Satellite Vulnerability In The 70's

ASAT The Soviet co-orbital anti-satellite weapon was first developed in the 1960s and became operational by the 1970s. This one is in a Russian museum. By the 1970s, the Soviet Union was developing additional anti-satellite weapons. (credit: TV Zvezda) Battle for the heavens: intelligence satellite vulnerability in the 1970s by Dwayne A. Day Monday, May 4, 2026 Starting in the late 1960s, the Soviet Union began testing a new anti-satellite weapon system that maneuvered a satellite close to its target and then fired a shaped explosive charge at it, showering it with metal fragments. The United States detected these tests and, over the next few years, US satellite operators became concerned that in event of a war, the Soviet Union could negate America’s military and intelligence space assets. There was another and more obvious response to the increasing vulnerability of US satellites to attack: make them less vulnerable. American satellite vulnerability became a major concern by the mid-1970s and, in July 1976, President Ford signed National Security Decision Memorandum 333 (NSDM 333), titled “Enhanced Survivability of Critical U.S. Military and Intelligence Space Systems.” It shifted the United States from a policy of assuming space was a “sanctuary” and satellites would not be attacked, eventually to development of an American capability to attack Soviet satellites. By the late 1970s, space warfare had become a real possibility (see “To attack or deter? The role of anti-satellite weapons,” The Space Review, April 20, 2020.) But there was another and more obvious response to the increasing vulnerability of US satellites to attack: make them less vulnerable. In response to NSDM 333 in October 1976, the National Reconnaissance Office, which managed the nation’s fleet of intelligence satellites, produced a report on the vulnerability of its satellites to attack and plans to reduce their vulnerability. The executive summary of the report was recently declassified and provides a fascinating insight into the emerging threats to American satellites in the mid-1970s. Titled “Survivability Enhancement Action Plan,” with a clever 1970 cover illustration produced by Soviet military officers depicting “The Space Networks of Espionage,” the summary stated that, up to this point the NRO had assumed “that reconnaissance satellites are stabilizing in times of crisis, and that reconnaissance spacecraft are therefore sanctioned,” in other words safe from attack. But this situation was changing and they could no longer assume this. ASAT The cover of a 1976 study on how to make American intelligence satellites more survivable. The cover art was produced by two Soviet officers for a Soviet military journal and probably not used with their permission. (credit: NRO) The document added: “In the belief that the programmatic goal at this point is to define a general survivability objective and level of effort, the NRO has developed several alternative programs of graduated cost and effectiveness against the foreign threat. To assure confidence in the resulting cost estimates, these alternatives have been constructed from specific projects identified for each system.” Because of the speed of the study, the cost estimates were rough and a detailed follow-on study would be required. The study focused on the next five to ten years, developing remedies for systems already in acquisition. It noted, “Such remedies are typically only partially effective, since they basically require retrofitting systems not initially designed for survivability. The far-term offers greater opportunity. New reconnaissance system concepts can be developed from the beginning with survivability as a major system performance criteria. Systems specifically emphasizing survivability can be conceived, taking advantage of such recent introductions as the Space Shuttle.” The NRO indicated that it might also investigate fundamentally different systems, such as quick-reaction imagery and signals intelligence systems. Countermeasures came with costs, however. These were not only monetary—hardening a satellite could be expensive—but could affect satellite operations. The study divided existing NRO satellite systems into three categories: most critical, critical, and least critical. In the most critical category was the KH-11 KENNEN near-real-time imaging satellite, which would have its first launch in December 1976. Two other systems with their names deleted were also included in the most critical category and these were most likely high-altitude signals intelligence satellites, such as the recently declassified JUMPSEAT satellite. Several systems with their names deleted were included in the “critical” category, probably including the newly-fielded PARCAE ocean-surveillance system and at least one other high-altitude signals intelligence system. In the least critical category were the HEXAGON and GAMBIT imagery satellites, and the Program 989 low-orbiting signals intelligence satellites. A primary characteristic of these three systems was that they did not deliver their data to the ground very quickly and therefore were not as vital during a crisis situation. The DoD/Intelligence Community NSDM 333 Response Working Group developed a list of operational options: Maintain space operations in peacetime (but during interference) Manage and control escalation or deescalation of US/Soviet crisis/confrontation Manage and control escalation of a conventional conflict involving the US but not involving the Soviet Union or vital Soviet interests (e.g., Vietnam) Maximize military support of a conventional conflict involving the US but not involving the Soviet Union or vital Soviet interests (e.g., Vietnam) Manage and control escalation of a US/Soviet conventional conflict Maximize military support during a US/Soviet conventional conflict Manage and control escalation of a NATO/Pact conflict