Eagle Scales Ohio Car Modules, but Licensed Design Leaves 2030 Gap
Eagle Wireless is scaling production of vehicle-connectivity modules at its Solon, Ohio, plant, Reuters reported July 21, with an annualized rate of about 2 million units expected by the end of the third quarter. The expansion addresses automakers’ need for new U.S.-market suppliers before federal hardware restrictions reach model-year 2030 vehicles. However, Eagle’s current module design is licensed from China-based Quectel Wireless Solutions, leaving the company with a critical engineering task: develop, validate and industrialize proprietary replacement technology that falls outside the restricted supply chain.
The Commerce Department’s connected-vehicle rule, adopted in January 2025, phases in restrictions for covered Chinese and Russian technology. Covered connectivity and automated-driving software is prohibited beginning with model-year 2027 vehicles, while restrictions on covered vehicle-connectivity hardware begin with model-year 2030 vehicles. Hardware not associated with a model year reaches its cutoff on January 1, 2029.
For Eagle, domestic assembly is only one part of that compliance problem. The rule covers relevant hardware designed, developed, manufactured or supplied by entities linked to China or Russia. Moving circuit-board production to Ohio therefore does not by itself remove a Chinese design origin. Eagle must replace the licensed Quectel architecture with its own technology before that design can serve affected model-year 2030 vehicle programs without relying on an authorization.
Production capacity does not equal a qualified automotive component
Eagle, formed in late 2025 with about 140 employees, aims to employ 1,000 people within three years. It also plans a nearby facility with more capacity for automotive-connectivity modules. At Solon, its manufacturing flow includes sorting components, placing them on circuit boards, processing assemblies through an oven, engraving serial numbers, conducting quality inspections and packaging finished modules robotically.
Those operations can provide useful manufacturing control and serial-level traceability, but automakers still have to qualify the resulting product. A connectivity module is not a stand-alone consumer radio. It must work with vehicle power, data and thermal requirements while communicating reliably with other electronic systems and external networks. Eagle says it is trying to make its proprietary substitute adoptable without major integration problems, an important constraint because extensive electrical or software changes can add validation work and disrupt vehicle-development schedules.
The federal definition also reaches more than a cellular modem. Covered vehicle-connectivity hardware can include telematics control units, modems, antennas and directly connected components that enable off-board communications. Matt Wyckhouse, CEO of supply-chain security company Finite State, identified satellite-communication systems, external antennas and microcontrollers enabling external vehicle communications among the affected hardware. That breadth requires suppliers and automakers to examine component origins below the final module level.
Traceability becomes a product requirement
Commerce requires importers and connected-vehicle manufacturers to make declarations of conformity and maintain supporting due-diligence records. The final rule removed a proposed requirement to routinely submit complete hardware and software bills of materials, but companies must still retain documentation and make it available when requested. Suppliers may support those declarations with third-party certifications, placing practical importance on documented design ownership, component provenance and change control.
Hilary Cain of the Alliance for Automotive Innovation said compliance “requires a deep examination of supply chains and aggressive compliance timelines.” That timeline is especially relevant because model-year 2030 sourcing decisions will be made well before vehicles reach showrooms. A proprietary design must pass engineering validation, supplier qualification and production ramp-up early enough to enter an automaker’s development cycle.
Scale and cost remain separate constraints. Chinese vendors account for nearly half of global automotive cellular Internet-of-Things module shipments, according to Counterpoint Research, giving established suppliers significant purchasing and manufacturing leverage. Eagle estimates that its modules currently cost 5% to 15% more than Chinese alternatives. Reducing that premium while adding engineers, developing new intellectual property and expanding capacity will test whether domestic production can become commercially sustainable rather than merely available.
Eagle has not disclosed a timetable for completing and validating its proprietary design, and the applicable certification path remains unresolved. Its Ohio expansion is therefore meaningful capacity preparation, not confirmation of full regulatory readiness. The engineering milestone that matters is not the first 2 million-module production rate; it is a traceable, proprietary module that automakers can integrate, validate and purchase at acceptable cost before their model-year 2030 designs are locked.
By Robert McKinney — Editor-in-Chief for AMI’s automotive and mobility coverage, with a mechanical engineering background and a decade reporting on powertrain systems, EV innovation, and global vehicle manufacturing.
