Space, Biosecurity, and Critical Infrastructure

LESSON METADATA

Estimated study time: 7-9 hours

SECTION 0 — Why This Lesson Exists

The central puzzle of this lesson is why the international order has proven so much slower to govern outer space, biological research, and critical infrastructure than it has to govern traditional military domains, and what that lag reveals about the distribution of power in the contemporary system. Each of these three domains is defined by a structural feature that the post-1945 legal architecture was not built to handle: the technologies that generate civilian prosperity are inseparable from those that generate strategic coercion. A satellite that delivers precision navigation to a farmer’s tractor is the same satellite that guides a cruise missile; a research platform that accelerates vaccine development is the same platform that can be repurposed to enhance a pathogen; a power grid that sustains a hospital is the same grid that, if disrupted, can paralyze a city. The lesson asks how states, international institutions, and non-state actors navigate governance when the civilian-military boundary has collapsed, and why the answers they produce differ so sharply depending on where one stands in the global hierarchy of capability and vulnerability.

This lesson sits at the capstone of Module 9, Techno-Geopolitics, AI, and Emerging Domains, and it presupposes the analytical machinery developed in three earlier lessons. From L25, on space and maritime domains, the student brings the distinction between global commons and sovereign territory, and the problem of freedom of navigation in environments where no single state can enforce order. From L24, on cyber, the student brings the insight that attribution is difficult, that effects are reversible or irreversible depending on target, and that the threshold between peace and war is deliberately blurred by actors who benefit from ambiguity. From L19, on resources, the student brings the understanding that control over chokepoints and critical inputs is a form of structural power that operates beneath the level of formal diplomacy. The lesson also looks forward: to L58, on forecasting, because the domains it treats are precisely those where surprise is most likely and where early warning is most valuable; and to L61, on grand strategy, because decisions about investment in space, biosecurity, and infrastructure protection are among the most consequential long-term commitments a state can make.

The African perspective is not an afterthought in this lesson; it is the lens through which the central puzzle is first posed. From an African vantage point, the governance of space, biology, and infrastructure has historically been shaped by actors who possess the capabilities, while those who bear a disproportionate share of the risks have had limited voice in setting the rules. African states have been largely excluded from the benefits of space-based services that they nonetheless depend upon for weather forecasting, agricultural monitoring, and communications; they have been the sites of pathogen emergence and outbreak response without commensurate investment in laboratory capacity or vaccine manufacturing; and they have inherited infrastructure networks designed for extraction rather than resilience. The lesson therefore asks not only how the new domains are governed, but who governs them, whose risks are centered, and whose are rendered invisible by the framing of “global” governance.

By the end of this lesson, the student will be able to perform five analytical operations. First, they will be able to identify the causal mechanisms through which a capability in one of the three domains translates into strategic leverage, specifying the scope conditions under which that mechanism operates and the conditions under which it fails. Second, they will be able to reconstruct how each of the five perspectives—African, Chinese, Russian, Western, and UN—explains the same event differently, and to adjudicate between those explanations on the basis of evidence rather than assertion. Third, they will be able to apply the four levels of analysis—individual, state, systemic, and transnational—to a worked case, in this instance the 2021 Russian anti-satellite test against Kosmos 1408. Fourth, they will be able to distinguish description, explanation, prediction, and prescription in their own analytical writing, a discipline that the independent memo exercise is designed to enforce. Fifth, they will be able to identify the falsifiers that would undermine each major claim, so that their analysis remains open to revision rather than collapsing into advocacy.

The theoretical lineage of the lesson runs through several distinct scholarly traditions. On space security, the work of Joan Johnson-Freese emphasizes the gap between the rhetoric of space as a peaceful domain and the reality of its militarization, arguing that the United States and other major powers have consistently treated space as an extension of terrestrial military strategy while publicly committing to its peaceful use. Todd Harrison’s analyses of counterspace capabilities provide the technical and strategic vocabulary for understanding how states actually threaten one another’s space assets, distinguishing between reversible and irreversible effects and between kinetic and non-kinetic means. On biosecurity, Andrew Lakoff’s research on the governance of biological threats traces how preparedness became a dominant paradigm after the anthrax attacks of 2001, reshaping the relationship between public health, national security, and international cooperation in ways that privileged certain forms of expertise and certain kinds of threat over others. The institutional frameworks are anchored in the documentation of the United Nations Committee on the Peaceful Uses of Outer Space (COPUOS), the Biological Weapons Convention (BWC) review conferences and implementation reports, and the ongoing negotiations toward a WHO pandemic treaty or instrument.

A methodological commitment runs through the entire lesson: every claim must specify a mechanism, not merely an outcome. It is not enough to observe that states invest in anti-satellite weapons; one must explain how a direct-ascent interceptor alters the strategic calculus of an adversary, under what conditions it is usable, and what constraints—technical, political, legal—limit its employment. Similarly, it is not enough to note that the COVID-19 pandemic exposed governance failures; one must trace the causal pathway from pathogen emergence through surveillance gaps, supply-chain fragility, and geopolitical competition to the observed outcomes in mortality and economic disruption. This mechanism-level discipline is what distinguishes post-doctoral analysis from commentary, and it is the standard against which the student’s independent memo will be assessed.

SECTION 1 — Pre-Class Priming

1.1 Retrieval Warm-Up

Answer each question in two to four sentences, drawing on lessons already completed. Do not consult external sources.

1. From L25 (space and maritime domains): What is the legal distinction between the high seas and territorial waters, and how does the concept of the “global commons” apply to outer space under the 1967 Outer Space Treaty? Identify one tension between the treaty’s prohibition on national appropriation and the practice of states.

2. From L24 (cyber): What is the “attribution problem” in cyber operations, and why does it matter for deterrence? Give one example of how a state has exploited attribution ambiguity to conduct operations below the threshold of armed conflict.

3. From L19 (resources): Explain the concept of “structural power” as it applies to control over critical resources or chokepoints. How does control over a resource differ from control over the infrastructure that transports it?

4. From L12 (international institutions): What is the difference between a “hard law” treaty and a “soft law” instrument in international governance? Give one example of each from the security domain, and explain why states might prefer soft law in emerging technological domains.

5. From L7 (levels of analysis): Define the four levels of analysis used in this curriculum—individual, state, systemic, and transnational—and give one example of a causal claim at each level that could explain a state’s decision to test an anti-satellite weapon.

6. From L3 (realism and liberalism): Under what conditions does realism predict that states will cooperate to govern a common-pool resource, and under what conditions does liberalism predict that international institutions can overcome collective-action problems? Identify one point of convergence between the two theories.

1.2 Orientation Questions

These questions frame the lesson’s central puzzle. You are not expected to answer them fully before reading; use them to guide your attention.

1. If a state destroys one of its own satellites in a test, producing thousands of pieces of debris that threaten other states’ satellites, is that act best understood as a military signal, a technological demonstration, a violation of an emerging norm, or all three? What evidence would distinguish these interpretations?

2. Why did the COVID-19 pandemic produce such divergent national responses and such limited international cooperation, despite decades of pandemic preparedness planning? Which level of analysis—individual leadership, state capacity, systemic competition, or transnational supply chains—best explains the variation?

3. When a cyberattack disables a hospital’s power supply, is the target “critical infrastructure” in a legal sense, a military target, or both? How does the answer change depending on whether the attacker is a state, a criminal group, or a non-state actor?

4. What would a genuinely equitable governance framework for space, biosecurity, and critical infrastructure look like from the perspective of a state that possesses none of the relevant capabilities but bears significant risk from their misuse? Which existing institution comes closest to that standard, and where does it fall short?

1.3 Vocabulary Pre-Teach

Provisional definitions; refine as you encounter each term in context.

• Anti-satellite weapon (ASAT): A weapon designed to disable, destroy, or interfere with a satellite. ASATs include direct-ascent missiles, co-orbital systems, and directed-energy weapons. The term covers both kinetic (physical destruction) and non-kinetic (jamming, dazzling, cyber) means.

• Counterspace capability: The broader category of systems and techniques that can deny, degrade, or destroy space assets, including ASATs, electronic warfare, and cyber operations against ground stations. Not all counterspace capabilities are weapons in the legal sense.

• Positioning, Navigation, and Timing (PNT): The satellite-based services, of which GPS is the best known, that provide location and time data essential to military operations, civilian transportation, financial systems, and telecommunications. PNT is a critical infrastructure dependency.

• Intelligence, Surveillance, and Reconnaissance (ISR): The collection and processing of information about adversary capabilities and intentions, much of which depends on satellite platforms. ISR satellites are often the first targets in a counterspace campaign.

• Dual-Use Research of Concern (DURC): Biological research that is intended for legitimate scientific purposes but that could be misapplied to cause harm, for example by enhancing the transmissibility or virulence of a pathogen. The category is contested and its boundaries are politically negotiated.

• Gain-of-function research: Experiments that confer new or enhanced biological functions on an organism, such as increased transmissibility in mammals. The term became politically charged during and after the COVID-19 pandemic, when questions about the origin of SARS-CoV-2 intersected with debates about laboratory safety.

• Critical infrastructure: The systems and assets—physical and cyber—so vital to a society that their incapacitation or destruction would have a debilitating effect on security, public health, or economic stability. The definition is national, but the systems are often transnational.

• Space debris (orbital debris): Non-functional human-made objects in orbit, including spent rocket stages, defunct satellites, and fragments from collisions or tests. Debris is a negative externality: the actor who creates it does not bear its full cost.

• Co-orbital ASAT: A counterspace system that is launched into orbit and maneuvers to approach a target satellite, rather than being launched directly at it. Co-orbital systems can inspect, jam, or physically interfere with satellites and are harder to attribute than direct-ascent tests.

• Direct-ascent ASAT: A missile launched from Earth’s surface or an aircraft that travels upward to intercept and destroy a satellite in orbit. Direct-ascent tests are highly visible and produce large debris fields, making them politically costly.

• COPUOS (Committee on the Peaceful Uses of Outer Space): The UN body established in 1959 to govern the exploration and use of space for peaceful purposes. It has produced the major space treaties but lacks enforcement mechanisms and has struggled to keep pace with commercial and military developments.

• Biological Weapons Convention (BWC): The 1972 treaty prohibiting the development, production, and stockpiling of biological weapons. It has no verification mechanism, a gap that has been debated since its inception and that became acute during the COVID-19 pandemic.

SECTION 2 — LESSON CORE

2.1 Learning objectives

By the end of this lesson, the student will be able to:

1. Explain the mechanism by which space-based intelligence, surveillance, and reconnaissance (ISR), positioning, navigation, and timing (PNT), and communications have become foundational to terrestrial military operations and to civilian infrastructure such as financial settlement, power-grid synchronization, and transportation logistics, and why this dependency converts orbital assets into strategic targets whose disruption would cascade across domains. (Bloom: Understand/Explain)

2. Analyze the legal and strategic distinction between the militarization and the weaponization of outer space, evaluating how the 1967 Outer Space Treaty’s prohibitions on weapons of mass destruction in orbit and its requirement that space be used for “peaceful purposes” interact with the absence of any prohibition on conventional anti-satellite weapons, directed-energy systems, or co-orbital maneuvering vehicles. (Bloom: Analyze)

3. Compare the African, Chinese, Russian, Western, and UN perspectives on space as a strategic domain, identifying what each tradition contributes to the governance debate and what each systematically occludes, particularly regarding equity of access, sovereignty, multipolarity, deterrence, and multilateral rule-making. (Bloom: Compare/Evaluate)

4. Assess the scope conditions under which a state’s investment in counterspace capabilities is strategically rational versus destabilizing, using evidence from direct-ascent, co-orbital, and directed-energy test programs and from the debris and escalation risks they generate. (Bloom: Evaluate)

5. Synthesize the relationship between space dependency, counterspace proliferation, and strategic stability into a coherent causal argument that can be tested against historical cases, including the 2021 Russian ASAT test against Kosmos 1408, and that can be extended to biosecurity and critical-infrastructure domains. (Bloom: Synthesize)

2.2 KEY IDEA 1 — Space as a strategic domain: ISR, PNT, communications, and the militarization debate

Bolded Causal Claim: Space has become a strategic domain not because states fight in orbit, but because terrestrial military power and civilian life now depend on orbital infrastructure, making the control, denial, and protection of that infrastructure a first-order security problem whose logic is closer to that of critical infrastructure than to that of a traditional battlespace.

