Beyond Reach Labs Opens Brooklyn Factory to Scale Megawatt-Class Orbital Solar Arrays

The commercialization of low Earth orbit hinges on a strict mass-to-power ratio: private space stations and orbital data centers require megawatt-level electricity, but the launch vehicles carrying their infrastructure cannot accommodate the sheer weight of legacy solar panels needed to generate it. That constraint is the target of a new 16,000-square-foot manufacturing facility opened this week in Brooklyn by aerospace startup Beyond Reach Labs. Operating out of the Industry City complex, the Y Combinator-backed company has begun scaling production on deployable solar arrays engineered to generate ten times the power of standard orbital systems while remaining compact enough to fit inside standard payload fairings.[1][2][4]

The facility represents a localized shift in aerospace manufacturing, bringing heavy orbital hardware production to New York's waterfront. The Industry City headquarters will serve as the primary assembly line for the company's "solar wings"—structures designed to fold tightly for launch and expand autonomously in orbit to the size of a football field. By utilizing advanced flexible photovoltaics and novel deployment mechanisms, the arrays bypass the rigid structural limitations that have historically capped orbital power generation.[2][4][6]

The timing aligns with a critical transition phase in the space economy. With the International Space Station slated for retirement in 2030, a coalition of private aerospace firms is racing to deploy commercial successors. These next-generation habitats, alongside proposed orbital data centers designed to process satellite imagery and run artificial intelligence models in space, demand unprecedented energy budgets. Legacy rigid panels, which max out at roughly 20 to 30 kilowatts per array, are insufficient for facilities requiring hundreds of kilowatts to operate safely.[1][3]

Beyond Reach Labs claims its architecture solves this bottleneck by dramatically increasing the specific power—measured in watts per kilogram—of the deployed system. While the company heavily markets the "football field" size of its future arrays, the immediate reality is a 16,000-square-foot Brooklyn factory equipped to manufacture modular units for ground testing. The facility allows engineers to conduct full-scale deployment trials, a necessary step before proving the hardware can actually survive the vacuum of space.[2][4][6]

"We are building the power grid for the next era of space infrastructure," the company noted in its launch materials, deploying standard startup framing to emphasize that the bottleneck for orbital development is shifting from launch capacity to energy generation. The Industry City location was selected for its proximity to engineering talent and deep-water shipping logistics, reviving a legacy of heavy manufacturing in the Sunset Park neighborhood.[4][5]

The startup's approach reflects a broader industry pivot toward deployable, flexible structures. Traditional space solar arrays rely on rigid composite panels covered in fragile glass cells, which are heavy and prone to deployment failures. By transitioning to thin-film solar materials unspooled from central masts, Beyond Reach Labs reduces the stowed volume by an order of magnitude. This allows launch providers to dedicate more of their payload mass to the actual space station modules or computing hardware, rather than the power systems required to run them.[3][6]

Scaling production from prototype to flight-ready hardware introduces rigorous quality control hurdles that the startup has yet to clear at scale. The Brooklyn facility must maintain strict cleanroom standards to prevent particulate contamination, which can degrade solar cell efficiency or jam the delicate mechanical actuators responsible for unspooling the arrays in zero gravity. The company expects the factory to reach full operational capacity by late 2026, meaning actual orbital deployment remains years away.[1][2]

If successful, the high-yield arrays could fundamentally alter the economics of orbital operations. Power abundance in space enables energy-intensive applications that are currently impossible, such as large-scale orbital manufacturing, continuous high-bandwidth laser communications, and edge computing for Earth observation constellations. The Industry City assembly line is the first physical footprint dedicated entirely to ensuring those future platforms have the electricity required to keep their lights on.[3][4]