Engineering

The University of San Diego broke ground in May of 2026 on the Shiley STEM Initiative Building to drive excellence in education and research. Designed by Gensler, the 70,000-sf facility will feature labs for biomedical engineering, robotics, neuroscience, and food science, as well as a medical device lab for prototype development. Flexible instructional venues will be accompanied by teaching labs, maker spaces, and a lecture auditorium. 

The University of West Florida broke ground in April of 2026 on an advanced intelligence, cybersecurity, and engineering research facility in Pensacola. Building 129, also known as the Synapse, was designed by Caldwell Architects and Perkins&Will to serve as the base for the Center for Computational Intelligence and the Center for Cybersecurity and AI.

Harwell's 70,000-sf speculative laboratory complex at its Science and Innovation Campus in the United Kingdom reached practical completion in May of 2026. Designed by Scott Brownrigg, Tech Foundry 3 comprises six mid-tech units ranging upwards in size from 5,800 sf that can accommodate advanced and industrial manufacturing settings, R&D space, and both wet and dry laboratories. These flexible, self-contained units offer private entrances, grade-level access loading doors, and a minimum clear internal height of 32 feet.

The University of California, Berkeley held a ribbon-cutting ceremony in May of 2026 to celebrate the approaching completion of the Barbara and Gerson Bakar Gateway building. The $557 million facility will house the College of Computing, Data Science, and Society (CDSS) and bring together approximately 1,325 faculty, students, and staff to elevate education and accelerate AI-driven discovery.

The Auburn Research and Technology Foundation (ARTF) broke ground in April of 2026 on a $22 million facility for Auburn University's RFID Lab in Alabama. The 100,000-sf building was designed by Goodwyn Mills Cawood to meet the growing demands of innovation, research, and collaboration in advancing the development of radio frequency identification technologies.

The landscape of academic research has shifted dramatically over the past three decades. Where scientists once worked within single disciplines, today’s researchers tackle complex societal challenges demanding collaboration across multiple fields, and the development of partnerships with private industries addressing the same issues. This evolution has fundamentally changed the approach to research facility design, requiring unique considerations for buildings whose users may not yet be identified and whose research hasn’t been imagined. As a result, the design process has become more cyclical, with fewer known variables upfront, requiring uncertainty management while still delivering buildings that will serve institutions for decades to come.

Ford Motor Company is planning to repurpose its former Product Development Center as part of the 3.3 million-sf World Headquarters Complex in Dearborn, Mich. The transformed facility, to be known as World Headquarters South, will provide a modern workplace for 5,000 employees. Existing studios will be converted into flexible, double-height environments accommodating laboratories, vehicle testing operations, and prototyping. 

Texas A&M University broke ground in April of 2026 on the Texas A&M Semiconductor Institute on the RELLIS campus in Bryan. Designed by Stantec, the $226 million research and development building aims to elevate regional leadership in the industry and advance next-generation discoveries. The collaborative 80,000-sf structure will feature Class 100 and 1000 cleanrooms modeled after fabrication facilities to enable full-scale production.

The University of Texas at San Antonio opened San Pedro II in April of 2026 in the city’s downtown technology corridor to fuel innovation, education, and research. Designed by Gensler and OVERLAND Partners, the $131 million facility features flexible and reconfigurable spaces for the College of AI, Cyber and Computing, including classrooms, teaching labs, and meeting areas.

The University of Michigan is constructing the Center for Innovation in Detroit to accelerate technology-focused research and train the next generation of skilled workers. Designed by KPF, the $250 million facility will act as a powerful engine for job creation and inclusive talent development by accommodating both degree-based offerings and instructional courses for non-students in a range of fields.

Clemson University opened the Advanced Materials Innovation Complex in February of 2026 in Clemson, S.C. The $130 million building is the university's most technologically advanced facility to date and will enable the workforce of the future to gain hands-on experience in next-generation manufacturing processes.

To maximize scientific synergies and encourage innovation, The Sherwin-Williams Company made the decision to combine two of its largest R&D organizations into a new global R&D center in Brecksville, Ohio. The 600,000-sf facility, named the Morikis Global Technology Center, began hosting some 900 Sherwin-Williams employees—including chemists, engineers, technicians, and support teams—upon opening in December 2025. One of the big goals is to take people from disparate business units that have been historically scattered across multiple buildings and bring them together into a space designed to maximize collaboration and spark creativity.

The University of Victoria is expanding the footprint of the Department of Engineering and Computer Science (ECS) with two highly sustainable facilities. The CAD 89.6 million project includes the construction of a six-story addition to the ECS building to provide biomedical, geotechnical, materials, building science, and environmental and hydraulics labs. Featuring active learning venues and undergraduate design studios, the development will also house graduate student workstations, faculty collaboration spaces, computer labs, and departmental offices.

The 1,235-acre University of Maryland (UMD) campus in College Park sits just eight miles from the nation’s capital. Founded in 1856 as a land-grant institution, the university offers 300 degree programs through 12 colleges serving 41,000 students and—together with the University of Maryland, Baltimore—has $1.4 billion in sponsored research expenditures. Over the past decade, the school has experienced many shifts, including joining the Big Ten Conference and receiving its largest donation in university history.

In a higher education landscape facing shifting enrollment trends, rising costs, and an uncertain future, institutions must rethink how they use their physical spaces—not just as real estate, but as engines of purpose. And rather than traditional return on investment (ROI), they should employ “Return on Mission” to evaluate their success rather than metrics like net-to-gross ratios, utilization rates, and physical occupancy to assess their spaces. Relying solely on ROI falls short of capturing what truly matters: the activity inside the space and the value it generates.