Mechanism: The transformation rests on three functional pillars. First, intelligence, surveillance, and reconnaissance (ISR) satellites provide the targeting data, battle-damage assessment, and situational awareness that make precision-guided munitions and network-centric warfare possible; without space-based ISR, modern conventional forces lose the ability to find, fix, and finish targets at range. Second, positioning, navigation, and timing (PNT) signals—most prominently the US Global Positioning System, but also Russia’s GLONASS, China’s BeiDou, and Europe’s Galileo—provide not only location data but the timing synchronization on which financial transaction clearing, power-grid phase balancing, telecommunications handoffs, and transportation logistics depend; a PNT disruption therefore cascades from the military into the civilian economy within hours. Third, communications satellites, including both military dedicated systems and commercial constellations, provide the command-and-control backbone that connects dispersed forces, sensors, and decision-makers across theaters. The mechanism is one of dependency-induced vulnerability: as these functions migrate to orbit, the cost of their loss rises, which creates incentives for adversaries to develop counterspace capabilities, which in turn creates incentives for the dependent state to harden, diversify, or pre-emptively defend its space assets. Joan Johnson-Freese, in Space Warfare in the 21st Century: Arming the Heavens (2016), argues that the “space as sanctuary” assumption that governed Cold War thinking has eroded precisely because space assets became too valuable to ignore and too vulnerable to protect passively; the domain shifted from a support function to a contested strategic environment. Todd Harrison’s annual Space Threat Assessment reports for the Center for Strategic and International Studies (CSIS) Aerospace Security Project document the operational reality of this shift, tracking how major powers have integrated space into their warfighting concepts and how counterspace development has accelerated in response to perceived US space dominance. The mechanism is self-reinforcing: dependency drives vulnerability, vulnerability drives counterspace development, counterspace development drives further hardening and doctrinal integration, and the cycle deepens the domain’s strategic salience without requiring a single shot fired in orbit.

Scope Conditions: The claim holds under several conditions and fails under others. It holds most strongly for states that (a) operate or depend on space-based ISR, PNT, and communications for conventional military operations, (b) face adversaries with demonstrated or suspected counterspace capabilities, and (c) have integrated space into their joint warfighting doctrine. It holds less strongly for states whose military operations are not space-dependent, whose adversaries lack counterspace options, or whose space use is confined to civilian applications such as earth observation and communications. The legal scope is also conditional: the 1967 Outer Space Treaty (OST) prohibits the placement of weapons of mass destruction in orbit and requires that the Moon and other celestial bodies be used exclusively for peaceful purposes, but it does not prohibit conventional weapons in orbit, anti-satellite tests, or the use of space for military support functions; the treaty’s “peaceful purposes” language has been interpreted by spacefaring states as permitting military support activities while prohibiting only aggressive acts. The distinction between militarization (using space to support military operations, which all major powers do) and weaponization (placing weapons in space capable of attacking targets, which remains partially contested) is therefore a legal and political construct rather than a bright line, and its stability depends on continued mutual restraint. The claim also assumes that orbital infrastructure remains concentrated enough that disruption is strategically meaningful; the proliferation of commercial mega-constellations may dilute this concentration over time, though it does not eliminate the vulnerability of the most valuable military and government satellites.

Observable Implications: If the causal claim is correct, one should observe several patterns. First, the creation or elevation of dedicated military space organizations, such as the United States Space Force (established 2019), NATO’s designation of space as an operational domain (2019), and the expansion of space commands in China, Russia, and other states. Second, increased investment in space domain awareness, satellite hardening, and alternative PNT systems as dependent states seek resilience. Third, the development and testing of counterspace capabilities by states that perceive themselves as disadvantaged in space, documented in Harrison’s annual assessments. Fourth, the integration of space considerations into arms-control and strategic-stability dialogues, including discussions of responsible behavior in space and debris mitigation. Fifth, the commercialization of space and the blurring of civilian and military satellite functions, which complicates attribution and escalation management. Sixth, rising insurance costs and risk assessments for satellite operators following debris-generating events. The 2021 Russian ASAT test against Kosmos 1408, which generated thousands of trackable debris pieces and forced the International Space Station crew to take shelter, is a direct observable implication: a state demonstrated that it could destroy a satellite in orbit, and the international community’s response—condemnation, debris-tracking efforts, and renewed calls for norms—confirmed that the domain had become strategically contested.

Perspective Note (five traditions in brief):

African (primary): The African perspective on space as a strategic domain is shaped by a fundamental asymmetry: most African states are users and beneficiaries of space services rather than operators of military space assets, and their strategic interest lies in access, equity, and development rather than in orbital warfare. African space activity has grown substantially, with Egypt (Nilesat, EgyptSat), Nigeria (NigComSat), South Africa (SumbandilaSat and the South African National Space Agency), Kenya (Taifa-1, launched 2023), Rwanda, and others developing earth-observation and communications capabilities, and with the African Union establishing the African Space Agency (AfSA), headquartered in Cairo, to coordinate continental space policy. From this vantage point, the militarization debate appears as a great-power conversation that risks crowding out the development agenda: orbital slots and radio-frequency spectrum are allocated by the International Telecommunication Union on a first-come, first-served basis that disadvantages latecomers, technology transfer remains limited, and the debris generated by counterspace tests threatens the orbital environment on which African earth-observation and climate-monitoring satellites depend. African scholars and policymakers have emphasized that space is a global commons whose benefits must be shared equitably, and that the “space for development” framing—using remote sensing for agriculture, disaster management, water resources, and climate adaptation—is as strategically significant for African states as military space is for great powers. The African perspective thus reveals what the Western security framing occludes: that the most consequential space vulnerabilities for most of the world’s population are not counterspace attacks but the denial of access, the concentration of orbital resources, and the environmental degradation of the commons. It also highlights the tension between the Outer Space Treaty’s principle that space exploration and use shall be carried out for the benefit of all countries and the practical reality that spacefaring capacity is concentrated in a handful of states. Grovogui’s broader critique of international order as structured by hierarchical sovereignty and unequal capacity resonates here: the governance of space reproduces the very inequalities it claims to transcend, and African states must engage not merely as beneficiaries but as rule-makers if the domain is to serve their interests.

Chinese: China frames space as a domain of sovereign right and national rejuvenation, emphasizing that its space program is peaceful in purpose while acknowledging its military applications. Beijing completed the BeiDou navigation constellation in 2020, operates the Tiangong space station, and pursues lunar and Mars exploration, all of which are presented as contributions to human progress and to China’s strategic autonomy. China’s official position opposes the weaponization of outer space and supports the negotiation of a treaty on the prevention of an arms race in outer space (PAROS), while simultaneously developing counterspace capabilities and conducting an ASAT test in 2007 that destroyed a defunct weather satellite and generated substantial debris. The Chinese perspective tends to attribute the militarization of space to the United States, framing American space dominance and missile-defense programs as the driving force, and to present China’s own capabilities as defensive and responsive. This perspective contributes the argument that space governance must be multipolar and that no single state should dominate the domain, but it occludes the extent to which China’s own counterspace development contributes to the security dilemma it decries.

Russian: Russia inherits the Soviet space legacy and maintains a full spectrum of space capabilities, including GLONASS, military communications, and ISR satellites, as well as demonstrated counterspace systems. Moscow frames space through a multipolarity lens, opposing what it characterizes as US attempts to achieve space dominance and supporting PAROS negotiations in the Conference on Disarmament. Russia’s 2021 ASAT test against Kosmos 1408 demonstrated its counterspace capability while generating international condemnation and debris. The Russian perspective emphasizes strategic stability and the prevention of an arms race, but it also treats space as an arena of great-power competition in which Russia must maintain parity. This perspective contributes the argument that unilateral US space policy destabilizes the domain, but it occludes Russia’s own role in debris generation and in the erosion of space norms.

Western: The Western perspective, led by the United States but shared in varying degrees by European and allied states, treats space as a warfighting domain whose security requires deterrence, resilience, and allied cooperation. The creation of the US Space Force, NATO’s space policy, and investments in space domain awareness and satellite protection reflect this framing. Western analysts such as Harrison emphasize that the United States is uniquely dependent on space and therefore uniquely vulnerable, and that this vulnerability requires both defensive measures and the development of counterspace options for deterrence. The Western perspective also includes a governance self-critique: recognition that the OST is outdated, that commercialization has outpaced regulation, and that debris and congestion threaten long-term sustainability. This perspective contributes operational realism and alliance frameworks, but it can occlude the equity concerns of non-spacefaring states and can frame space primarily through a security lens that underweights development and environmental sustainability.

UN: The United Nations perspective is institutional and legal, centered on the Committee on the Peaceful Uses of Outer Space (COPUOS), the Outer Space Treaty and its associated agreements, and the broader framework of international space law. The UN emphasizes that space is the province of all humankind, that its exploration and use should benefit all countries, and that multilateral governance is essential to prevent conflict and ensure sustainability. Recent developments include the Pact for the Future (2024), which contains commitments on space governance, and ongoing discussions of responsible behavior in space, debris mitigation, and the long-term sustainability of outer space activities. The UN perspective contributes the normative framework and the forum for negotiation, but it is constrained by the consensus-based nature of COPUOS, the absence of enforcement mechanisms, and the reluctance of major spacefaring states to accept binding limitations on their military activities in space.

SECTION 2.3 KEY IDEA 2 — Anti-satellite weapons and counterspace capabilities: direct ascent, co-orbital, directed energy

Bolded Causal Claim: The diffusion of counterspace capabilities converts satellites from protected strategic enablers into exposed and contestable assets, producing a security dilemma in which dependence on space and the ability to disrupt space assets jointly erode crisis stability, particularly when attacks are reversible, ambiguously attributable, or debris-producing.

Mechanism: Space systems are high-value, comparatively soft, and operate in predictable orbital regimes; their military utility rests on communications, positioning, navigation, and timing, and intelligence, surveillance, and reconnaissance. Counterspace capabilities exploit these vulnerabilities through several distinct mechanisms. Direct-ascent anti-satellite weapons use ground- or air-launched kinetic interceptors to destroy satellites in orbit; they are technologically mature, have been demonstrated by multiple states, and create debris that can persist for years or decades. Co-orbital systems are launched into orbit and maneuver near a target satellite, enabling inspection, jamming, dazzling, physical interference, or collision; because such systems can resemble servicing or inspection platforms, they complicate attribution and intent assessment. Directed-energy weapons use lasers or high-powered microwaves to dazzle, blind, or damage sensors and electronics, sometimes reversibly and sometimes irreversibly, with effects that may be difficult to distinguish from malfunction. Non-kinetic counterspace includes jamming, spoofing, cyber intrusion, and attacks on ground stations or data links, which are often reversible, deniable, and below the threshold of armed attack. The strategic mechanism is not simply that satellites can be destroyed; it is that a state whose military operations depend on space may face a “use it or lose it” incentive in crisis, while an attacker may choose reversible or ambiguous effects to coerce without crossing a clear escalation threshold. Deterrence is complicated because punishment in space can harm the attacker’s own assets and because denial requires costly resilience, redundancy, and maneuver. Johnson-Freese (2016) captures the broader point that space warfare is shaped less by cinematic destruction than by the gradual erosion of the sanctuary assumption and by the integration of space into conventional military planning.