Maximize military support during a NATO/Pact conflict Support the conduct of limited strategic nuclear options Support the conduct of strategic nuclear conflict ASAT In the mid-1970s, the US military determined that there were multiple potential threats to American satellites from Soviet weapons, not only operational anti-satellite weapons, but also newly emerging threats like high-powered lasers. (credit: NRO) The Soviet threat The vulnerability study summarized the Soviet threat, noting that: The Soviet ASAT threat to U.S. satellites consists of a variety of systems and capabilities. The Soviets have a coorbital intercept system that uses a fragmentation warhead. It uses a modified SS-9 ICBM booster and can intercept targets at up to 2,500 NM altitude. Using a larger space booster, it could intercept targets in semi-synchronous and synchronous (19,300 NM) orbits. A probable high power ground-based laser, possibly already in operation, may be an ASAT system under development. It is likely the Soviets will undertake development of a very high power ground-based laser ASAT system. The Soviets intend to conduct electronic warfare against satellites during wartime and are believed to have such a capability. The Soviets are reportedly developing a space-based laser weapon for use against satellites which could be demonstrated in the early 1980s. In addition, the nuclear-armed Galosh ABM interceptors would undoubtedly be used in an ASAT role against satellites thought to threaten Moscow. The Soviets could develop nuclear intercept systems for attack of very high altitude satellites. There is no evidence of such development. The Soviets also have the capability for covert attacks on space systems ground facilities in the U.S. and overseas. It is highly likely that the Soviets will develop radio-frequency damage weapons, in spite of the uncertainty in achieving kill inherent in such weapons. The NRO also noted that its “systems are also vulnerable to inadvertent destruction from non-targeted nuclear weapons and sabotage of ground facilities.” The report stated that “the development of very high value National Reconnaissance Program collection systems has placed a premium on survival techniques to allow mission completion by existing or replacement systems. The application of sophisticated U.S. space technology in the survival enhancement area is expected to provide a high payoff in mission completion and in increasing the difficulties encountered by the Soviet ASAT forces.” ASAT A table showing potential threats to American intelligence satellites and potential countermeasures to defeat them. (larger version) (credit: NRO) Surviving the Soviet threat The summary included a table of “Major Survival Enhancement Options” that identified both the threat and the countermeasure. For instance, countermeasures to orbital interceptors included evasive maneuvers, homing sensor deception and jamming, as well as the proliferation of systems (i.e. not putting all the NRO’s eggs in one basket.) For a high-power laser threat, the countermeasures included avoiding the laser site and hardening the satellite. Physical attacks on ground stations and launch vehicles could be countered with increased physical security. Countermeasures came with costs, however. These were not only monetary—hardening a satellite could be expensive—but could affect satellite operations. As the report noted, maneuvering would make an attack more difficult, but would also limit the effectiveness, and maybe the orbital lifetime, of the satellite. In the future, if decreasing vulnerability was a design goal, satellites could be designed with more fuel, increasing their lifetime and making it possible to change orbits to dodge threats. The report stated that encryption was by then fully implemented on several systems and would be included in all new systems and retrofitted onto older ones. “Minimal on-board verification sensors for laser attack” were included on HEXAGON and KENNEN satellites, and a “more complete verification package, including an expanded sensor complement to respond to other threats and reduce ambiguities” would be developed in the near-future. Certainly, the issue of satellite vulnerability has become more urgent today, as many more governments now have access to anti-satellite capabilities. But as the report makes clear, this has been true for a very long time. Eighteen months earlier the NRO had started an effort to harden its ground facilities against attack. However, some of these facilities, like the ground tracking and communications station at Buckley Air Force Base north of Denver, and the Space Tracking Center in Sunnyvale, California (famously referred to as “The Blue Cube”), were located very close to busy civilian areas. It would not be difficult for an enemy special operations team to get close to them to attack, even if that only meant firing rocket-propelled grenades from the back of a pickup truck on the 101 Freeway in California. Vandenberg Air Force Base, where many NRO satellites were launched, was a sprawling facility with vast, open, lightly-patrolled spaces. Throughout its history, there is evidence that both amateur rocket enthusiasts and possibly even Soviet special operatives penetrated the base. One of the major recommendations was that survivability should be included as a system performance evaluation criteria. It had to be considered from the start, not added in after all the other performance decisions were made. Although the summary is not highly detailed, the fact that the NRO even declassified it is remarkable. Certainly, the issue of satellite vulnerability has become more urgent today, as many more governments now have access to anti-satellite capabilities, and space has become, in the euphemism of the warfighter, “a contested realm.” But as the report makes clear, this has been true for a very long time. Dwayne Day can be reached at zirconic1@cox.net.

