Interconnected gears and circuits on a blue grid background.

Advanced Manufacturing

From the Midwest’s high-tech hub and the nation’s industrial heart, University of Michigan Engineering is leading research, education and industry collaboration to reinvent how America designs, makes and scales advanced technologies.

We’re working to deliver on the promise of Industry 4.0, develop partnerships to advance Industry 5.0, and pioneer efforts to define Industry 6.0 and beyond. Our efforts align with nonpartisan priorities to develop resilient supply chains, strengthen national competitiveness and protect national security.

Michigan Engineering’s unparalleled breadth and state-of-the-art facilities are part of an expansive manufacturing R&D and workforce ecosystem that bridges the gaps between design, lab-bench and industrial-scale. We have world-class expertise in mechanical, industrial, and biomedical engineering as well as robotics, materials science, naval architecture and more. Across campus, we collaborate with other leading U-M programs such as business and medicine. Our Battery Lab hosts the nation’s highest-capacity university-based pilot line. Through our new U-M Advanced Manufacturing Institute, we’re integrating these strengths to pioneer a modernized model for manufacturing innovation and impact. Through our new U-M Advanced Manufacturing Institute, we’re integrating these strengths to pioneer a modernized model for manufacturing innovation and impact.

Today we’re unlocking the potential of 3D printing with design-for-additive manufacturing approaches and new additive manufacturing process technologies. We’re deepening integration of AI, robotics and computational science to streamline smart factories and supply chains. We’re expanding human capabilities—honing ergonomics and human-autonomy systems as we work toward a ‘cognitive manufacturing’ future where specialized, adaptive AI teammates act as partners and can lead in decision making.

The University of Michigan’s leadership in manufacturing stretches back more than a century. In 1921, U-M established the nation’s first Department of Production Engineering, founded by Orlan W. Boston. His early work helped lay the scientific foundations of modern manufacturing—from machining processes like turning and milling to pioneering research on metal machinability. 

In the 1980s, the College launched the Center for Robotics and Integrated Manufacturing to help revitalize the state and nation’s industrial base. Bringing together six departments, the center united mathematics, control theory, and advanced statistics with manufacturing practice. Faculty including Yoram Koren, Sam Wu, and later Galip Ulsoy, Jack Hu and Jun Ni helped establish Michigan as a powerhouse in intelligent manufacturing systems. Their impact culminated in the NSF Engineering Research Center for Reconfigurable Manufacturing Systems—led by Koren— which transformed how engineers think about factory design and introduced modular, adaptable, scalable production lines. 

University of Michigan Engineering’s influence in advanced manufacturing extends to national policy as well. Sridhar Kota played a central role in shaping U.S. advanced manufacturing strategy during his tenure at the White House Office of Science and Technology Policy (2009–2012). He helped launch the Advanced Manufacturing Partnership and was the driving force behind the creation of what became Manufacturing USA—a national network of institutes designed to bridge the gap between research and production and strengthen domestic supply chains. Michigan Engineers led by Alan Taub launched one of the Manufacturing USA institutes, Lightweight Innovations For Tomorrow (LIFT) in Detroit. Over the past decade, LIFT has grown to 340 member organizations and helped train 250,000 students, including adult learners.

In 2022, Michigan Engineering launched the first  Robotics Department at a top-10 engineering school.

People in a workshop handling large equipment with a ceiling crane.

Open Manufacturing Lab
at 1100 HH Dow

Shared space with tools for advanced and conventional manufacturing plus a classroom.

A woman in a lab with robotic arms and components on a table.

SMART 4.0 Testbed

A “connected factory” of mobile robots, computer-controlled machines (CNCs), additive and subtractive processing and more.

A device with a plastic handle and a metal tip is held in a researcher’s hand in a lab space.

Biomedical Manufacturing and Design Lab

Leader in machining soft biomaterials, design and additive manufacturing of assistive devices and more.

A welding and trim cutting machine at the University of Michigan’s new Battery Lab facility, featuring complex machinery in a modern industrial assembly line with metallic components and spools.

U-M Battery Lab

User facility offering the highest-capacity pilot line at a US university. Open to industry and researchers for IP-protected, scalable cell prototyping.

Three people work on a remote-controlled airplane on a wooden table outdoors.

Model Based Systems Engineering Lab

For AERO students in our unique MBSE courses that include applying MBSE to manufacturing and feasible designs.

Individuals in cleanroom suits examining a circular piece of equipment in a lab setting.

Lurie Nanofabrication Facility

A world-class cleanroom for prototyping advanced semiconductor devices, including implantable medical devices and sensors.

A person wearing blue rubber gloves inspecting lab equipment in a technical setting.

Michigan Center for Materials Characterization

User facility with state-of-the-art instruments for micron and nanoscale imaging and materials analysis.

One man makes selections on the touch screen of the 3D printer while another peers into the glass case.

Fabrication Underground

A staffed prototyping studio and makerspace open to the U-M community, offering tools, 3D printers, a laser cutter, 3D scanners, and electronics workbenches.

A person using a flight simulator with multiple screens and a control wheel in a room.

Center for Ergonomics

 Distinguished in human factors engineering and ergonomics for 40 years. Founded by “the father of occupational biomechanics.

Two men standing in a laboratory setting with equipment and a yellow cabinet behind them.

U-M Advanced Manufacturing Institute

Integrating engineering, behavioral science and organizational design for human-centered, resilient and sustainable manufacturing.