How can the Department of the Air Force and the U.S. Space Force design and operationalize a resilient framework for in-space logistics while simultaneously overcoming the fundamental energy constraints that limit spacecraft operations? Because operations in space are highly constrained by energy—from orbital movement and tactical maneuver to the employment of fires—how can we design and operate spacecraft that have fewer power constraints, sustain operations over longer periods, and maintain high operational effectiveness? Within this broader energy and maneuver paradigm, what are the most effective alternatives for space-based, point-to-point cargo delivery, and how can planners best balance immediate mission needs against storage and delivery costs in terms of finite energy resources and manpower? Ultimately, to build a responsive orbital supply chain, should critical military payloads and supplies be pre-staged in orbit or deployed via responsive launch-on-demand systems, and what size cargo deliveries provide the highest return on investment to support sustained space operations?
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Sadowski, Maj. Justin, "Space-Based Solar Power: Continuing the Renewable Revolution," AF Fellows paper (Argonne National Laboratory), 2024, 3 pgs.
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Seal, Lt. Col. Jonathon S., "Doctrine Gap: Space Integration vs. Counterspace," AWC Strategic Studies Paper, 2020, 20 pgs.