The Lead Off University of Michigan researchers are testing wave energy devices off Beaver Island to explore new ways to improve local power reliability. The project aims to convert Great Lakes wave motion into electricity for remote communities that rely on mainland-connected power systems. The de monstration is part of ongoing research and community collaboration to develop cleaner energy options. BEAVER ISLAND, MICH. (WOWO) Researchers from the University of Michigan are testing experimental devices designed to convert wave energy into electricity off the shores of Beaver Island, part of a broader effort to improve power reliability for the island’s residents. The project involves prototype systems designed to capture energy from Great Lakes waves and convert it into usable electricity for remote communities. Research targets island power reliability The devices are being evaluated as part of an effort to address frequent power disruptions on Beaver Island, which has a population of about 600 permanent residents. Electricity for the island is currently supplied from the mainland through underwater cables and diesel generators, systems that can be vulnerable during severe weather events. Researchers say the goal is to explore alternative energy sources that could supplement or improve reliability for critical infrastructure, including emergency services. Community input shaped design University of Michigan engineering professor Lei Zuo, who leads the project, said residents played a direct role in shaping the design of the wave energy converters. “We need to work with the community together to identify the need and design together with them,” Zuo said. Residents indicated a particular interest in improving power reliability for essential services such as the island’s airport, especially during emergencies according to Bridge Michigan. Prototype testing underway The experimental devices resemble small floating structures built with lightweight framing materials. Researchers say the current demonstration phase is intended to gather data and public feedback before refining the design. Saied Bayat, a member of the research team, said wave energy technology remains in an early stage of development and lacks standardized designs. He noted that while the Great Lakes produce smaller and more seasonal waves than oceans, they provide a practical testing environment for early-stage systems. “The Great Lakes provide real-world wave conditions while being much easier, safer, and less expensive to access than most ocean sites,” Bayat said. Interest in renewable and local energy Some Beaver Island residents have already adopted renewable systems such as solar and geothermal energy, according to community members. Local interest in energy independence has grown alongside concerns about outages and reliance on mainland infrastructure. Researchers say community engagement is central to evaluating whether wave energy could become part of a broader hybrid energy system for the island. Next steps in research Following the demonstration, University of Michigan researchers plan to refine the prototype systems based on performance data and community feedback. The long-term goal is to develop a more advanced version of the technology that could potentially be deployed in future installations. The Takeaway Experimental energy project underway University of Michigan researchers are testing wave energy converters off Beaver Island to evaluate whether Great Lakes waves can help support local electricity needs. Focus on reliability and local input The project aims to improve power reliability for a small island community that currently depends on mainland transmission cables and backup diesel generation. Long-term development still ahead Researchers say the technology remains in an early stage, with additional testing, redesign, and community feedback planned before any full-scale deployment is considered. The post U-M Engineers Develop Wave Converters to Support Remote Michigan Island Power System appeared first on WOWO News/Talk 92.3 FM and 1190 AM. ...read more read less