The Moonbase Moment

lunar baee An illustration of a proposed lunar base, the centerpiece of the NASA Ignition event in March. (credit: NASA) The Moonbase moment by Jeff Foust Monday, May 4, 2026 Since early 2020, a group called the Lunar Surface Innovation Consortium (LSIC, pronounced “ell-sick”) has been meeting regularly to discuss the infrastructure needed for any future presence on the Moon, from power to resource utilization. The companies, universities, and other organizations that are part of LSIC had been working to identify key technologies and development strategies, even as NASA’s plans to use any such infrastructure were vague, at best. Leadership, budgets, and technology, said Garcia-Galan, “have aligned with us being here today to frickin’ build a Moonbase.” At this spring’s LSIC meeting, split between downtown Washington and the Applied Physics Laboratory in Laurel, Maryland, the mood was very different. A month earlier, NASA held its “Ignition” event where the agency not only declared its intent to develop a lunar base in lieu of the orbiting Gateway, but also committed spending tens of billions over the next decade to so do, with plans for dozens of lander missions, habitats, power systems, and more. Those advocates of lunar base found themselves in the position of being, if anything, not ambitious enough about their visions of lunar bases. In opening remarks, Bobby Braun, head of APL’s space exploration sector, compared one illustration of a lunar base from those earlier efforts with the expansive vision NASA presented at Ignition. “Our concept ended up being, I hate to admit this, small,” he said. “In hindsight, what were we thinking?” The biggest advocate for a lunar base at the meeting was the NASA person responsible for it, Carlos Garcia-Galan. His formal title is program executive for Moon Base, but at the Ignition event NASA administrator Jared Isaacman dubbed him the “lunar viceroy.” Garcia-Galan, though, prefers a different moniker, one he has even put on briefing charts: Moon Base Guy. “I was really not a lunar guy before,” he said in a speech at the meeting, having previously worked on programs like Gateway and the ISS. “I was a spacecraft guy.” He is, though, all-in on a lunar base. “Leadership has aligned with the technical capabilities, which have aligned with the state of readiness of industry, which have aligned with the budgets, which have aligned with us being here today to frickin’ build a Moonbase.” “From our perspective at Blue Origin, the number one absolute must-have is frequent, low-cost, high-mass access to the lunar surface,” said Cortese. The audience at LSIC didn’t need to be convinced that their moment had finally arrived. Over two and a half days, they discussed technologies and approaches that could be used to develop a lunar base. That included the key enabling technologies a Moonbase would need, which, not surprisingly, often aligned with the technologies companies at the event were developing. “From our perspective at Blue Origin, the number one absolute must-have is frequent, low-cost, high-mass access to the lunar surface,” said Jacki Cortese, vice president of civil space at Blue Origin, on one panel. Blue Origin, of course, wants to offer just that with its Blue Moon line of landers. The adjectives she used, she said, were deliberate. Frequent access is needed to build up experience and, with it, expertise in landing on the Moon. Reduced costs are important , she noted, “because the budgets aren’t getting any bigger.” Larger landers are also needed for the heavier infrastructure needed for a lunar base. That would enable other infrastructure, such as power, mobility, and in-situ resource utilization. “Once we get frequency,” she said, “we can embed power towers on every single [Blue Moon] Mark 1 and send these to every peak of eternal light,” regions around the south pole of the Moon that are in near-constant illumination. “You’re setting everyone up for success.” Garcia-Galan Carlos Garcia-Galan, NASA’s “Moon Base Guy,” discusses the agency’s plans at the 41st Space Symposium in April. (credit: Space Foundation) Another key technology is communications. “We should not be starting from scratch. We should not be reinventing the wheel,” said Thierry Klein, president of Bell Labs Solutions Research at Nokia, which tested using terrestrial mobile communications standards like 4G/LTE on the IM-2 mission last year. “We should take those investments, we should take those technologies, and adapt them for the environment.” Lunar Outpost, which was one of the companies competing for NASA’s Lunar Terrain Vehicle (LTV) program, emphasized mobility. “We see our Eagle LTV as the backbone to lunar surface infrastructure,” said Tim Mounsey, director of business development for commercial sales at the company. At Ignition, NASA announced it would not select proposals for an LTV submitted last fall by Lunar Outpost, along with Astrolab and Intuitive Machines, but instead have them offer different designs that would be less capable but also faster to build. He seemed unfazed by the change in direction. “We’ve got a fleet of rover solutions,” he said. “Rovers and mobility solutions are a key enabling, and critical, technology for the build out of the Moonbase.” At the LSIC meeting and other events, it was hard to find any company that was skeptical or dismissive of NASA’s lunar base plans, either because of an interest in supporting the effort or because of the funding NASA is proposing to invest in it. “We are putting the full force of SpaceX to attacking this problem because we are inspired by the vision of the administration and of NASA for the Moon,” said Nick Cummings, a senior director at SpaceX, during a panel at the 41st Space Symposium in Colorado Springs earlier in April. SpaceX’s interest, unsurprising, was transportation. “We need at least be able to transport things and people to the Moon as regularly, reliably and affordably as we do for the space station today,” he said. “We are putting the full force of SpaceX to attacking this problem because we are inspired by the vision of the administration and of NASA for the Moon,” said Cummings. In an interview during Space Symposium, Robert Lightfoot, president of Lockheed Martin Space, said his company was looking at leveraging the work it has been doing on inflatable habitat technology and applying it for a lunar base. Separately, Voyager Space announced earlier this year it was working with Max Space, another company developing inflatable modules for commercial space stations, on repurposing that technology for lunar habitats. However, while there is all this interest in supporting—and winning contracts for—development of a lunar base, there