Scope Conditions: This causal claim applies most strongly where (a) a state’s military effectiveness is tightly coupled to space-based services, (b) an adversary possesses or can acquire counterspace options, and (c) the two are in a crisis or conventional conflict in which space assets are perceived as force multipliers or vulnerabilities. It is less applicable to states with minimal space dependence, to conflicts in which neither side has counterspace, or to situations where the debris externality of kinetic attack is so severe that it deters use. The maturity of capabilities also matters: direct-ascent systems are proven, while co-orbital and directed-energy systems remain less mature and more dependent on precision, power, and orbital mechanics. Orbital regime matters as well; kinetic attacks in low Earth orbit create long-lived debris fields, whereas attacks in geostationary orbit may produce less debris but target extremely high-value assets. Legally, the Outer Space Treaty prohibits the placement of weapons of mass destruction in orbit but does not clearly prohibit conventional anti-satellite testing or use, leaving a permissive environment for counterspace development. The claim should not be read as predicting inevitable space war; rather, it identifies a structural pressure toward preemption, ambiguity, and escalation management problems.

Observable Implications: If this mechanism is operating, one should observe doctrinal reclassification of space as a warfighting domain, increased investment in space situational awareness, satellite maneuverability, proliferated constellations, hardening, and rapid reconstitution. One should also observe public counterspace demonstrations, debris-generating events, and diplomatic efforts to constrain them, including national moratoria on destructive direct-ascent anti-satellite testing and multilateral resolutions calling for restraint. Commercial and allied satellites increasingly become entangled with military functions, blurring the line between civilian and military targets and complicating deterrence. Observable indicators include changes in satellite “pattern of life,” proximity operations, reported jamming or spoofing incidents, debris-tracking catalogs, and the growth of resilience programs. Arms-control proposals such as no-first-placement or responsible-behavior frameworks should be understood partly as responses to these observable pressures. Harrison (2021) is useful for tracking how counterspace threats are assessed in relation to resilience and deterrence, though the precise balance between vulnerability and adaptation remains contested.

Perspective Note (five traditions in brief):
African: African states are predominantly users rather than owners of space infrastructure, relying on foreign satellites for weather, agriculture, communications, and disaster response; counterspace debris therefore threatens a shared commons on which African development depends, while African voices in multilateral forums emphasize equitable access, capacity building, non-appropriation, and the developmental uses of space. The African perspective is concerned that great-power militarization diverts resources and attention from space-for-development priorities, and it tends to support constraints on debris-producing tests without necessarily possessing indigenous counterspace capabilities.
Chinese: China frames space as a strategic domain and sovereign right, opposes the weaponization of outer space rhetorically, and has promoted multilateral arms-control initiatives such as the draft treaty on the prevention of the placement of weapons in outer space, while also developing counterspace capabilities that it presents as defensive and responsive to perceived U.S. space dominance.
Russian: Russia draws on a legacy of anti-satellite development and frames space competition through multipolarity, treating U.S. and NATO space militarization as a threat to strategic stability while supporting arms-control proposals and maintaining counterspace options for deterrence and parity.
Western: Western, especially U.S. and NATO, perspectives treat space as a warfighting domain and emphasize counterspace threats from China and Russia, resilience, deterrence, and responsible behavior, including national moratoria on destructive direct-ascent testing; this perspective also contains an internal critique of weaponization, commercialization, and debris externalities.
UN: The UN perspective rests on the Outer Space Treaty, the Committee on the Peaceful Uses of Outer Space, and the long-term sustainability agenda; it seeks norms on debris mitigation and responsible behavior but is constrained by consensus decision-making, the absence of enforcement, and major powers’ reluctance to accept binding military limitations.

SECTION 2.4 KEY IDEA 3 — Biosecurity: pandemics, labs, dual-use research, and the post-COVID governance landscape

Bolded Causal Claim: Biological capabilities are inherently dual-use, so the same scientific and industrial advances that improve health, agriculture, and industry also expand the range of actors and accidents capable of causing catastrophic harm; after COVID-19, geopolitical distrust has weakened rather than consolidated the cooperative institutions needed to govern those risks, leaving a biosecurity landscape marked by securitization, inequality, and incomplete verification.

Mechanism: The core mechanism is dual-use: DNA sequencing, synthesis, gene editing, high-containment laboratories, and increasingly AI-assisted biological design can be used for vaccines, therapeutics, diagnostics, and agricultural resilience, but the same knowledge and infrastructure can be misused for biological weapons or can release dangerous pathogens accidentally. Biosafety concerns accidental exposure and containment failure; biosecurity concerns deliberate misuse, theft, or diversion. Pandemic risk is amplified by zoonotic spillover, land-use change, climate stress, urbanization, global travel, and dense supply chains. Governance is layered and incomplete: the Biological Weapons Convention prohibits biological weapons but has no formal verification mechanism; the World Health Organization’s International Health Regulations focus on detection, notification, and response; national biosafety and biosecurity regimes vary widely; export controls and funding oversight are uneven. COVID-19 exposed these gaps through uncertain origins, fragile supply chains, inequitable access to vaccines and diagnostics, misinformation, and the politicization of public health. It also accelerated health securitization: states treated pathogens as national-security threats, imposed export controls, and used health assistance as geopolitical leverage. Post-COVID governance is shaped by a feedback loop in which demands for transparency and verification collide with sovereignty, while demands for equity collide with intellectual property and industrial capacity. Lakoff (2017) is useful for understanding how preparedness is not merely a technical problem but a governmental rationality that defines populations, risks, and responsibilities in particular ways, often privileging some forms of security over others.

Scope Conditions: This claim applies most strongly to high-consequence pathogens, dual-use research of concern, and globally connected societies in which a local outbreak can become a pandemic. It is less applicable to low-consequence endemic disease or to settings where biological research is minimal and health systems are robust. The governance problem is most acute where laboratory capacity, surveillance, and public-health infrastructure are weak or unevenly distributed, and where trust among major powers is low. The biological-weapons taboo remains a real constraint, but it is not self-enforcing; it depends on norms, national implementation, and the absence of incentives to defect. Post-COVID reforms may improve preparedness, but they can also restrict legitimate research, stigmatize scientists, or securitize health in ways that disadvantage poorer states. The claim should not be read as asserting that COVID-19 was a biological weapon or that a specific laboratory origin has been proven; rather, it treats origin uncertainty itself as a governance problem that shapes trust and policy.

Observable Implications: If this mechanism is operating, one should observe expanded national biosecurity strategies, revised laboratory oversight rules, debates over gain-of-function research, tighter export controls on biotechnology, and increased funding for pandemic preparedness. One should also observe multilateral processes such as Biological Weapons Convention review conferences, confidence-building measures, and negotiations over a pandemic agreement, alongside amendments to the International Health Regulations. Vaccine and diagnostic manufacturing initiatives in the Global South, technology-transfer disputes, and “vaccine equity” campaigns are observable indicators of the inequality dimension. Origin investigations, lab-leak discourse, misinformation, and accusations of biological weapons activity indicate the trust deficit. Metrics may include preparedness assessments, laboratory incident reporting, BWC compliance measures, vaccine coverage gaps, and the geographic distribution of biotechnology capacity. BWC reports and WHO pandemic treaty negotiations provide institutional evidence of both the demand for governance and the difficulty of achieving it.

Perspective Note (five traditions in brief):
African: African states experienced COVID-19 through structural inequality rather than merely epidemiological risk: limited vaccine access, diagnostic dependence, weak manufacturing capacity, and externally determined priorities revealed a pattern in which African populations are protected last and governed from afar. African scholarship, including work by Mamdani, Bayart, and Rodney, emphasizes extraversion, dependency, and the political economy of external control; from this vantage point, biosecurity is inseparable from health sovereignty, technology transfer, and equitable access to medical countermeasures. African perspectives often support stronger multilateral preparedness while warning that securitization can restrict research access, stigmatize African laboratories, or reproduce donor-driven agendas. The African CDC and regional initiatives represent efforts to convert vulnerability into institutional capacity, but they remain constrained by financing and global supply chains.
Chinese: China frames biosecurity as a matter of sovereignty, development, and state capacity, emphasizing biosafety legislation, laboratory governance, and the legitimacy of its pandemic response while opposing accusations that politicize origins or stigmatize Chinese science. It supports the Biological Weapons Convention but resists intrusive verification mechanisms that it regards as sovereignty-infringing, and it uses vaccine diplomacy and health assistance as instruments of international influence.
Russian: Russia frames biosecurity through multipolarity and suspicion of Western, especially U.S., biological activities near its borders, emphasizing Biological Weapons Convention strengthening and verification while using biosecurity narratives as geopolitical instruments. It presents the pandemic as evidence of Western institutional failure and insists on sovereignty over health and research governance.
Western: Western perspectives emphasize laboratory safety, oversight of dual-use research of concern, pandemic preparedness, and modernization of the Biological Weapons Convention, while also engaging in self-critique regarding vaccine inequity, origin opacity, politicization, and the securitization of health. They focus on compliance, transparency, and verification but remain divided over how intrusive international oversight should be.
UN: The UN perspective is anchored in the World Health Organization and the Biological Weapons Convention, with emphasis on equity, preparedness, international health regulations, and multilateral cooperation. It is constrained by sovereignty, funding shortfalls, geopolitical distrust, and the absence of robust verification, so its contribution is primarily normative and coordinative rather than coercive.

2.5 KEY IDEA 4 — Critical infrastructure targeting — the blurring of civilian/military and the evolution of sabotage

Bolded Causal Claim: Critical infrastructure has become a central object of strategic competition because civilian systems now carry military functions, and because sabotage has evolved from kinetic destruction into reversible, deniable, software-enabled disruption that exploits legal and institutional gaps.

Mechanism: Critical infrastructure is conventionally defined as the systems and assets whose incapacitation or destruction would have a debilitating effect on security, the economy, public health, or safety. The category includes energy generation and distribution, water and wastewater systems, transportation networks, financial services, health-care systems, communications, and the ground segments that support space-based services. The first mechanism is functional fusion: modern military power depends on civilian infrastructure for command and control, logistics, intelligence fusion, precision timing, cloud computing, and data transport. A state’s armed forces may own satellites and weapons platforms, but they routinely rely on civilian power grids, commercial undersea cables, internet service providers, and global navigation and timing signals. This means that an attack on civilian infrastructure can produce military effects without a conventional armed attack, and that the attacker can plausibly frame the operation as criminal, technical, or non-state activity. The civilian/military boundary, which underpins much of the law of armed conflict and deterrence theory, becomes analytically and legally unstable.

The second mechanism is the evolution of sabotage itself. Historically, sabotage meant physical destruction: explosives on rail lines, arson in factories, or covert action against industrial plants. Contemporary sabotage increasingly operates through digital access to operational technology. Adversaries can pre-position in networks, manipulate control systems, alter data, disable safety mechanisms, or trigger ransomware-like effects in hospitals, pipelines, water treatment facilities, or port logistics systems. These operations are often reversible, which lowers the perceived cost of escalation, but they can still cause physical harm, environmental damage, or cascading failures. Reversibility does not mean harmlessness; it means that the attacker may believe the operation stays below the threshold of armed conflict while the defender experiences it as a strategic attack. The evolution also includes supply-chain compromise, in which malicious code or hardware is inserted before systems are deployed, and the exploitation of common software dependencies that create single points of failure across sectors and borders.

