Oregon State University to Move Forward with Wave Energy Project

On Monday, March 1, federal energy regulators gave Oregon State University permission to move forward with an offshore wave energy testing facility.

The PacWave South project is meant to further the development of wave energy technology, which uses the motion of water and currents to produce electricity. Waves off the coast of Oregon have been discovered to have a much higher wave energy generation potential than nearby California or Washington, at least by coastal area. The Oregon Department of Energy estimates that the near-shore waves could eventually be able to generate power for 28 million homes every year.

Wave energy testing facility

The university project must pass a final review period before it can begin construction, but it has already received a license from the Federal Energy Regulatory Commission. “It’s huge,” said Burke Hales, the OSU project’s chief scientist. “It’s the first license of its type to be issued in the United States.”

According to the project’s website, PacWave South will be a wave energy test facility that is grid-connected, accredited, and pre-permitted. Because the entire regulatory process is being done before construction starts, it will be ready to test all expected types of wave energy devices, save millions of dollars, and allow development and optimization of those designs to move more quickly.

The construction will cover two square nautical miles of ocean and include four ocean berths connected to shore by a 7-mile cable route. Infrastructure will include data cables, electric cables, and a grid connection station on land, giving companies easy and immediate access to the wave energy converters. Across its four berths, it will be able to test different technologies simultaneously, and it has space for up to 20 devices.

Oregon State University is developing the project with the U.S. Department of Energy, the State of Oregon, and local stakeholders.

“We hope to be moving forward this summer with groundbreaking for building our shoreside facility,” said Hales. He also said that the underground and sub-surface work for running transmission lines should begin this year, also. They aim to begin installing the test facility’s offshore components in 2022.

About the Author

Matt Jones is senior editor of Spaces4Learning. He can be reached at [email protected].

Featured

  • Architectural Power for the Modern Campus Landscape

    For generations, an outdoor classroom only required a textbook and a patch of grass. Today, not only has the laptop replaced the printed pages, the rise of agile learning has turned campuses into study halls with students listening to lectures and researching topics from quads, gardens, and plazas. The challenge for architects and facility managers is to provide connectivity without cluttering the landscape with visual eyesores or creating safety hazards with extension cords.

  • GeoCam and UCLA: Modernizing Campus Accessibility Mapping

    In early 2025, UCLA partnered with GeoCam to capture and modernize its pedestrian infrastructure data. The goal was ambitious but clear: to produce a high-accuracy, imagery-backed digital map of every sidewalk, pathway, ramp, and ADA-related feature on UCLA’s 419-acre campus.

  • Girl Sitting at Library Desk, Using Laptop

    How Campus Design Shapes the Finals Week Experience

    Academic performance is not just about preparation. It is closely tied to how students manage stress, maintain their energy, and shift between work and recovery modes. Much of that is influenced, directly or indirectly, by design.

  • Children walking along bright school corridor with motion blur

    How Next-Gen Design Is Reshaping the Student Experience

    The environments where students learn play a crucial role in shaping their growth in and out of the classroom. By centering design on well-being, flexibility, and purpose, districts can ensure their facilities remain vibrant community assets for many years to come.