are still few details about how it will all come together. At Ignition, Garcia-Galan outlines a three-phase plan for its development from 2026 through 2036. That included a chart with showed all the landers, rovers, habitats, satellites and other components envisioned for the base. It also included cost estimates: $10 billion for Phase 1, from 2026 to 2028, another $10 billion for Phase 2, from 2029 through 2032, and at least $10 billion for Phase 3, from 2032 through 2036. chart A chart from a NASA presentation at Ignition listing all of the missions and infrastructure planned for its lunar base. (larger version) (credit: NASA) However, beyond that, NASA has offered few details about exactly how it will spend that money. That vagueness is deliberate in some respects: the agency issued requests for information on topics such as LTV, Moonbase capabilities, and a new version of its Commercial Lunar Payload Services (CLPS) contract, CLPS 2.0. NASA should lead development of the lunar base, said Nujoud Merancy, deputy associate administrator of the exploration mission directorate’s strategy and architecture office at NASA, during a panel at the LSIC meeting. But, she noted, the agency will look to industry for its concepts of how to provide the hardware and services it envisions for the base. “That’s what we’re doing and we’re looking to buy,” she said. “That doesn’t mean we tell you exactly how to build something.” How much NASA will be buying it also uncertain despite the dollar figures announced at Ignition. The agency is already more than seven months into the 2026 fiscal year, limiting how much it could spend on projects related to a Moonbase. (The agency has yet to publish an operating plan detailing how it would spend the money appropriated by Congress in January, well before the Ignition announcement.) NASA’s fiscal year 2027 budget proposal, released a week and a half after Ignition, did not include funding lines for the effort for 2027 or future years. One likely contracting vehicle for the lunar base will be CLPS. At Ignition and subsequent events, agency officials have talked about going to nearly a monthly cadence of lunar landings, including nine in 2027 and ten in 2028. That’s far more than the two performed last year and the two to four expected this year. Last week, NASA issued a procurement notice announcing its intent to increase the ceiling on the CLPS contract, which runs through 2028, from $2.6 billion to $4.2 billion. NASA has, so far, awarded less than $2 billion in CLPS task orders, suggesting it is planning a major increase in awards through the current contract’s final years. Companies participating in CLPS, who have been building on average of one lander a year, said at the LSIC meeting they’re ready to rapidly ramp up production, but offered few details about how many landers a year they can make or how quickly they can accelerate production. They emphasized expanded facilities and developing “build-to-print” landers rather than customized ones. “We’ve got the basic DNA and roadmap” to meet higher demand, said Dan Hendrickson, vice president of business development at Astrobotic. “We’re starting from a place in which we have facilities that were intended to have multiple landers in development.” In an earnings call Monday, Jason Kim, CEO of Firefly Aerospace, also said his company was ready to capitalize on NASA’s projected increased demand. “The lunar opportunity is here,” he said. “Our prior growth strategy was to extend from one moon landing a year to multiple a year, and now we have an amplified demand signal from NASA.” That included, he added, development of landers larger than Blue Ghost, which can carry up to 240 kilograms, with versions that can meet NASA’s needs to deliver several metric tons to the surface. “Those are all in our roadmap,” he said. “Our larger lunar lander designs are scalable to meet that demand.” “There’s a lot of reasons to build the Moonbase. The first is because we can,” said Charlie Powell. There is also a more fundamental uncertainty: what the Moonbase will be used for. NASA has said little about specific requirements for the facility, such as how many people it can support and for how long, how much power it will need, what amount of bandwidth it will use, or even general descriptions of activities that will take place there. All those, of course, drive the technologies that need to be developed and the infrastructure emplaced there. “There’s a lot of reasons to build the Moonbase. The first is because we can,” said Charlie Powell, assistant director for space and spectrum in the White House’s Office of Science and Technology Policy, during a session at Space Symposium. What has halted development of a base, he argued, was the “myopia of policy vision” and high transportation costs, both of which he believed were being corrected. “The second reason to build a Moonbase is that we must,” he said, citing its strategic importance and value in inspiring future generations. A base, he said, had value for science, “programmatic flexibility” in working with various partners, and commercial potential. One company examining the commercial potential of the Moon is Interlune, a Seattle-based company with ambitions to extract helium-3 emplaced by the solar wind in the lunar regolith. That isotope, relatively rare on Earth, could have applications in fields like medical imaging and quantum computing—and, of course, fusion power, eventually. Rob Meyerson, CEO of Interlune, said in an interview that his company doesn’t necessarily expect to operate at the lunar base, in part because of its location at the south polar region of the Moon: the lunar equatorial regions are thought to have higher concentrations of helium-3 that makes mining feasible. However, he said he expected Interlune to leverage the infrastructure that will be developed to support the base no matter where the company chooses to operate. “The Moonbase is going to be essential to us, whether we’re operating adjacent to the Moonbase or not,” he said. “We can serve, and we do serve, as a commercial partner and commercial use case for anyone that’s building infrastructure on the Moon.” In the coming months, NASA’s lunar base plans will likely come into sharper focus as the agency processes responses to its RFI and refines its budgets. That will help determine if the excitement NASA kindled at Ignition can be turned into a sustainable program that results in a real lunar base of any size. Jeff Foust (jeff@thespacereview.com) is the editor and publisher of The Space Review, and a senior staff writer with SpaceNews. He also operates the Spacetoday.net web site. Views and opinions expressed in this article are those of the author alone.