A third mechanism is interdependence and cascading failure. Critical infrastructure is not a set of isolated assets but a network of networks. Electricity depends on fuel supply and water cooling; water depends on electricity; hospitals depend on both; financial settlement depends on timing signals; ports depend on customs, fuel, and communications. Just-in-time logistics and lean inventories reduce buffers. Undersea cables concentrate global data flows through a small number of chokepoints. Common cloud providers and software platforms create correlated vulnerabilities. Consequently, a localized intrusion can propagate across sectors and jurisdictions, producing effects larger than the attacker’s immediate target. This creates strategic leverage disproportionate to the technical sophistication of the operation.

A fourth mechanism is the attribution and governance gap. Infrastructure is often privately owned and operated, while national security responsibility remains public. Attribution in cyberspace is technically and politically uncertain, especially when adversaries use proxies, criminal ecosystems, or “living off the land” techniques that blend into legitimate administrative activity. International law has not settled when a cyber operation against infrastructure constitutes a use of force or an armed attack, nor has it established clear standards for countermeasures, due diligence, or state responsibility for non-state actors operating from a state’s territory. The result is a permissive environment in which states can probe, coerce, and signal while maintaining deniability. The blurring of civilian and military functions therefore does not merely complicate targeting; it complicates deterrence, because deterrence depends on credible attribution, shared thresholds, and predictable response options.

Scope Conditions: The causal claim holds most strongly where operational technology is networked and remotely accessible, where legacy systems were not designed for adversarial environments, and where ownership is fragmented between public regulators and private operators. It is weaker where systems are air-gapped, manually overridden, redundantly designed, or protected by mature sector-specific regulation. The claim also depends on the adversary’s risk tolerance and on the target society’s resilience: a society with stockpiles, manual procedures, and rapid incident response may absorb disruption that would destabilize a more brittle system. Legal ambiguity is a scope condition rather than a universal constant; some states have developed domestic thresholds and reporting regimes that reduce uncertainty, while others have not. Finally, the blurring of civilian and military functions is most acute in advanced, digitally integrated economies and in conflict zones where civilian infrastructure is already militarized; it is less pronounced where infrastructure is sparse, manually operated, or not integrated into military planning.

Observable Implications: If the mechanism is operating, one should observe an increase in reported intrusions into energy, water, health, transportation, and communications systems, without a corresponding increase in publicly acknowledged armed attacks. One should also observe policy shifts from purely voluntary guidance toward mandatory reporting, sector-specific cybersecurity requirements, and resilience planning, as seen in frameworks such as the European Union’s NIS2 Directive and national critical infrastructure protection programs. Market responses should include growth in cyber insurance, third-party risk assessment, tabletop exercises, and vendor security requirements. Militarily, one should observe the integration of cyber commands with infrastructure defense, the development of “defend forward” or persistent engagement doctrines, and greater attention to space ground segments, undersea cables, and timing infrastructure as strategic assets. Internationally, one should observe repeated attribution statements, sanctions, and diplomatic protests, alongside debates over whether international humanitarian law applies to cyber operations against civilian infrastructure and whether certain infrastructure should be treated as protected. In the biosecurity domain, one should observe heightened concern about the cybersecurity of laboratories, hospitals, and pharmaceutical supply chains, because biological and digital vulnerabilities increasingly overlap.

Perspective Note (five traditions in brief): African: The African perspective begins from the material reality that critical infrastructure is both a developmental lifeline and a vector of external control. Many African states inherited infrastructure designed for extraction rather than national integration, and contemporary systems often depend on foreign financing, foreign technology, and foreign operators. From this vantage point, sabotage and disruption are not abstract strategic possibilities but immediate threats to water, electricity, health care, food systems, and state capacity. African scholarship on extraversion and infrastructural violence highlights how external actors can shape domestic outcomes through control of networks, standards, and financing. The priority is therefore not only deterrence but resilience, sovereignty, and equitable capacity building: local maintenance capability, diversified supply chains, regional interconnection, and governance that prevents infrastructure from becoming a hostage to external power. The African perspective also warns that securitizing infrastructure without addressing underinvestment can deepen inequality, because protection may be concentrated in elite or extractive nodes while ordinary users remain exposed.

Chinese: The Chinese perspective treats critical infrastructure security as an extension of sovereignty, development, and national security. It emphasizes state capacity, centralized coordination, and the protection of infrastructure from both foreign interference and domestic instability. Chinese discourse often frames cyberspace and infrastructure governance in terms of cyber sovereignty, meaning that states have the right to manage and secure networks within their territory. This perspective supports strong domestic regulation, industrial policy, and the development of indigenous technology, while resisting external attribution or intervention that it regards as politicized. It contributes a focus on development-security integration and on the role of the state in coordinating public and private actors, but it may occlude concerns about transparency, independent oversight, and the civil-liberties implications of expansive security controls.

Russian: The Russian perspective frames critical infrastructure targeting within a broader discourse of information security and hybrid conflict. It emphasizes the vulnerability of state and societal systems to external manipulation, including through information and communication technologies, and it often treats Western attributions of cyber activity as politically motivated. Russian strategic thought has long stressed the importance of protecting information resources and maintaining sovereign control over domestic networks. This perspective contributes attention to the political and informational dimensions of infrastructure disruption, but it may occlude accountability for state-sponsored operations and can blur the distinction between defensive sovereignty and offensive interference. Its multipolarity framing also tends to treat infrastructure competition as part of a wider contest over the international order rather than as a technical governance problem.

Western: The Western perspective is shaped by a combination of deterrence theory, public-private partnership, and legal-institutional development. It emphasizes attribution, resilience, sectoral regulation, and the application of international law to cyber operations. Western states have invested heavily in critical infrastructure protection, incident response, and military cyber capabilities, while also debating how to defend privately owned systems without over-militarizing civilian space. This perspective contributes sophisticated technical and legal analysis, but it is subject to self-critique: it can over-securitize infrastructure, impose compliance burdens on private operators, rely on uncertain attribution, and struggle to reconcile deterrence with the reality that much infrastructure disruption occurs below the threshold of armed conflict. It also faces tension between openness and security in globally integrated supply chains.

UN: The UN perspective is anchored in multilateral norms, capacity building, and the protection of civilian objects. It emphasizes voluntary norms of responsible state behavior in cyberspace, including the principle that states should not conduct or knowingly support activity that intentionally damages critical infrastructure, and that they should respond to requests for assistance. The UN framework also stresses confidence-building measures, information sharing, and assistance to developing states. Its contribution is normative and coordinative rather than coercive, because it lacks enforcement mechanisms and depends on consensus among states with divergent interests. It is constrained by sovereignty, funding limitations, and the difficulty of verifying compliance, but it remains the primary forum for articulating shared expectations about infrastructure protection.

2.6 KEY IDEA 5 — The new domains and the international rule-making effort

Bolded Causal Claim: The expansion of strategic competition into space, cyber, biosecurity, and critical infrastructure has generated a fragmented, power-asymmetric rule-making environment in which binding treaties are scarce, soft law and technical standards proliferate, and governance outcomes depend on forum selection, capacity, and great-power bargaining.

Mechanism: The first mechanism is institutional lag. International law and organizations were built around territorial states, conventional weapons, and relatively slow technological change. New domains do not fit neatly into existing categories. Space is governed by treaties negotiated during the Cold War that prohibit national appropriation and weapons of mass destruction in orbit but do not comprehensively address debris, rendezvous and proximity operations, or counterspace capabilities. Biology is governed by the Biological Weapons Convention, which lacks a verification protocol and struggles with dual-use research, synthetic biology, and pandemic preparedness. Cyberspace and critical infrastructure lack a universal treaty altogether; governance relies on non-binding norms, regional frameworks, and domestic regulation. The result is that technological change outpaces legal adaptation, and states operate in zones of interpretive ambiguity.

The second mechanism is forum proliferation and forum shopping. Rule-making now occurs simultaneously in the United Nations, specialized agencies such as the World Health Organization and the International Telecommunication Union, regional organizations, export-control regimes, standards bodies, industry consortia, and bilateral arrangements. States and firms select forums that favor their interests. Major powers may prefer flexible, non-binding arrangements that preserve strategic freedom; smaller states may prefer binding rules and capacity-building; private actors may prefer technical standards that entrench their market position. This multiplicity can be productive, because it allows experimentation and adaptation, but it also produces fragmentation, duplication, and inconsistent obligations. A state may be bound by one framework in a regional organization, another in a UN process, and a third through procurement or supply-chain requirements.

The third mechanism is the shift from disarmament to responsible behavior. In domains where verification is difficult or politically unacceptable, states have moved from negotiating prohibitions toward articulating norms of responsible conduct, confidence-building measures, and transparency. The UN Group of Governmental Experts and Open-Ended Working Group on information and telecommunications have produced consensus reports on responsible state behavior in cyberspace. The UN Committee on the Peaceful Uses of Outer Space has adopted guidelines for the long-term sustainability of outer space activities. The Biological Weapons Convention has developed intersessional work programs on science and technology, biosafety, and preparedness. These instruments are valuable because they create shared expectations and vocabularies, but they are not treaties and do not create enforcement mechanisms. They depend on voluntary compliance and political will.

The fourth mechanism is power asymmetry in standard-setting. In new domains, technical capacity is a form of power. States and firms that control satellite constellations, cloud infrastructure, biotechnology platforms, or cybersecurity tools can shape de facto rules through design choices, licensing, export controls, and market access. Export-control regimes such as the Australia Group and the Wassenaar Arrangement, along with national sanctions and investment screening, function as governance instruments even when they are not framed as law. This means that rule-making is not only diplomatic; it is infrastructural. The states and companies that build and operate systems often determine how they are used, monitored, and secured. Weaker states may find themselves governed by standards they did not help design, while major powers retain discretion through exceptions, reservations, and non-participation.

The fifth mechanism is contestation over sovereignty and openness. New domains raise recurring questions: Who controls orbital slots and spectrum? Who owns biological data and genetic resources? Who has authority over cross-border data flows and infrastructure? Who is responsible for debris, pandemics, or cyber intrusions? Major powers disagree on whether governance should emphasize state sovereignty and non-interference or openness, interoperability, and multilateral oversight. This disagreement is not merely ideological; it reflects different capabilities and vulnerabilities. States with advanced space, biotech, and cyber capacities may prefer flexible rules that preserve advantage, while states with fewer capabilities may seek constraints, access, and assistance. The result is that rule-making becomes an arena of strategic competition rather than neutral administration.

Scope Conditions: The claim that rule-making is fragmented and power-asymmetric holds most strongly where technology is dual-use, rapidly evolving, and difficult to verify. It is weaker where a single dominant actor can impose standards, where technical consensus is strong, or where a well-established treaty regime already exists. Binding treaties remain possible when major powers share an interest in restraint, as in some arms-control contexts, but they are difficult when verification is intrusive or when states fear that constraints will lock in disadvantage. Soft law is more likely when consensus is required but trust is low. The effectiveness of any rule also depends on domestic implementation, industry compliance, and monitoring capacity; a well-drafted guideline that is not implemented domestically has limited effect. Finally, the claim should not be read as implying that no governance exists: there is substantial governance, but it is uneven, layered, and often non-binding.

