs demonstrate the practical orientation manufacturers value.
3. Research programs with direct industry integration. Look for curricula connected to working facilities, corporate partnerships, and practitioner instruction—exactly the model the Foundry School formalizes.
4. Think in terms of systems. As Dean Squires emphasized, the engineers who thrive are the ones who see how design decisions ripple through tooling, yield, and scale.

Have questions about which program or pathway fits your background? Reach out through the university’s admissions channels—an advisor can help you map your options.

Turning a National Ambition into Individual Opportunity

Large national initiatives can feel abstract from the outside. But the Foundry School’s structure makes its promise concrete: students taught by founders and CEOs, curricula shaped by practitioners, and a direct line from education into an industry the federal government has identified as strategically essential. The goal, as the announcement made clear, is to turn the resurgence of American manufacturing into an enduring capability—by developing a workforce equipped with both technical knowledge and an understanding of how advanced industrial enterprises are built, operated, and scaled.

For Arizona State University students, that means learning inside one of the nation’s most advanced manufacturing education environments. For prospective students elsewhere, it means the model is being replicated across a network of leading universities. And for the USA, it means the people required to lead the next era of industrial production are being identified and trained now.

Are you considering a career in advanced manufacturing or engineering? Share your questions and experiences in the comments below, and explore our related articles on engineering education and manufacturing careers to continue your research.