There's a number that keeps space engineers awake at night: 10 gigawatts. That's how much power satellites might collectively demand by 2030, according to industry forecasts—a staggering 500-fold leap from today's roughly 20 megawatts. It's the kind of projection that sounds implausible until you consider what's driving it.
Jeff Bezos talks casually about data centers operating in orbit within two decades. NASA's Gateway station, planned for lunar orbit, will need 60-kilowatt solar arrays just to power its propulsion element. The Artemis program aims for permanent operations at the Moon's south pole, where any power system must endure two weeks of darkness at a stretch.
The hardware to make any of this real? It doesn't exist yet. Not at scale.
Which makes Beyond Reach Labs' pitch all the more audacious. The Carnegie Mellon spinout, fresh from Y Combinator's Winter 2026 batch, claims it can deploy solar arrays that unfurl from the size of a dining table to span a football field in orbit—generating ten times more usable power than conventional designs without adding launch mass or volume.
If that sounds too good to be true, you're thinking like most people in the space industry.
When Bigger Isn't Better
The International Space Station, humanity's most ambitious orbital outpost, generates just over 250 kilowatts after a series of Roll-Out Solar Array upgrades delivered by Redwire between 2021 and 2023. That represented a meaningful 20 to 30 percent power boost. For comparison, a single proposed orbital data center might require a gigawatt—nearly four times the ISS's entire output.
Current array technology wasn't designed for that kind of scale. And the physics of large space structures are unforgiving.
As solar arrays grow longer to capture more sunlight, their structural rigidity deteriorates. Low-frequency vibrations degrade spacecraft pointing accuracy, introducing jitter that can wreck precision optics or communications systems. NASA case histories document these control-structure interaction challenges across missions with large appendages. The solution historically has been to accept limits on array size or add active damping systems that consume power and mass—neither particularly elegant.
Conventional deployable arrays, whether Redwire's tensioned blanket designs or Northrop Grumman's umbrella-like UltraFlex architecture, achieve impressive power-to-weight ratios. But they all extend the same fundamental trade-off: longer means floppier.
Beyond Reach Labs claims to sidestep this constraint entirely, not through exotic materials but through geometry. The company builds on research from CMU's Robotic Exploration Lab—specifically two concepts with alphabet-soup names: Pop-Up Extending Trusses (PETS) and Hierarchical High-Expansion Ratio Deployable Structures (HERDS). The latter demonstrated a 50× expansion ratio in prototype form. Modeling suggests kilometer-scale structures are feasible.
The key, according to the company's website, is an architecture that "remains rigid at length," maintaining structural stiffness as arrays extend. How exactly this works remains proprietary.
The Pedigree Question
Mitchell Fogelson, Beyond Reach Labs' co-founder and CEO, pursued his PhD at Carnegie Mellon working on these kilometer-scale deployables. His co-founder, Pele Collins, spent seven years at SpaceX leading Dragon's parachute engineering and production, then moved to Commonwealth Fusion Systems—the kind of résumé that gets noticed in funding pitches.
The advisors add institutional weight: Tom Cooley, former chief scientist at both the Air Force Research Laboratory's Space Vehicles Directorate and SpaceWERX, and Zac Manchester, who runs CMU's Robotic Exploration Lab and holds faculty positions at MIT.
The company has secured roughly $200,000 in non-dilutive funding and teases an "announcement coming soon" on patented technology. Until peer-reviewed test results or a government demonstration contract materialize, the precise mechanism and performance data remain locked away. Power per kilogram, first-mode frequencies at full extension, deployment reliability—all the metrics that matter are proprietary.
Which is to say: we're still waiting for proof.
A Crowded Field
Beyond Reach Labs isn't entering empty territory. The space power systems market—covering solar panels, batteries, and distribution—is expected to grow from $2.63 billion in 2025 to $4.1 billion by 2030. Market forecasts for the solar panel and array segment alone vary wildly, from one analysis predicting $309 million in 2024 climbing to $1.05 billion by 2033, to another projecting $460 million in 2025 reaching $3.3 billion by 2035.
The variations reflect an industry in transition, where nobody quite knows which applications will scale fastest.
Redwire, through its Deployable Space Systems division, owns the ROSA franchise—arrays that combine composite booms with flexible blankets that unroll like party favors. Heritage includes ISS augmentation, NASA's DART asteroid-impact mission, and the first commercial deployment in geostationary orbit aboard Maxar's Ovzon-3 satellite in January 2024. NASA's Gateway will rely on 60-kilowatt ROSA wings, the most powerful roll-out arrays ever built, with delivery to Maxar targeted for late 2025.
Northrop Grumman's UltraFlex and MegaFlex arrays employ a different philosophy—fanfold architecture that resembles an umbrella made of solar cells. These systems have flown on Phoenix, InSight, Cygnus, and Orion missions, prioritizing compact stowage and reliability for deep-space environments.
Then there's the constellation play. Airbus secured an order for over 200 Sparkwing arrays to power MDA Space's AURORA and Telesat's Lightspeed constellation—a vote of confidence in standardized, off-the-shelf hardware that reduces engineering costs and lead times. Rocket Lab Space Systems introduced STARRAY in April 2025, another standardized line leveraging its SolAero acquisition. SolAero supplies advanced multi-junction cells—Z4J and Z4J+ variants achieving 31 to 33 percent efficiency at beginning-of-life.