Observable Implications: If the mechanism is operating, one should observe few new comprehensive binding treaties in space, cyber, biosecurity, or infrastructure, alongside a proliferation of guidelines, codes of conduct, voluntary commitments, and technical standards. One should observe UN processes producing incremental outputs rather than transformative agreements, such as long-term sustainability guidelines, responsible-behavior reports, and intersessional work programs. One should observe the expansion of national regulations, export controls, and investment screening with extraterritorial effects. One should observe private standards bodies, cloud providers, biotechnology firms, and satellite operators exercising de facto regulatory power through terms of service, licensing, and design. One should observe persistent disputes over definitions, thresholds, and verification, including debates over what counts as an armed attack in cyberspace, how to attribute biological incidents, and how to manage orbital debris. One should also observe “responsible behavior” and “risk reduction” replacing disarmament as the dominant diplomatic vocabulary, because these frames allow cooperation without requiring intrusive verification or equal restraint.

Perspective Note (five traditions in brief): African: The African perspective insists that rule-making in new domains must be evaluated by its effects on equity, access, and capacity. African states are often rule-takers in regimes designed by major powers, and their priorities include satellite access, spectrum allocation, pandemic preparedness, technology transfer, and protection of critical infrastructure. African scholarship and diplomacy frequently emphasize common but differentiated responsibilities, inclusive participation, and the avoidance of new forms of dependency. From this vantage point, governance that focuses only on security risks can neglect development needs, while governance that focuses only on access can neglect safety and accountability. The African perspective therefore calls for rules that are not only non-discriminatory in form but also redistributive in effect, with sustained investment in African scientific, regulatory, and technical capacity.

Chinese: The Chinese perspective emphasizes sovereignty, development, and multipolarity in rule-making. It supports multilateral institutions but resists intrusive verification or governance arrangements that it regards as instruments of Western dominance. Chinese discourse often frames new domains through concepts such as cyber sovereignty and a community of shared future for mankind, stressing state equality, non-interference, and the right to development. This perspective contributes a challenge to Western-centric governance and a demand for greater voice for developing states, but it may occlude concerns about transparency, independent oversight, and the security implications of state-centric control. It also tends to favor state-led governance over private or civil-society participation.

Russian: The Russian perspective frames rule-making in new domains as part of a broader struggle for a multipolar international order. It emphasizes the equality of states, opposes what it sees as Western monopoly over norms and standards, and stresses information security rather than the narrower Western concept of cybersecurity. Russian diplomacy often supports binding treaties and opposes unilateral sanctions or extraterritorial regulation. This perspective contributes attention to power asymmetry and to the political uses of norm-setting, but it may occlude accountability for state behavior and can treat governance disputes primarily as geopolitical contests rather than technical or humanitarian problems. It also tends to favor state sovereignty over individual or corporate rights.

Western: The Western perspective is anchored in a rules-based international order, responsible state behavior, transparency, and verification. It supports multilateral governance but also relies on alliances, export controls, and private-sector partnerships. Western states have been active in developing norms for cyberspace, space sustainability, and biosecurity, while also engaging in self-critique about legitimacy, overreach, and the gap between rhetoric and practice. This perspective contributes legal sophistication and institutional capacity, but it is vulnerable to charges of double standards, especially when powerful states exempt themselves from constraints or use governance mechanisms to preserve technological advantage. Its self-critique increasingly acknowledges that governance must be inclusive and that standards must be legitimate to be effective.

UN: The UN perspective is anchored in multilateralism, consensus, and capacity building. It provides the primary forums for discussing new domains, including COPUOS for space, the BWC and WHO for biosecurity, and the General Assembly processes for cyberspace. Its contribution is to articulate shared norms, facilitate dialogue, and support developing states. It is constrained by the need for consensus, funding shortfalls, geopolitical distrust, and the absence of robust enforcement. In practice, the UN perspective is less a single actor than a framework within which competing state perspectives contend, but it remains indispensable for legitimizing rules and preventing unilateralism. Its central challenge is to move from norm articulation to implementation without losing the inclusivity that gives its outputs authority.

SECTION 2.7 FIVE PERSPECTIVES IN DEPTH

2.7.1 African Perspective (PRIMARY)

The African perspective on space, biosecurity, and critical infrastructure must be reconstructed from within rather than treated as a regional application of Western security theory. Its starting point is not the question of how to manage new domains as strategic arenas among great powers, but the question of how those domains reproduce, extend, or potentially interrupt historically unequal structures of power. African scholarship on colonialism, dependency, extraversion, and decoloniality provides the theoretical vocabulary for this reconstruction. Grovogui’s critique of international legal order as a historically racialized and imperial project; Mbembe’s analysis of necropolitics and the infrastructures through which life and death are distributed; Bayart’s account of the extraverted African state; Mamdani’s distinction between citizen and subject; Rodney’s demonstration that underdevelopment is an active historical process; Nkrumah’s theory of neo-colonialism; Nyerere’s insistence on self-reliance; Cabral’s recovery of culture as a site of resistance; Fanon’s analysis of colonial violence and the need for a new humanism; Aning and Danso’s work on African security governance; Tamale’s decolonial Afro-feminism; and Oyěwùmí’s critique of colonial categories all converge on a common insight: the “global” in global governance is not a neutral container but a historically produced hierarchy. From this vantage point, space, biosecurity, and critical infrastructure are not empty frontiers awaiting rules; they are already saturated with colonial and neo-colonial relations.

In the space domain, the African perspective begins with access rather than weaponization. African states and regional institutions have invested in satellite programs for communications, earth observation, weather forecasting, agriculture, and disaster management, but these programs remain structurally dependent on foreign launch services, components, data-processing platforms, and financing. The issue is not simply technological lag; it is the political economy of orbital access, spectrum allocation, and data ownership. Historically, the allocation of orbital slots and radio frequencies occurred within institutions and timelines that privileged early spacefaring powers. African states therefore approach space governance with a dual demand: non-militarization and equitable participation. They generally support the peaceful uses of outer space and resist the placement of weapons in orbit, but they also insist that peaceful use must include meaningful access, technology transfer, and capacity building. The African Space Agency and national programs are not merely symbols of prestige; they are attempts to secure sovereign control over data that describe African land, resources, populations, and climate. From an African perspective, earth observation can become a form of data colonialism when imagery, analytics, and value-added services are owned and monetized by external actors. The contribution of this perspective is to show that space security is not only about anti-satellite weapons and debris; it is also about who owns the infrastructures of seeing, measuring, and knowing the continent.

The African perspective also reframes the biosecurity domain. Western and UN discussions often center on laboratory safety, dual-use research, pathogen surveillance, and pandemic preparedness. These are necessary, but African scholarship and policy experience highlight that biosecurity is inseparable from biosovereignty. The COVID-19 pandemic exposed profound asymmetries: delayed vaccine access, dependence on external manufacturing, weak regulatory and cold-chain capacity, and the stigmatization of African states when new variants were identified. The identification of the Omicron variant in South Africa, followed by travel bans and political blame, illustrated how genomic surveillance can be coupled with punitive rather than solidaristic responses. African states and scholars therefore emphasize pathogen access and benefit sharing, technology transfer, local manufacturing, and the decolonization of global health governance. The BWC and WHO pandemic treaty negotiations are not merely technical exercises; they are arenas in which African states seek to prevent biological resources and data from being extracted without reciprocal benefit. Tamale’s decolonial Afro-feminism adds that biosecurity is gendered: women and marginalized communities often bear the care burdens of pandemics while being excluded from research governance and benefit-sharing. Oyěwùmí’s critique of colonial categories reminds us that “global health” categories can obscure local epistemologies and community-based healing systems. The African perspective thus contributes a view of biosecurity as structural violence and equity, not only as laboratory risk.

Critical infrastructure is similarly reinterpreted. In much Western security discourse, critical infrastructure refers to systems whose disruption would harm national security, economic stability, or public safety. The African perspective asks a prior question: critical for whom? Much infrastructure on the continent—ports, mines, pipelines, power plants, telecommunications, and transport corridors—has been financed, owned, or operated in ways that serve external extraction and global supply chains more than local development. Bayart’s concept of extraversion helps explain how African states and elites have historically oriented infrastructure toward external patrons and markets. Rodney and Nkrumah provide the historical depth: underdevelopment and neo-colonialism were not accidents but structured processes that shaped infrastructure as an instrument of extraction. Consequently, sabotage, theft, and disruption in African contexts cannot be understood solely through the lens of hybrid warfare or great-power competition. They are also embedded in local political economies of resource plunder, state neglect, unemployment, and contested sovereignty. The African perspective therefore treats resilience not only as technical hardening, redundancy, and cyber defense, but also as social and political legitimacy. Informal networks, community coping mechanisms, and local knowledge often sustain populations when formal systems fail. Mbembe’s necropolitics is relevant here: infrastructure can be a technology of abandonment as much as of development, determining whose lives are protected and whose are expendable.

The normative stance that follows from this analysis is not anti-technology or anti-cooperation. It is a demand for equity, sovereignty, and historical responsibility. African states generally support multilateral governance of new domains, but they are skeptical of frameworks that are formally inclusive yet substantively unequal. In space, this means support for non-weaponization combined with demands for capacity building and data sovereignty. In biosecurity, it means support for the BWC and WHO processes combined with demands for technology transfer, local manufacturing, and fair benefit sharing. In critical infrastructure, it means support for resilience and security combined with demands that infrastructure serve local populations and that external investment not reproduce extractive patterns. Nyerere’s ujamaa and Cabral’s insistence on returning to the source provide ethical anchors: development must be rooted in the people and their material conditions, not imposed by external models. Fanon’s new humanism suggests that the goal is not merely inclusion in existing hierarchies but transformation of the terms of participation.

The African perspective also contributes a distinctive critique of the other four perspectives. Against the Chinese and Russian emphasis on sovereignty and multipolarity, it warns that state sovereignty without internal accountability can become a shield for elite extraversion and external dependency. Against the Western emphasis on rules and resilience, it exposes how “rules-based order” can universalize the priorities of powerful states and commercial actors. Against the UN emphasis on consensus and capacity building, it notes that capacity building without power redistribution risks perpetuating dependency. Its central claim is that new domains cannot be governed equitably unless the historical and structural inequalities that shape them are addressed. This is not a rejection of international law or multilateralism; Grovogui’s work shows that African states have long engaged international law strategically, even while recognizing its imperial genealogies. It is a demand that governance be measured not only by the absence of weapons or the presence of treaties, but by the distribution of capabilities, benefits, and risks.

The perspective has scope conditions and occlusions that must be acknowledged. It is strongest when analyzing structural inequality, historical responsibility, and the political economy of technology. It is weaker when the immediate problem is a technical security dilemma requiring rapid coordination, such as debris-generating ASAT tests or fast-moving pandemics. In those moments, the African perspective may understate the urgency of great-power restraint and the need for universal compliance. It may also risk romanticizing informal resilience or state-led development, underestimating intra-African inequalities, non-state violence, and the agency of African elites in reproducing dependency. Mamdani’s citizen/subject distinction is a reminder that African states are not unitary actors; they contain internal hierarchies that shape who benefits from space programs, biosecurity investments, or infrastructure projects. Aning and Danso’s work on African security architecture suggests that regional institutions have growing capacity but remain constrained by funding, political will, and external influence. The perspective therefore should not be read as a single voice; it is a field of debate among states, scholars, activists, and communities.

Nevertheless, the African vantage point reveals what the other four perspectives often miss: the coloniality of new domains. It shows that space is not merely a strategic high ground but a field of data extraction; that biosecurity is not merely laboratory safety but biosovereignty and equity; that critical infrastructure is not merely a target set but a political economy of extraction and abandonment. Its strongest counterargument is that historical grievance cannot override present technical risks, and that universal rules require universal compliance regardless of capacity. The African reply is that rules without equity are not universal; they are hegemonic. The value of the perspective lies in forcing the other four to confront the question of for whom new domains are governed, and at whose cost.