Governance Is Always Late to THe Party

servicing spacecraft Emerging in-space activitiers like satellite servicing pose governance challenges. (credit: Astroscale) Governance is always late to the party. Here's why that's not an accident. by G. Theresa Quitto-Dickerson Monday, May 4, 2026 Consider the governance position of nearly any operator who has completed an on-orbit servicing mission in the last three years. The hardware performed. The asset transferred. By every technical measure, the operation succeeded. And by the time the paperwork caught up, legal scholars were still sorting out which liability framework applied, whose safety standards governed the handoff, and whether the jurisdictional question had ever been formally resolved. This is a representative scenario: one that has repeated, in some configuration, across multiple missions and multiple actors in the emerging in-space services market. Nobody was surprised. This is how it goes. When governance lags, the instinct is to blame awareness. That diagnosis isn't wrong, but it’s incomplete. The commercial space industry has operated under a quiet assumption for decades: governance will arrive eventually, and in the meantime, industry moves. Standards bodies convene after incidents. Regulators draft rules after markets form. Frameworks appear after the operational reality has already hardened into practice. The sequence is so familiar it barely registers as a problem. It is a problem. A structural one, and a well-documented one. The gap is not a knowledge failure When governance lags, the instinct is to blame awareness. Policymakers didn't understand the technology fast enough. The fix: more technical expertise in government, more briefings, faster rulemaking. That diagnosis isn't wrong, but it’s incomplete. The deeper issue is architectural. Research on space traffic management and orbital debris governance has documented a recurring dynamic: when serious public problems new to government arise, there is often a lag between the problem and a coherent national response, with agencies defaulting to existing roles even as the problem outpaces them. This isn't bureaucratic failure in the individual sense. It is what reactive governance systems do by design. The clearest operational illustration is the conjunction data message, or CDM. When two objects are projected to come within concerning proximity, operators receive a notification: a potential collision is developing. The operator assesses, decides, maneuvers, or doesn't. There are standards. There are norms. The system works within its own logic. But notice what that system does not do. It does not ask why that orbital regime became crowded enough for conjunctions to multiply. It does not ask whether the licensing decisions that placed those objects there reflected any shared risk-reduction framework, or only individual risk-mitigation calculations made in isolation. The governance responds to the geometry of two objects already on a concerning trajectory. The conditions that produced the trajectory are upstream of where the rules live. Risk mitigation and risk reduction are not the same thing. Space governance has built sophisticated infrastructure for the former. The latter remains largely unaddressed, and research now suggests that mitigation alone is no longer sufficient to maintain the usability of near-Earth orbits. That last point is not an assertion. A 2021 NASA Office of Inspector General report, cited in recent cislunar governance research published in Space Policy, found that the rapid and uncoordinated growth of near-Earth space activity has led to orbital debris generation that will necessitate active remediation, because mitigation alone can no longer hold the line. We built the infrastructure for managing the problem after it arrives. The infrastructure for keeping it from arriving at all is still missing. The circular space economy is the test case In-space servicing, assembly, and manufacturing. Active debris removal. On-orbit resource utilization. Reusable upper stages. Life-extension missions. None of these are speculative — they are contractual, operational, and increasingly multinational. The circular space economy is happening now, at a pace that the surrounding governance infrastructure was not designed to match. Risk mitigation and risk reduction are not the same thing. Space governance has built sophisticated infrastructure for the former. The latter remains largely unaddressed. A 2024 global governance analysis found the existing framework, built on five UN space treaties drafted for a different era, now contains an absence of clear coverage for property rights, liability in collision, and licensing of novel activities. Individual nations have responded by creating their own distinct policies, producing a fragmented regulatory landscape that commercial operators must navigate mission by mission, jurisdiction by jurisdiction. What makes this domain particularly instructive is that the signals of governance friction are visible before the friction becomes hazardous. Operators are negotiating liability across jurisdictions that haven't formally defined the activity. Standards bodies are producing technical recommendations with no corresponding policy hook. Vocabulary mismatches exist between what industry calls the operation and what the regulator's mandate covers. These aren't edge cases. They are the current operating environment. And they are legible, if the analytical infrastructure exists to read them. What structured signal detection makes possible A pre-decisional approach to governance readiness treats regulatory misalignment as a detectable condition rather than an inevitable surprise. The logic isn't new: stress-testing in financial regulation developed precisely because point-in-time assessments proved structurally blind to systemic preconditions. The application to space governance is still developing, but the signal categories are already observable in current operations: vocabulary gaps, where operators and regulators describe the same activity in incompatible terms; standards-to-policy misalignment, where technical consensus exists but carries no enforcement mechanism; jurisdictional friction, where novel operations cross authority lines drawn for a different era; coordination lag, where multiple actors hold relevant authority but share no decision timing. The circular space economy will not wait for that infrastructure to be built through the conventional cycle of incident, response, and rulemaking. That cycle has a well-documented structural ceiling, and we are approaching it. None of these require classified data or proprietary records. They are present in public comment processes, standards body deliberations, licensing dockets, and the working group