Component manufacturers are scaling aggressively. Beyond Gravity, the Swiss mechanism maker formerly known as RUAG, expanded solar array drive mechanism production fivefold in 2025, jumping from 40 to 200 units annually. That's not speculative investment—it reflects confidence in multi-year order pipelines.
On the research frontier, things get more exotic. Ascent Solar's "Titan" copper indium gallium selenide (CIGS) module, announced in November 2023, targets 17.55 percent efficiency at roughly 2,100 watts per kilogram—potentially double the specific power of rigid arrays. Perovskite solar cells, long dismissed as too fragile for space radiation, have shown improving tolerance in studies published between 2024 and 2026, though flight-proven hardware remains years away.
Perhaps the most ambitious approach involves building structures in orbit. NASA's OSAM-2 mission would have demonstrated Redwire's Archinaut system 3D-printing structural beams and deploying arrays on orbit. The program was cancelled in 2023 before flight—a reminder that technical audacity and programmatic reality don't always align.
Why Now?
Several forces converge to make this moment feel different. Terrestrial data centers face an electricity crisis. U.S. facilities could consume 100 to 130 gigawatts by 2030, with rack densities approaching 100 to 300 kilowatts for AI workloads. Those pressures motivate alternative siting strategies—and space offers 24/7 solar illumination plus passive radiative cooling.
Launch costs, of course, remain daunting. And capital expenditure for orbital infrastructure makes even the most ambitious cloud deployments look modest.
Jeff Bezos's 10-to-20-year timeline for orbital data centers acknowledges both opportunity and obstacle. A single one-gigawatt facility would require arrays covering several square kilometers and radiators to reject equivalent thermal loads—vastly more hardware than has ever deployed from a single platform. If Beyond Reach Labs's 10× power density improvement holds up, it could shift the feasibility calculus considerably.
Lunar infrastructure presents different constraints. The south pole, targeted for sustained Artemis operations, endures roughly two weeks of darkness per month. Solar arrays must either store massive energy reserves or deploy at scales that capture oblique sunlight from multiple angles. Astrobotic's VOLT program envisions vertical solar arrays—one concept, VSAT-XL, stands 112 feet tall—forming a power grid for surface operations. The company displayed a prototype at Pittsburgh's Moonshot Museum in December 2024.
Regulatory frameworks are evolving alongside the technology. The FCC adopted a five-year deorbit rule for LEO satellites in September 2022, issuing its first enforcement action—a $150,000 fine against DISH—in October 2023. The U.S. In-Space Servicing, Assembly, and Manufacturing National Strategy, released in April 2022, encourages commercial procurement and standards development. NASA's COSMIC consortium, announced in April 2023, coordinates industry efforts.
Government interest in space-based solar power persists despite decades of false starts. The Air Force Research Laboratory's SSPIDR program explores solar-to-RF conversion tiles for power beaming, with the Arachne flight demonstration targeted for 2025. Caltech's Space Solar Power Project successfully demonstrated space-to-space wireless transmission and Earth detection aboard SSPD-1. ESA's SOLARIS concept targets an in-orbit demonstration around 2030, pending reassessment at the 2025 ministerial.
A 2025 King's College London-led study, reported by The Guardian in August, modeled scenarios where space-based solar could provide up to 80 percent of Europe's renewable energy by 2050. The costs and technical challenges, however, remain formidable. Perhaps more than proponents typically acknowledge.
Show Me the Hardware
Beyond Reach Labs positions itself at the intersection of several markets that barely exist yet: orbital data centers, commercial stations in early development, and lunar infrastructure still in planning. The company's technology will be judged not by its pedigree or advisory board, but by hardware performance under orbital conditions.
The broader industry momentum is unmistakable. ISS power upgrades prove demand for incremental improvement. Gateway's 60-kilowatt arrays establish a new baseline for deep-space buses. Commercial low Earth orbit destinations—Axiom Station, Starlab, Blue Origin's Orbital Reef—will require large modular arrays, likely in the tens-of-kilowatts class per module.
Standardization should accelerate deployment. Off-the-shelf arrays from Rocket Lab, Airbus, and others reduce development timelines for constellation operators. The transition mirrors broader aerospace industrialization—witness SpaceX's Starlink factory producing satellites at scale, or Blue Origin's orbital manufacturing ambitions.
But structural challenges won't vanish through incremental refinement alone. Arrays that span hundreds of meters while maintaining pointing accuracy and surviving orbital debris will require architectural innovation. Whether Beyond Reach Labs has cracked that problem remains an open question.
The company's patented announcement, promised as "coming soon," will clarify whether self-growing arrays represent genuine breakthrough or clever repackaging of existing concepts. Until hardware flies—or at minimum, until test data emerges that independent researchers can examine—the dining-table-to-football-field pitch remains aspirational.
Ten gigawatts of orbital power by 2030 may prove aggressive. Satellite power demand projections have a history of overreach. But the direction is unambiguous. Someone will solve the large-structure problem, because the economics of space infrastructure increasingly demand it.
Space infrastructure, like terrestrial infrastructure before it, ultimately bends to physics, economics, and the willingness of customers to write checks for hardware that actually works. Beyond Reach Labs has the pedigree and the pitch. Now comes the hard part: building something that survives contact with the vacuum.