2.7.2 Chinese Perspective

The Chinese perspective on space, biosecurity, and critical infrastructure is organized around sovereignty, development, and multipolarity. It treats new domains as extensions of national development and state security, while framing global governance as a process that must respect sovereign equality and non-interference. In space, China presents itself as a major spacefaring power committed to peaceful uses, but also as a state that will not accept permanent technological subordination. Its official position supports the prevention of an arms race in outer space and opposes the weaponization of space, while simultaneously developing counterspace capabilities that it frames as defensive, deterrent, or responsive to perceived US and allied militarization. The 2007 ASAT test and subsequent co-orbital and directed-energy research are interpreted within this perspective as necessary capabilities in a competitive environment, not as aggressive acts. China also emphasizes its contributions to space access for developing states, including satellite launches and cooperation, and supports multilateral institutions such as COPUOS. Its normative stance is that space governance must not become a vehicle for freezing existing hierarchies or legitimizing unilateral dominance.

In biosecurity, the Chinese perspective stresses state sovereignty, the BWC, and opposition to politicization. China supports strengthening the BWC, including verification mechanisms, and has criticized US biological activities and overseas laboratories, particularly in the context of former Soviet states. During COVID-19, China emphasized state-led containment, technological mobilization, and vaccine diplomacy, while rejecting origin-tracing investigations that it viewed as politically motivated. The perspective treats biosecurity as a matter of national capacity and international equity: developing states need technology transfer, manufacturing capacity, and fair access to medical countermeasures. It also frames biosafety and dual-use research within a sovereignty paradigm, resisting external inspection or conditionality that it perceives as infringing on domestic jurisdiction. This contributes a powerful challenge to Western claims of neutral scientific governance, highlighting how biosecurity can be used to stigmatize or constrain rival states.

On critical infrastructure, China’s perspective is shaped by cyber sovereignty, infrastructure protection, and the Belt and Road Initiative. It views critical infrastructure as a domain of national jurisdiction and development, and it emphasizes the right of states to regulate data, networks, and physical systems within their territory. Chinese policy and corporate actors have invested heavily in ports, power, telecommunications, and transport infrastructure across the Global South, framing these projects as development partnerships. From Beijing’s vantage point, Western criticism of such projects often reflects geopolitical competition rather than genuine security concern. The perspective contributes an alternative to Western public-private resilience models by foregrounding state capacity, long-term planning, and South-South cooperation. It also insists that infrastructure security must not be used to justify exclusionary standards or technological decoupling.

The Chinese perspective’s strength is its ability to articulate a non-Western vision of multipolar governance and to expose double standards in Western security discourse. It gives voice to states that reject the idea that the United States and its allies should define the norms of new domains. However, it has significant occlusions. Its sovereignty framing can obscure transparency, accountability, and human-rights concerns, particularly when state control is conflated with public interest. Its support for multilateral arms control coexists with opaque counterspace development, creating a credibility gap. In biosecurity, its emphasis on sovereignty can resist legitimate scrutiny of laboratory safety and outbreak reporting. In infrastructure, its development narrative can understate debt, dependency, and local political risks associated with large projects. The perspective is therefore best understood as a strategic and normative counterweight to Western dominance, but one that also reproduces state-centric blind spots and may use equity rhetoric to shield national capabilities.

2.7.3 Russian Perspective

The Russian perspective on space, biosecurity, and critical infrastructure is rooted in a multipolar worldview and a sense of strategic encirclement. It treats new domains as arenas in which the United States seeks to preserve unipolar dominance, and it frames Russian capabilities as necessary responses to Western military-technological superiority. In space, Russia draws on its Soviet legacy as a pioneer space power and presents itself as a defender of the peaceful use of outer space against US militarization. It supports treaties such as the Prevention of the Placement of Weapons in Outer Space and has jointly proposed drafts with China. At the same time, Russia has conducted counterspace tests, including the 2021 destruction of Kosmos 1408, which it framed as a defensive demonstration of capability and a response to US space policy. The Russian perspective thus combines legal opposition to weaponization with practical development of counterspace tools, arguing that security requires credible deterrence.

In biosecurity, Russia emphasizes the BWC and accuses the United States and its allies of maintaining biological military programs and laboratories near Russian borders. It has used international forums to demand transparency and verification, while resisting Western accusations regarding its own activities. During COVID-19, Russia promoted state sovereignty, criticized Western politicization of health governance, and used vaccine diplomacy as a tool of influence. The perspective treats biosecurity as an extension of geopolitical competition, in which scientific and health institutions can be instruments of power. Its contribution is to highlight the security dimensions of biological research and to insist that arms-control regimes must apply equally to all states, including powerful Western ones. It also underscores the distrust that pervades great-power relations and the difficulty of building verification mechanisms in a polarized environment.

On critical infrastructure, Russia’s perspective is shaped by its view of hybrid warfare and Western double standards. It sees new domains as interconnected: space-based ISR, cyber operations, and infrastructure sabotage can be combined in conflict. Russian strategic discourse often portrays Western states as using sanctions, information operations, and infrastructure targeting against Russia, while condemning similar Russian actions. The perspective therefore emphasizes resilience, redundancy, and strategic autonomy, but also treats offensive capabilities in new domains as legitimate tools of statecraft. This creates a tension between Russia’s support for multilateral norms and its willingness to use disruptive capabilities when it perceives strategic necessity.

The Russian perspective’s contribution lies in its insistence on equality of security and its exposure of Western hypocrisy. It reminds other actors that arms-control and governance frameworks can be perceived as instruments of dominance if they are not applied symmetrically. However, its occlusions are substantial. It often justifies its own actions as reactive while attributing agency and aggression to adversaries. Its use of disinformation and its lack of transparency in biological and space activities undermine the credibility of its normative claims. In critical infrastructure, its perspective can blur the line between deterrence and coercion, making it difficult to distinguish defensive resilience from offensive preparation. The perspective is therefore most useful as a diagnostic of great-power distrust, but less reliable as a basis for cooperative governance.

2.7.4 Western Perspective

The Western perspective on space, biosecurity, and critical infrastructure is shaped by strategic competition, technological leadership, and a self-conscious commitment to governance. It treats new domains as areas where rules, norms, and resilience must be strengthened to protect open societies and the global economy. In space, Western states—especially the United States and its allies—emphasize space security, situational awareness, commercial innovation, and deterrence. They oppose debris-generating ASAT tests and support voluntary norms, such as UNGA resolutions on destructive direct-ascent ASAT testing, while also developing military space capabilities and doctrines. The Western perspective values transparency, commercial participation, and alliance coordination, and it often frames space governance as a choice between a rules-based order and authoritarian or revisionist alternatives. Its self-critique acknowledges that commercialization, militarization, and inequitable access can undermine legitimacy, and that Western leadership can appear as dominance.

In biosecurity, the Western perspective centers on laboratory safety, dual-use research oversight, pandemic preparedness, and the governance of high-consequence pathogens. It includes debates over gain-of-function research, biosafety levels, and the balance between scientific openness and security. COVID-19 prompted extensive Western self-critique: failures of preparedness, fragmented public health systems, politicization of science, and inequitable vaccine distribution. Western states and institutions have supported the BWC, WHO processes, and initiatives to strengthen global health security, while also emphasizing national resilience and private-sector innovation. The perspective contributes technical expertise, funding, and institutional capacity, but it can also over-securitize health and prioritize the concerns of wealthy states.

On critical infrastructure, the Western perspective emphasizes public-private partnerships, resilience, cyber defense, and the protection of essential services. It recognizes that most critical infrastructure is privately owned, requiring collaboration between governments and industry. NATO and national frameworks stress continuity of government, supply-chain security, and deterrence against sabotage. The Western perspective also includes a governance-self-critique: it acknowledges that infrastructure protection can become a pretext for surveillance, that privatization can create vulnerabilities, and that resilience strategies may neglect marginalized communities. It is attentive to the blurring of civilian and military targets, particularly in cyber and hybrid conflict, and seeks to develop norms that limit escalation.

The Western perspective’s strengths are its technical capacity, institutional depth, and willingness to debate its own failures. It has generated important norms on debris, biosafety, and infrastructure resilience, and it has mobilized significant resources for global health and space situational awareness. Its occlusions, however, are equally significant. It often universalizes Western security priorities, treating its own threat perceptions as global. Its commercial and military interests can conflict with equitable access, particularly for developing states. Its “rules-based order” rhetoric can be perceived as hegemonic, especially when rules are enforced asymmetrically. The perspective is therefore most persuasive when it combines capability with humility, and least persuasive when it conflates Western leadership with universal legitimacy.

2.7.5 UN Perspective

The UN perspective on space, biosecurity, and critical infrastructure is rooted in multilateralism, consensus, and capacity building. It provides the primary forums for discussing new domains, including COPUOS for space, the BWC and WHO for biosecurity, and General Assembly processes for cyberspace and infrastructure-related security. Its contribution is to articulate shared norms, facilitate dialogue, and support developing states. It is constrained by the need for consensus, funding shortfalls, geopolitical distrust, and the absence of robust enforcement. In practice, the UN perspective is less a single actor than a framework within which competing state perspectives contend, but it remains indispensable for legitimizing rules and preventing unilateralism. Its central challenge is to move from norm articulation to implementation without losing the inclusivity that gives its outputs authority.

In space, the UN system has developed guidelines on the long-term sustainability of outer space activities and has provided a forum for discussing debris, resource utilization, and the prevention of an arms race. The Pact for the Future, adopted in 2024, reaffirmed commitments to the peaceful uses of outer space and to strengthening multilateral governance, reflecting a renewed effort to address emerging technologies and strategic competition. COPUOS remains the central venue for technical and legal discussion, but its consensus-based procedures can slow responses to rapidly changing capabilities. The UN perspective emphasizes that space governance must be inclusive, particularly for states that lack independent access but are affected by debris, spectrum congestion, and data asymmetries.

In biosecurity, the UN perspective is expressed through the BWC, WHO, and related health-security frameworks. The BWC provides a normative foundation against biological weapons, but it lacks a verification mechanism and depends on voluntary confidence-building measures. WHO processes, including pandemic treaty negotiations, aim to strengthen preparedness, equity, and response, but they are shaped by geopolitical contestation and resource inequality. The UN perspective highlights the need for capacity building, technology transfer, and fair access to countermeasures, while also recognizing the tension between transparency and sovereignty. It is particularly attentive to the needs of developing states, which often lack laboratory capacity, surveillance systems, and manufacturing infrastructure.

On critical infrastructure, the UN perspective is less centralized but still important. General Assembly resolutions, specialized agencies, and development programs address infrastructure resilience, cyber norms, and the protection of essential services. The UN emphasizes that infrastructure is a development issue as well as a security issue, and that resilience must include social protection, equity, and sustainable development. Its contribution is to connect technical security concerns to broader human-security and development agendas. However, it lacks enforcement power and depends on member-state implementation.

The UN perspective’s greatest strength is its legitimacy and inclusivity. It provides a forum where African, Chinese, Russian, Western, and other perspectives can interact, and it helps prevent the unilateral definition of norms by powerful states. Its occlusions stem from its structural constraints: consensus can produce lowest-common-denominator outcomes; funding shortfalls limit capacity building; and geopolitical distrust can paralyze action. The UN is therefore best understood not as an independent governor of new domains, but as the indispensable arena in which their governance must be negotiated. Its central challenge is to convert normative authority into practical implementation while preserving the inclusivity that makes its norms credible.