discussions already happening in communities like CONFERS, where practitioners are, among other things, generating exactly the kind of early signals that a governance-ready system would be designed to receive. The question is whether the analytical approach exists to convert those signals into extended lead time for governance actors, rather than the compressed reaction windows the current system produces. The circular space economy will not wait for that infrastructure to be built through the conventional cycle of incident, response, and rulemaking. That cycle has a well-documented structural ceiling, and we are approaching it. The signals are already there. The governance frameworks that could act on them earlier are not. That is not a technology problem or an expertise problem. It is a design problem. And design problems, unlike incidents, can be addressed before they become emergencies. G. Theresa Quitto-Dickerson is a doctoral candidate researching governance infrastructure and decision architecture for novel space activities. Drawing on two decades of federal and industry experience in program execution and policy, she works at the intersection of space governance, workforce systems, and commercial space policy. She participates in the CONFERS Circular Space Economy Special Interest Group and has an abstract under review for IAC 2026. Contact: theresa@quittodickerson.space | quittodickerson.space Note: we are now moderating comments. There will be a delay in posting comments and no guarantee that all submitted comments will be posted. Home Subscribe to our weekly newsletter email address

Perception, Power, And Strategic Reality In Space

Artemis Accords signing The effect that spaceflight has on people, like William Shatner, may be misinterpreted. (credit: Blue Origin) The fallacy of the Overview Effect: perception, power, and strategic reality in space by Christopher M. Stone Monday, May 4, 2026 Since the dawn of human spaceflight, some astronauts have described a profound cognitive shift upon viewing Earth from orbit—an experience termed the “Overview Effect” (White, 1987). This phenomenon is frequently associated with desires for global unity, environmental awareness, and the perceived insignificance of political boundaries. From this vantage point, the Earth appears to be a single, borderless system, seemingly reinforcing the notion that divisions among peoples and nations are artificial constructs of limited importance. While compelling, such interpretations risk conflating subjective perception with objective strategic reality. The absence of visible borders from space does not imply their irrelevance, just as the invisibility of gravity or atmospheric dynamics does not diminish their decisive role in shaping life on Earth. Strategic reality is not determined by what can be seen, but by what exerts power and influence. The absence of visible borders from space does not imply their irrelevance, just as the invisibility of gravity or atmospheric dynamics does not diminish their decisive role in shaping life on Earth. This article argues that the Overview Effect, though psychologically meaningful for some, does not alter the structural realities governing international relations or strategic competition. Drawing upon the strategic theory of Colin S. Gray, this paper emphasizes the critical distinction between the nature and character of strategy. While the character of conflict evolves with new technologies and domains—including space—the nature of strategy, rooted in political purpose, human competition, and the pursuit of power, remains constant. The Overview Effect, therefore, represents not a transformation of strategic reality, but a subjective misinterpretation of perception elevated beyond its proper analytical scope. The Overview Effect: experience vs. reality The concept of the Overview Effect, popularized by Frank White, describes a cognitive shift in awareness resulting from viewing Earth from space (White, 1987). Astronauts such as Edgar Mitchell and Ron Garan have described this experience as transformative, emphasizing the perceived lack of borders and the fragility of the planet’s biosphere. However, these experiences must be properly categorized as phenomenological rather than empirical. They describe how individuals interpret what they see, not what objectively exists independent of perception. As Thomas Nagel famously argued, subjective experience—“what it is like”—cannot serve as a complete account of reality (Nagel, 1974). The Overview Effect falls squarely within this domain of subjective interpretation. Colin S. Gray’s framework reinforces this limitation. Gray consistently argued that strategy is anchored in enduring realities of human behavior and political organization, not in transient perceptions or emotional responses. The Overview Effect may alter how individuals feel about the world, but it does not alter the strategic structures that govern it. The leap from perceived unity to political irrelevance of division is therefore not an analytical conclusion, but a normative assertion lacking empirical foundation. The fallacy of the Overview Effect At the core of the Overview Effect’s broader claims lies a fundamental logical error: the assumption that invisibility implies insignificance. This assumption is demonstrably false across both physical and political domains. Gravity, for example, is entirely invisible to the human eye, yet it governs orbital mechanics, planetary formation, and the conditions necessary for life itself (Newton, 1687). The atmosphere, which appears from space as a thin and fragile line, is in fact a complex system essential for sustaining life and regulating climate. Electromagnetic forces—largely unseen—underpin modern communications, navigation, and technological infrastructure. Political structures operate in a similar manner. National borders are not geological features but political constructs, enforced through legal systems, military power, and political authority (Waltz, 1979). Their invisibility from orbit is therefore expected and irrelevant to their function. Here, Gray’s distinction between the nature and character of strategy is decisive. The Overview Effect mistakenly elevates a change in character—a shift in human perception resulting from technological vantage point—into a claim about the nature of strategic reality. Yet the nature of strategy, as Gray argues, is rooted in enduring human conditions: fear, honor, interest, and the pursuit of political objectives. These do not disappear despite one’s subjective views from orbit. Thus, the Overview Effect represents a category error: it confuses a change in perspective with a supposedly discovered “true condition.” Borders, sovereignty, and strategic structure Borders remain foundational