The Pentagon is taking another look at an idea it shelved nearly two decades ago. Overview Energy, a Virginia-based startup, has won a U.S. Air Force contract to study how solar power collected in geosynchronous orbit could be beamed down to remote military bases — including installations in Alaska and Guam where fuel logistics are dangerous and expensive.
The award revives a concept that the Pentagon’s National Security Space Office flagged in 2007 as strategically promising but economically unworkable. What changed, according to Overview’s leadership, is the price of getting mass to orbit.
From Forward Operating Bases to Geosynchronous Orbit
The study, first reported by SpaceNews, will examine applications at Eielson Air Force Base near Fairbanks, Alaska, and Andersen Air Force Base in Guam. Both sites sit at the end of long, vulnerable supply lines. Eielson endures sub-Arctic winters. Andersen anchors U.S. air power in the western Pacific within range of Chinese missiles.
Overview’s architecture places solar panels in geosynchronous orbit, then beams the harvested energy to existing terrestrial solar farms via infrared lasers. The receiving farms convert the laser light back into electricity using the same photovoltaic infrastructure they already operate during daylight hours.
The Pentagon’s 2007 study identified forward operating bases as the natural first market. The recommendations went nowhere because the launch economics did not work.
The Cost Curve That Changed Everything
Marc Berte, Overview’s chief executive, noted that launch costs have fallen dramatically over the past decade, with further reductions expected as newer launch systems come online.
That shift reframes the entire physics-versus-economics calculation behind space-based solar power. Beaming energy from orbit was never a question of whether the science worked. It was a question of whether the mass-to-orbit bill could be amortized against terrestrial alternatives.
Berte put the cultural shift more bluntly: the conversation around space applications has expanded beyond traditional uses like communications to encompass a broader range of infrastructure possibilities.
Why the Military Cares About Watts
For a forward base, energy is not a utility bill. It is an operational constraint. Diesel convoys to remote outposts in Iraq and Afghanistan became some of the deadliest missions of those wars. Tanker aircraft refueling generators at island bases consume their own fuel to deliver fuel. Every kilowatt-hour shipped overland or flown in carries a hidden cost in lives and platforms.
In many of these environments, energy availability is constrained by fuel delivery logistics. Transforming that infrastructure expands operational capabilities and endurance.
Eielson and Andersen are not forward operating bases in the Iraq sense. But they illustrate the broader logistics problem. Andersen’s strategic value depends on its ability to keep operating under contested conditions in the Pacific, where Chinese targeting of fuel infrastructure is a recognized planning concern. Power that arrives from orbit, on a beam, sidesteps the maritime supply chain entirely.
The Commercial Anchor: Hyperscaler Demand
The military study lands in the middle of a separate, larger story: the energy crisis brewing inside the AI data center boom.
Overview announced an agreement with Meta to deliver up to one gigawatt of power to the social media company’s data centers, used during periods when terrestrial solar is offline. Meta has been signing deals across geothermal, nuclear, and battery storage as it scrambles to feed the power demands of generative AI.
The hyperscaler interest matters because it gives Overview a customer base willing to pay premium rates for clean, firm power. That commercial revenue helps underwrite the demonstration missions the company will need to fly before any military contract turns into deployed hardware. Overview has indicated plans for an in-space laser beaming demonstration and eventual commercial service.
An Architectural Argument About What Belongs in Space
Overview’s approach also stakes out a position in a quiet debate now playing out in FCC filings. SpaceX has applied to deploy satellites for various services. Blue Origin has filed for satellite constellations. Starcloud, a startup focused on orbital data centers, raised funding recently on the premise that the data centers themselves should move to orbit.
Berte argues the opposite. Send the power source up. Keep the computers, with their cooling needs and constant hardware refresh cycles, on the ground.
The argument is to place infrastructure that requires minimal maintenance and has long operational lifespans in space, while keeping energy-intensive, heat-generating systems that require frequent updates on the ground.
That argument has structural appeal. Solar arrays in geosynchronous orbit are passive, long-lived, and benefit from near-constant sunlight. Data centers are the opposite — power-hungry, heat-rejecting, and obsolete within a hardware generation. Putting the durable thing in the hard-to-reach place is a defensible engineering principle.
What the Study Will and Won’t Settle
An Air Force study contract is not a procurement program. It is the analytical groundwork that determines whether the service will fund a follow-on demonstration, and eventually, whether space-based solar competes with small modular reactors, microgrids, and forward fuel logistics for limited base-energy dollars.
The 2007 study reached conclusions the Pentagon ultimately did not act on at the time. The current study has different inputs — cheaper launch, demonstrated laser transmission, and a commercial customer already paying for the technology. Whether those inputs change the answer is what the Air Force is now paying Overview to find out.
The deeper question is whether the U.S. military, after two decades of treating space primarily as a sensing and communications domain, is ready to treat it as an energy domain. The contract signals interest. Hardware in orbit will signal commitment. Those are different things, and the gap between them has historically been where ambitious space architectures go to die.
Photo by SpaceX on Pexels