SECTION 2.7.6 Comparison Matrix

SECTION 2.8 WORKED EXAMPLE (I do)

Levels of analysis. At the individual level, the 2021 Kosmos 1408 event reflects choices by Russian defense and political leaders to demonstrate a counterspace capability at a moment of heightened geopolitical tension, and choices by US, British, and other officials to frame that demonstration as a threat to strategic stability rather than as an ordinary test. At the state level, Russia sought to signal that it could hold adversary satellites at risk, while the United States and its partners sought to delegitimize that signal and to build support for constraints on destructive testing; other states, including those with their own ASAT histories, faced pressure to align or to remain silent. At the systemic level, the test occurred within a competitive multipolar order in which satellites underpin precision warfare, early warning, and command-and-control, and in which counterspace capabilities can create security dilemmas and first-strike incentives. At the transnational level, the debris cloud threatened a shared orbital environment used by the multinational International Space Station, commercial operators, scientific missions, and future users, while the diplomatic response moved through UN forums, allied statements, and voluntary national moratoria.

Mechanism section. The mechanism begins with a direct-ascent anti-satellite test: a missile launched from Earth intercepts a satellite in low Earth orbit, and kinetic impact shatters the target into fragments. Because orbital velocities are extremely high, even small fragments can damage or destroy spacecraft, and the resulting debris can remain in orbit for years or decades depending on altitude and atmospheric drag. Publicly reported accounts of the November 2021 destruction of Kosmos 1408 described more than 1,500 trackable fragments and many smaller pieces, with the debris cloud passing near the orbit of the International Space Station and forcing crew precautions. The strategic mechanism is equally important: satellites are critical infrastructure for military and civilian life, so a demonstrated ability to destroy them can signal deterrence, coercion, or escalation dominance; yet the same debris imposes costs on the testing state and on all other users, making the capability simultaneously impressive and self-damaging. The political mechanism then converts the physical event into a governance problem: condemnation, UN discussion, and voluntary moratoria can raise the reputational cost of future tests, but without a binding prohibition the incentive to demonstrate capability remains.

Perspective reconstruction. From an African vantage point, the Kosmos 1408 test is not merely a Russo-American security episode but an event in a global commons whose costs are distributed unevenly. African states and institutions have limited indigenous space capacity and depend on external providers for Earth observation, communications, and weather data, so debris risk and great-power testing impose unchosen vulnerabilities. The African Space Policy and Strategy (2016) and related AU discussions frame space as a development resource, meaning governance must include capacity building, data access, and equitable participation, not only nonproliferation. The multilateral response’s focus on debris and strategic stability is necessary but incomplete if it does not address who bears the costs of cleanup, insurance, and lost services. Thus the African perspective sees the test as evidence that new-domain governance must be inclusive and redistributive, otherwise norms will reflect the priorities of states that can afford to test and to insure. China frames space as a domain for peaceful development and sovereign equality, and it has condemned weaponization while building its own counterspace and space capabilities. In the Kosmos 1408 case, Beijing’s likely reading emphasizes that the test demonstrates the dangers of an unregulated arms race and the need for multilateral, legally binding constraints rather than unilateral US-led norms. China’s own 2007 ASAT test and subsequent debris creation complicate its moral authority, but its diplomatic position stresses that all major powers, including the United States, must accept reciprocal limits. The Chinese perspective therefore treats the Russian test as both a warning and an argument for a treaty-based, non-discriminatory regime that does not privilege Western military space dominance. Russia frames the test as a legitimate demonstration of defensive capability in a domain where the United States and NATO have militarized space and threatened Russian assets. Moscow’s official position disputed that the debris endangered the International Space Station and treated Western condemnation as politicized, reflecting a broader multipolarity narrative that resists Western norm-setting. The Russian perspective sees counterspace capabilities as necessary for deterrence in an era of US precision-strike and space-enabled warfare. Yet this framing occludes the indiscriminate, long-lived debris hazard imposed on all users, including Russia’s own future missions and partners. The Western perspective treats the test as a destabilizing demonstration of a direct-ascent ASAT capability that threatens the satellite infrastructure underpinning military and civilian life. It emphasizes strategic stability: because satellites are vulnerable and attribution can be ambiguous, counterspace weapons create incentives for preemption and escalation. The United States and allies responded with diplomatic condemnation and, in 2022, a unilateral moratorium on destructive direct-ascent ASAT testing, seeking to build a norm of responsible behavior. This perspective’s strength is its attention to escalation risk; its weakness is that it can understate Western military space programs and the need for binding, inclusive rules. The UN perspective treats the test as an illustration of governance gaps in a domain where no binding prohibition on ASAT testing exists. Through COPUOS and UNGA resolutions on responsible behaviors, the UN provides a forum for converting outrage into norms, but consensus requirements slow action. The multilateral response—condemnation, working groups, and voluntary moratoria—shows both the UN’s convening power and its dependence on member-state will. The UN perspective thus sees the case as requiring not just technical debris mitigation but a broader political settlement on space security.

Explicit adjudication. The Western perspective best explains the case’s strategic logic and its immediate stability implications: Russia demonstrated a capability that threatens satellite-dependent military and civilian systems, and the debris cloud created a shared, long-lived risk that made the test internationally costly. Its limitation is that it can treat Western military space programs as background rather than as part of the competitive dynamic that motivates Russian testing, and it may understate the distributional consequences for states with little space capacity. The Russian perspective best explains Moscow’s stated motive—deterrence and resistance to perceived Western dominance—but it is weakest on the physical externality of debris and on the legitimacy of imposing that risk on non-consenting users. The Chinese perspective correctly identifies the need for reciprocal, treaty-based constraints, yet its credibility is weakened by China’s own ASAT history. The African perspective is indispensable for showing who bears the unchosen costs of great-power testing, but it does not by itself explain why Russia chose to test in 2021. The UN perspective best explains the institutional response and its limits, but it cannot compel compliance. On balance, the case is best explained by a state-and-systemic account for causation—closest to the Western and Russian perspectives—combined with a transnational-governance account for consequences and response—closest to the UN and African perspectives. No single perspective is sufficient; the test is simultaneously a strategic signal, a debris-generating hazard, a multipolar grievance, and a governance failure.

SECTION 2.9 PROBLEM PAIR (We do)

1. Mechanism identification. In the COVID-19 case, identify the principal causal mechanism through which geopolitics shaped pandemic outcomes: vaccine nationalism, origin politicization, export controls, institutional fragmentation, or structural inequality. State which mechanism you treat as primary and why.

2. Level of analysis. Analyze the pandemic response at the individual, state, systemic, and transnational levels. Which level best explains the delay in equitable vaccine distribution, and which best explains the failure to agree on a binding pandemic accord?

3. Perspective reconstruction. Reconstruct the African, Chinese, Russian, Western, and UN interpretations of the pandemic response. For each, identify one contribution and one occlusion.

4. Historical analogue. Compare COVID-19 with either the 2003 SARS outbreak or the 2014 Ebola outbreak. What transfers from that analogue, and what is misleading if imported uncritically?

5. Falsification. State two pieces of evidence that would weaken the claim that geopolitical competition worsened pandemic outcomes, and one piece of evidence that would strengthen it.

6. Prescription boundary. Distinguish description, explanation, prediction, and prescription in your answer. Which of your claims are normative, and on what evidence do they rest?

Model answer. The COVID-19 pandemic illustrates how a biological event becomes a biosecurity crisis when geopolitical competition, institutional weakness, and structural inequality interact. The virus itself was a pathogen of natural or possibly laboratory origin; the response was shaped by power. Early in 2020, information politics and sovereignty claims slowed transparent data sharing, while travel bans and export controls turned health equipment into strategic commodities. Vaccine development was extraordinarily fast, but distribution followed purchasing power and alliance structures rather than epidemiological need. COVAX, the multilateral mechanism intended to ensure equitable access, was underfunded and outbid by wealthy states, producing what African leaders and scholars described as vaccine apartheid. This was not merely a moral failure; it was a strategic failure because unvaccinated populations prolonged transmission and variant emergence, undermining global health security for all states.

The pandemic also transformed biosecurity governance. The Biological Weapons Convention lacks a verification protocol, and COVID-19 intensified debates over dual-use research, laboratory safety, and pathogen access. Origin investigations became proxies for US-China rivalry: demands for transparency were read in Beijing as sovereignty violations and political containment, while in Washington and allied capitals opacity fueled suspicion. The result was a chilling effect on scientific cooperation and a securitization of bioscience that risks treating researchers as intelligence assets. Russia and other states used vaccine diplomacy to project influence, while Western governments simultaneously promoted COVAX and restricted exports, revealing a tension between liberal internationalist rhetoric and nationalist practice.

From an African perspective, the central lesson is capacity and equity. African states faced delayed vaccine access, limited genomic sequencing capacity, and dependence on external manufacturing, yet also demonstrated regional coordination through the African Union and Africa CDC. The pandemic showed that biosecurity cannot be reduced to border control or great-power deterrence; it requires distributed laboratory capacity, local production, and fair intellectual-property rules. The blocked TRIPS waiver debate exposed how global health governance remains tethered to pharmaceutical monopolies and donor priorities. African scholarship on structural adjustment and dependency helps explain why emergency health financing often arrived as conditional loans rather than unconditional solidarity.

Other perspectives illuminate different mechanisms. China framed pandemic response through sovereignty and state capacity, emphasizing domestic containment and later vaccine exports, while resisting externally imposed origin investigations. Russia framed the pandemic within multipolarity, criticizing Western vaccine hoarding and promoting Sputnik V as an alternative. Western governments combined rapid biomedical innovation with export restrictions and later engaged in governance self-critique, acknowledging that COVAX shortfalls and intellectual-property rigidities damaged legitimacy. The UN system—WHO, the BWC, and ongoing pandemic accord negotiations—provided forums for coordination but lacked enforcement, funding, and political consensus.

Historically, the 2014 Ebola outbreak offers a partial analogue: it showed that multilateral response can be mobilized, but also that early delays and weak health systems amplify harm. COVID-19 differed in scale, politicization, and the centrality of vaccine technology. A plausible falsifier of the claim that geopolitics worsened outcomes would be evidence that states with the most competitive bilateral relationships achieved the fastest equitable global distribution; the record shows the opposite. Another falsifier would be proof that origin politicization had no effect on scientific cooperation; the documented chilling of research collaboration suggests otherwise.

The post-pandemic governance landscape is therefore contested. Negotiations over a pandemic accord, pathogen access and benefit sharing, and BWC strengthening continue, but sovereignty concerns, intellectual-property disputes, and great-power distrust constrain ambition. The most defensible conclusion is that COVID-19 was not simply a health emergency or a geopolitical weapon; it was a stress test revealing how biosecurity, equity, and power are intertwined. Effective governance will require not only better surveillance and laboratories but also credible commitments to equitable access and depoliticized science.

SECTION 2.10 INDEPENDENT MEMO (You do)

(a) Case description: A coastal state in the Global South experiences a simultaneous crisis: a suspected laboratory-acquired infection at a foreign-funded high-containment facility and a two-day disruption of satellite navigation services affecting its main port. Domestic opposition demands immediate closure of all foreign labs; a regional bloc requests emergency vaccine and diagnostic support; one great power offers bilateral aid conditioned on access to pathogen samples; another great power blames the first for sabotage. The state has limited genomic sequencing capacity, depends on imported reagents, and is a party to the Biological Weapons Convention but not to any binding space security instrument. Its leaders must choose among unilateral emergency powers, multilateral inspection, or strategic ambiguity. The case is fictional but structurally analogous to real debates over biosecurity sovereignty, space dependence, and equitable access. The state’s decision will be scrutinized by investors, diaspora communities, and neighboring states that share the same satellite-dependent infrastructure.