to the international system. They define sovereignty, regulate movement, structure economic systems, and delineate the scope of political authority (Mearsheimer, 2001). Their importance derives not from visibility, but from enforcement and recognition within the international order. The optimism surrounding the Overview Effect is not without precedent. In the early 20th century, the advent of aviation inspired similar claims. Examples such as the Korean Demilitarized Zone or the US-Mexico border illustrate that boundaries exert profound influence regardless of how—or whether—they are visually perceived. These borders shape military deployments, migration patterns, economic exchanges, and diplomatic relations. They are embedded within national and international institutions and sustained through various instruments of national power. Gray’s strategic theory underscores that geography, including political geography, remains a persistent and critical factor in strategic reality. The physical and political organization of space—whether terrestrial, orbital, or beyond—structures the possibilities for action and interaction. Borders, in this sense, are not illusions dispelled by altitude; they are expressions of power and authority that operate independently of visual confirmation. To argue that borders are insignificant because they are not visible from space is therefore to misunderstand both the nature of political order and the foundations of strategic analysis and execution. Historical analogy: aviation and the persistence of war The optimism surrounding the Overview Effect is not without precedent. In the early 20th century, the advent of aviation inspired similar claims that technological advancement would render war obsolete and foster global unity. The ability to transcend geographic barriers was seen as a means of dissolving political divisions. History decisively refuted these expectations. During World War I, aircraft were rapidly integrated into military operations for reconnaissance and bombing. By World War II, airpower had become a central instrument of warfare, enabling large-scale strategic bombing campaigns that inflicted destruction and strategically decisive outcomes (Overy, 2013). This trajectory illustrates a fundamental principle articulated by Gray: technology changes the character of warfare, not its nature. Aviation expanded the reach and lethality of conflict, but it did not eliminate the underlying drivers of competition and violence. The same pattern is evident in the space domain. The Overview Effect represents a contemporary form of a space-centric, technological idealism, projecting hopes for unity onto a new vantage point. Yet, as history demonstrates, new perspectives do not override enduring strategic realities. Space and strategic competition Despite narratives emphasizing unity and cooperation, space has emerged as a contested strategic domain. Satellites are integral to modern military operations, enabling communication, intelligence, surveillance, reconnaissance, and missile warning (Dolman, 2002). These capabilities are not neutral; they undergird and enhance all instruments of national power. Proponents of the Overview Effect interpret a change in how humans perceive the world as evidence of a change in how the world operates. Major powers, including the United States, China, and Russia, have developed capabilities to disrupt or destroy space assets, reflecting the growing military utility of the domain. This competition is consistent with Gray’s conception of strategy as the bridge between political purpose and military means. Space support, deterrence, and warfighting capabilities therefore serve national objectives, reinforcing rather than dissolving geopolitical rivalry. The Overview Effect does not negate these realities. Astronauts may experience a sense of unity, but space activities—civil, commercial, and military—operate within frameworks defined by national governance, international law, and strategic competition. The domain of space, far from transcending politics, is merely an extension of it. Nature vs. character: a Grayian correction to space idealism Colin S. Gray’s most valuable contribution to this discussion lies in his clear articulation of the distinction between the nature and character of war and strategy. The nature of strategy is constant, rooted in the political use of force, human competition, and the pursuit of advantage. The character of strategy, by contrast, evolves with changes in technology, culture, and context. The Overview Effect is fundamentally a phenomenon of character. It arises from a newer technological capability—human spaceflight—and reflects a particular psychological/spiritual response by some to that capability. However, it does not—and cannot—alter the nature of strategic reality. By conflating these two levels of analysis, proponents of the Overview Effect commit a serious analytical error. They interpret a change in how humans perceive the world as evidence of a change in how the world operates. Gray’s framework exposes this mistake and reasserts the primacy of enduring strategic realities over transient or idealistic perceptions. Conclusion The Overview Effect provides a compelling and often inspiring perspective on Earth’s natural, physical unity. However, it does not alter the political and strategic forces that govern life on and beyond the planet. Invisible forces—whether physical, such as gravity and atmospheric systems, or political, such as sovereignty and power—remain decisive in shaping international relations. Ultimately, the view from space may enrich human understanding and inspire reflection, but it does not redefine strategic reality. As Colin S. Gray’s work makes clear, the nature of strategy endures regardless of technological or perceptual change. Human affairs continue to be shaped by power, institutions, and the persistent dynamics of competition. Perception may inspire—but it does not decide. References Clarke, F. (1910). Aviation and Peace. Dolman, E. (2002). Astropolitik: Classical Geopolitics in the Space Age. Gray, C. S. (1999). Modern Strategy. Gray, C. S. (2010). The Strategy Bridge: Theory for Practice. Mearsheimer, J. (2001). The Tragedy of Great Power Politics. Nagel, T. (1974). “What Is It Like to Be a Bat?” Newton, I. (1687). Philosophiæ Naturalis Principia Mathematica. Overy, R. (2013). The Bombing War. Waltz, K. (1979). Theory of International Politics. White, F. (1987). The Overview Effect. Christopher Stone previously served as Special Assistant to the Deputy Assistant Secretary of Defense for Space Policy (2018–2019). His insights and opinions reflect independent analysis of space deterrence challenges and do not reflect the opinions of the Department of War or United States Government.

