"we should view logistics as a true warfighting enabler, not just a commercial servicing capability." — Henry “Trey” Obering III, senior executive adviser with Booz Allen and a board director and proxy holder at Astroscale U.S.
The changing missile threat: 'escalate to deescalate', hypersonics, and fractional orbital bombardment
Obering identifies three fundamental shifts that redraw the contours of missile defense. First, he says, the strategic logic is changing: “a move primarily by Russia and some indications from China away from the mutually assured destructive, all‑out attack deterrent of the Cold War era toward something called ‘escalate to deescalate.’” That approach, he warns, could involve smaller strikes designed to shock the United States into standing down — a destabilizing tactic compared with past large‑scale deterrence.
Second, threat diversity has expanded beyond traditional ballistic missiles to include hypersonic missiles, maneuvering warheads and what Obering calls fractional orbital bombardment — the ability to place a warhead in orbit and deorbit it unpredictably within an orbital plane. He also cites the proliferation and sophistication of drone attacks seen in the Middle East and the Russia‑Ukraine war.
Third, technology has shifted the calculus: advances in sensors, processing, algorithms, mesh communications, artificial intelligence and dramatically reduced space launch costs make architectures with space‑based elements now practical in ways they weren’t when Obering led the Missile Defense Agency.
Command, control, battle management and fire control: the architectural hinge
For Obering, the linchpin risk for Golden Dome is not any single sensor or interceptor but the command and control, battle management and fire control fabric that must fuse them. He recalls earlier efforts to tie an Aegis SPY radar into the Ground‑Based Midcourse Defense fire control system and underlines how much harder the modern problem is: “Now you’re talking about integrating multiple sensors and interceptors, not only terrestrial‑based but space‑based, as well.”
The implication is clear in his framing: the complexity of integration — data flows, timing, battle management algorithms and interoperability across very different platforms — is the place where architectures can succeed or fail.
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See what we buildSpace‑based interceptors and the magazine‑depth problem
Obering argues that space‑based interceptors can materially increase the overall magazine depth of a layered defense. By engaging threats shortly after launch and in midcourse, space interceptors create a “thinning effect” that, when integrated with terrestrial systems — he names SM‑3s, THAADs, Arrows and Patriots — improves the defense’s ability to handle larger raid sizes.
At the same time he cautions that the challenge is scale and affordability: space‑based interceptors “offer so much in terms of capability” but being able to scale and afford them is a central programmatic risk — one he believes can be met, but only with careful tradeoffs.
On‑orbit logistics: refueling, servicing, repositioning, resupply and deorbit
Reduced launch costs change the economics of space sustainment, Obering says, and make on‑orbit logistics a viable force multiplier for Golden Dome. He lists the logistics services that matter — refueling, servicing, repositioning, resupply and deorbit — and stresses that not every satellite needs every service. The decision is a trade: “It is a matter of determining if their life extension would make economic sense as opposed to replacing the spacecraft,” he says, with considerations including mission, constellation, altitude, orientation and the pace of technology.
In proliferated LEO, Obering notes, smaller satellites are often cheaper to replace by launch than to service; for higher‑altitude constellations, repeated on‑orbit refueling can be cheaper than launching whole replacements.
Standardized interfaces and design trades: from tanker refueling to the ISS model
Obering uses a tanker analogy from his Air Force days to make the design point practical: aircraft with different roles all use compatible receptacles to refuel. Translating that to space requires standardized receptacles and serviceable locations — mechanical, electrical, data and refueling interfaces built into spacecraft from the outset.
He points to the International Space Station as an existence proof: standard interfaces and accessible hatches allow multiple nations’ spacecraft to connect and resupply. On the policy side, Obering believes “the government needs to send the demand signal and then let industry decide what that is,” citing Golden Dome’s current approach of initiating demand and letting industry shape the solutions.
What this means for combatant commanders, the Space Force, and industry
- Combatant commanders: Obering says operators and combatant commanders will begin to understand the operational value of on‑orbit logistics through exercises and war games, which should drive demand for serviceable architectures.
- The Space Force: The upcoming demonstrations and operational concepts will influence how the Space Force incorporates refueling, repositioning and sustainment into Golden Dome and other architectures.
- Industry (including Astroscale U.S.): Astroscale U.S.’s stated goal to provide the Provisioner® spacecraft for refueling “in the 2026 timeframe” moves refueling from concept to a demonstrable operational capability supporting the Space Force — and, once demonstrated, Obering says, “then it becomes a question of how fast we can incorporate that capability into future architectures.”
Logistics, Obering reminds us, have been foundational to military success across domains. Golden Dome, framed as a warfighting capability rather than a single sensor package, ties resilience not just to proliferation but to a suite of enablers: rapid launch, reconstitution, maneuvering, and on‑orbit logistics working together. The immediate question left on the table is practical: after Astroscale U.S.’s Provisioner® demonstration in 2026, how rapidly will architectures and exercises translate demonstration into doctrine and procurement — and at what scale?