(b) Required memo headings as prompts:

• Mechanism: Explain the causal chain linking the laboratory incident, satellite disruption, and state response; specify whether the mechanism is coercion, contagion, institutional failure, or strategic signaling, and identify the level of analysis at which it operates.
• Perspective reconstruction: Reconstruct how African, Chinese, Russian, Western, and UN actors would interpret the crisis, what each would emphasize, and what each would occlude.
• Historical analogue: Compare the case to one prior episode, such as the 2021 Russian ASAT test, COVID-19 origin disputes, or the 2014 Ebola response, and state what transfers and what does not.
• Falsifiers: List two or three observations that would weaken your explanation and one observation that would weaken your prediction.

(c) Self-check: Did you distinguish description of events, explanation of causes, prediction of consequences, and prescription of policy, and did you avoid presenting any single perspective as self-evidently correct?

SECTION 2.11 HINGE QUESTION

Question: The 2021 Russian ASAT test against Kosmos 1408 is best interpreted as:

A. A purely defensive demonstration that improved strategic stability by proving Russia could protect its satellites.
B. A destabilizing counterspace action that created long-lived debris and weakened norms, though its strategic effects depend on attribution and response.
C. An isolated technical event with no implications for international law because space is already a warfighting domain.
D. A successful test of co-orbital inspection capabilities that established a new cooperative security regime.

Correct answer: B.

Distractor diagnosis:

• A conflates a capability demonstration with strategic stability; it ignores debris generation, escalation risk, and the absence of any stabilizing arms-control framework.
• C treats the lack of a binding space security treaty as evidence that norms, diplomacy, and strategic restraint do not matter; it also overstates the claim that space is already an accepted warfighting domain.
• D misidentifies a direct-ascent ASAT intercept as co-orbital inspection and invents a cooperative security regime that the test did not establish.

SECTION 2A — DATA LAB

Table 1 — State satellite portfolios (approximate, open-source estimates, 2023–2024)

Table 2 — Counterspace tests and debris (selected, approximate)

Table 3 — Selected pandemic and space-governance indicators (approximate/as of 2024)

Five numbered analysis questions

1. Trend: What do the satellite-portfolio and counterspace-test data suggest about the concentration of space power, the diffusion of counterspace capability, and the erosion of strategic stability in orbit?
2. Level of analysis: At which level—individual, state, systemic, or transnational—does each data series operate most directly, and how do satellite concentration, debris externalities, pandemic mortality, and treaty status interact across levels?
3. Perspective reconstruction (all five): How would African, Chinese, Russian, Western, and UN analysts read the same tables differently, especially on equity, sovereignty, multipolarity, security, and multilateral legitimacy?
4. Interpretation: What do pandemic mortality/economic data plus the stalled or partial status of space and biosecurity governance frameworks imply about whether biosecurity and orbital safety are being treated as global public goods?
5. Limitation: What do these data not capture—classified programs, dual-use ambiguity, underreporting, informal governance, commercial opacity, or the difference between reversible and destructive counterspace effects?

SECTION 3 — DUAL-CODED VISUAL ANCHOR

Visual 1 — Orbital Stack and Debris Cloud (hand-drawn)

• What to draw: Draw Earth as a filled circle in the center. Around it, draw three concentric rings labeled from inner to outer: LEO (200–2,000 km), MEO, and GEO. In LEO, draw many small squares representing satellites, clustered in “shells”; in MEO, draw fewer squares; in GEO, draw a sparse arc of squares. Scatter small dots and short dashes throughout LEO to represent debris, with a denser cloud near one cluster labeled “2021 Kosmos 1408 debris.” Draw arrows from selected satellites to Earth labeled ISR, PNT, and Comms.
• Labels to place: “LEO,” “MEO,” “GEO,” “ISR,” “PNT,” “Comms,” “Debris,” “Kosmos 1408,” “Commercial mega-constellation,” “Military satellite.”
• Perspective overlay to annotate: Around the drawing, place five short marginal notes: African: “access, capacity, and equitable benefit-sharing”; Chinese: “sovereignty, development, and security”; Russian: “multipolarity and strategic parity”; Western: “security, resilience, and governance”; UN: “COPUOS norms and debris mitigation.”

Visual 2 — Counterspace Escalation Ladder (hand-drawn)

• What to draw: Draw a vertical ladder with six rungs from bottom to top. Label the rungs, bottom to top: 1. Reversible jamming/spoofing, 2. Cyber intrusion, 3. Proximity/RPO, 4. Non-destructive dazzling, 5. Direct-ascent kinetic ASAT, 6. Co-orbital weaponization. Add a side arrow labeled “Escalation and attribution difficulty” increasing upward. At the top, draw a warning symbol labeled “Debris / Kessler risk.” At the bottom, draw a small box labeled “Reversible effects.”
• Labels to place: “Reversible,” “Cyber,” “Proximity,” “Dazzling,” “Kinetic ASAT,” “Co-orbital,” “Debris,” “Attribution,” “Escalation.”
• Perspective overlay to annotate: Place marginal notes: African: “collateral harm to shared orbital commons”; Chinese: “defensive sovereignty and anti-hegemony”; Russian: “strategic parity and multipolar deterrence”; Western: “deterrence, resilience, and escalation control”; UN: “norms, transparency, and verification.”

Visual 3 — Biosecurity Governance Gap (hand-drawn)

• What to draw: Draw three overlapping circles in a Venn diagram. Label them Pandemic Response, Lab Biosafety/Biosecurity, and Critical Infrastructure. In the central overlap, write “Governance gap.” Around the circles, draw small boxes labeled WHO IHR, BWC, National lab oversight, Health systems, and Infrastructure protection. Draw arrows from the central gap to a box labeled “Equity, attribution, and resilience.”
• Labels to place: “Pandemic response,” “Lab governance,” “Infrastructure,” “Governance gap,” “WHO IHR,” “BWC,” “National oversight,” “Health systems,” “Resilience.”
• Perspective overlay to annotate: Place marginal notes: African: “capacity, access, and equity”; Chinese: “sovereignty, development, and biosecurity governance”; Russian: “multipolarity and non-discrimination”; Western: “security, preparedness, and governance self-critique”; UN: “BWC, WHO negotiations, and Pact for the Future.”

SECTION 4 — CORNELL NOTES

Summary: Space, biosecurity, and critical infrastructure are emerging domains where technological capability has outpaced governance. Kinetic and non-kinetic counterspace tools create debris and escalation risks, while pandemics expose gaps in preparedness, equity, and verification. The five perspectives disagree on whether the central problem is access, sovereignty, multipolarity, security, or multilateral legitimacy. The data show concentration of space power and uneven biosecurity capacity, but they do not fully capture classified activity, dual-use ambiguity, or informal governance.

SECTION 5 — FEYNMAN COMPRESSION

1. Explain without jargon: Satellites, pathogens, and infrastructure are now tools and targets in global politics. The rules for using and protecting them are weaker than the technologies themselves, so harm can spread faster than governance can respond.
2. Mark gaps: I need to distinguish reversible from destructive effects, separate state from commercial actors, and avoid treating incomplete data as proof of intent. I also need to keep description, explanation, prediction, and prescription separate.
3. Reread verification: Recheck the approximate satellite counts, debris estimates, pandemic mortality figures, and treaty statuses against the named sources before using them in an argument. Confirm that no exact number is presented as certain.
4. Analogy with explicit limits: These domains resemble a shared commons with dangerous tools, but the analogy has limits: orbital debris persists for decades, pathogens can self-replicate, and infrastructure failures cascade across civilian and military systems.
5. Rewrite: Space, biosecurity, and critical infrastructure are high-consequence domains where capability, vulnerability, and governance gaps intersect; any analysis must specify mechanism, level of analysis, perspective, and evidence limits.

SECTION 6 — SPACED-REPETITION FLASHCARDS

SECTION 7 — METACOGNITIVE CALIBRATION

7.1 Confidence Audit

7.2 Three-Question Debrief

1. Which of the five perspectives was hardest to reconstruct from within, and what specific assumption in that perspective did you find most difficult to grant?
2. In the Kosmos 1408 worked example, which level of analysis carried the most explanatory weight, and does that change if you shift from a Western to an African vantage point?
3. If you had to teach one concept from this lesson to a peer in three minutes, which would it be, and what would you deliberately leave out?

7.3 Error-Log

SECTION 8 — CHEATSHEET

SECTION 9 — REVIEW SCHEDULE

• R1 (Day 1, 20 minutes): Re-read the five key ideas and recite the African perspective’s central equity claim aloud without notes; check against the lesson.
• R2 (Day 3, 30 minutes): Redraw the four-levels-of-analysis diagram for the Kosmos 1408 case from memory; compare with the worked example.
• R3 (Day 7, 45 minutes): Write a one-paragraph reconstruction of each of the five perspectives on space and biosecurity; verify against Section 2.7.
• R4 (Day 14, 60 minutes): Complete the independent memo prompt using a new case (e.g., a recent ASAT test or pandemic preparedness dispute); apply the four required headings.
• R5 (Day 30, 90 minutes): Full review: flashcards, cheatsheet, and a timed hinge-question drill; log remaining gaps in the error-log.

SECTION 10 — COMPLETION CHECKLIST

• I can define space as a strategic domain and distinguish militarization from weaponization.
• I can explain the three ASAT mechanisms and their differing debris and escalation profiles.
• I can reconstruct the African perspective on space access and biosecurity from within.
• I can reconstruct the Chinese perspective on space leadership and sovereignty.
• I can reconstruct the Russian perspective on multipolarity and space capabilities.
• I can reconstruct the Western perspective on space security and governance self-critique.
• I can reconstruct the UN perspective on COPUOS, BWC, and the Pact for the Future.
• I can apply the four levels of analysis to a space or biosecurity case.
• I can identify falsifiers for claims about ASAT restraint.
• I can identify falsifiers for claims about pandemic governance.
• I can adjudicate between competing explanations of the same case.
• I can explain how geopolitics shaped the COVID-19 response.
• I can distinguish the BWC from the proposed pandemic treaty.
• I can explain the critical infrastructure civilian/military blur.
• I can use the comparison matrix to contrast all five perspectives.
• I have completed the confidence audit with honest scores.
• I have logged at least two errors in the error-log.
• I can state the lesson’s central puzzle in one sentence.

FURTHER READING (Optional)

Space security and counterspace

• Johnson-Freese, Joan. Space Warfare in the 21st Century. Routledge, 2016.
• Harrison, Todd. Space Threat Assessment. CSIS, 2021.

Biosecurity and pandemic governance

• Lakoff, Andrew. Unprepared: Global Health in a Time of Emergency. University of California Press, 2017.

UN and multilateral frameworks

• UN COPUOS documentation on space governance and long-term sustainability.
• BWC reports and review conference documents.
• WHO pandemic treaty negotiation documents and the Pact for the Future space commitments.

African and Global South perspectives

• Grovogui, Siba. Sovereigns, Quasi Sovereigns, and Africans. University of Minnesota Press, 1996.
• Mbembe, Achille. On the Postcolony. University of California Press, 2001.
• Bayart, Jean-François. The State in Africa. Polity, 2009.
• Mamdani, Mahmood. Citizen and Subject. Princeton University Press, 1996.
• Rodney, Walter. How Europe Underdeveloped Africa. Bogle-L’Ouverture, 1972.

End of Lesson 57. Say Next when you are ready.