Book Review: Open Space

book cover Review: Open Space by Jeff Foust Monday, May 4, 2026 Open Space: From Earth to Eternity—the Global Race to Explore and Conquer the Cosmos by David Ariosto Knopf, 2026 hardcover, 384 pp., illus. ISBN 978-0-593-53503-5 US$35 One aspect of NASA’s revamped lunar exploration plans announced in March is a sharp increase in the number of lunar lander missions the agency plans to help develop its lunar base (see “Igniting a new vision for NASA”, The Space Review, March 30, 2026). The first of three phases of the plan calls for 21 landings from 2026 through 2028, including nine landings in 2027 and ten in 2028. “Can you get there by March?” Altemus said Nelson asked because of the administrator’s concerns that China might attempt to lay claim to the south polar region of the Moon. That’s a remarkable pace because, so far, there have been only three landings by American companies on the Moon so far as part of Artemis: one in 2024 and two in 2025. There are as many as four planned for 2026, but NASA’s own charts at the Ignition event projected only two taking place. Adding to that challenge is the difficulty in getting to the surface of the Moon: only Firefly Aerospace’s Blue Ghost 1 lander in March 2025 remained upright and completed its full mission. Intuitive Machines’ IM-1 lander in 2024 and IM-2 in 2025 both fell over upon touchdown, and IM-2 operated for only half a day before shutting down. There’s rocket science, it appears, and then there’s lunar-lander science. These challenges came to mind when reading part of Open Space, a new book by David Ariosto that examines many of the emerging frontiers in space. (Disclosure: Ariosto hosts episodes of the “Space Minds” podcast by SpaceNews, but the book was not associated with that.) That includes the efforts by the United States and China to land on and explore the Moon. For the book, Ariosto got behind-the-scenes access at Intuitive Machines as they were developing their IM-1 mission. That included the difficulties the company faced as it developed the lander, with its methalox engine, through witnessing the launch among the VIPs at the Kennedy Space Center, and then through the nail-biting landing. Interspersed with that account of IM-1 is an examination of China’s space program and its lunar efforts. He talks with Chinese officials and goes to Argentina, where China has established a ground station for communicating with those lunar missions—and, likely, for military applications as well. The book’s chapters are short, almost giving the reader whiplash as he frequently toggles between the US and China. That emerging space race is a theme of this section of the book: on one of Ariosto’s visits to Intuitive Machines’ Houston facilities, the company's CEO, Steve Altemus, gets a call from then-NASA administrator Bill Nelson. “Can you get there by March?” Altemus said Nelson asked because of the administrator’s concerns that China might attempt to lay claim to the south polar region of the Moon. There are chapters on war in space, orbital debris, SETI, planetary defense, interstellar propulsion, nuclear propulsion, terrestrial fusion research, and faster-than-light travel (roughly in that order.) If that was the entire scope of Open Space, it would be an enlightening, tightly paced account of one company’s efforts to go to the Moon as part of a broader geopolitical competition in space between the United States and China. (The book doesn’t discuss Firefly’s successful landing in 2025 and mentions Astrobotic’s Peregrine mission, which malfunctioned hours after liftoff, only in passing.) With a picture of Intuitive Machines’ Nova-C landers, used for IM-1 and -2, on the cover, you might think the book is principally about that. However, the second half of the book wanders off into other topics. It loses its focus on the Moon to examine, well, a lot of things. There are chapters on war in space, orbital debris, SETI, planetary defense, interstellar propulsion, nuclear propulsion, terrestrial fusion research, and faster-than-light travel (roughly in that order.) Ariosto again leverages his detailed reporting, including a visit to the Mars Society’s Mars Desert Research Station, where one of the analog astronauts there is the CEO of an Italian space company, to CERN’s “Antimatter Factory” that produces minute amounts of antimatter. Yet, it’s difficult in that part of the book to find a definitive theme, other than there are fascinating people doing fascinating things that are often, if not entirely, related to spaceflight. That can make for entertaining reading, but it’s not obvious it’s subject matter for a book—or, at least, this book. What Open Space does show is the current interest in the Moon and the difficulty in turning that interest into hardware that can launch and then land on the Moon. The amount of hardware making that journey may soon increase, but the difficulty level will likely not soon decrease. Jeff Foust (jeff@thespacereview.com) is the editor and publisher of The Space Review, and a senior staff writer with SpaceNews. He also operates the Spacetoday.net web site. Views and opinions expressed in this article are those of the author alone.

Floods On Mars

https://www.youtube.com/watch?v=Qv0jwlyzzKc

NASA Is For Real Developing A Nuclear Rocket To Go To Mars

https://www.youtube.com/watch?v=orzOG0KoCwE