The ongoing conflict involving Iran, the United States, and Israel has produced one of the most significant case studies in the evolution of contemporary warfare. Iran, a state that lacks a competitive air force and possesses limited naval power, has demonstrated that ballistic missiles, cruise missiles, and unmanned aerial systems can offset some conventional disadvantages and impose serious costs on technologically superior adversaries. This development is not confined to the battlefield. It represents a doctrinal shift with lasting implications for American deterrence strategy, allied defense planning, and the long-term viability of current U.S. force structures. Understanding what Iran has and has not achieved is essential for making sound policy going forward.

The Cost-Exchange Problem 

At the operational level, Iran’s most consequential contribution has been exposing a structural vulnerability in layered air defense: the cost-exchange dilemma. Systems such as Patriot, THAAD, and Iron Dome were engineered to intercept high-value ballistic and cruise missile threats. When deployed against coordinated waves of low-cost drones and short-range missiles, these systems are forced to expend interceptors valued at hundreds of thousands or millions of dollars per shot against threats that cost a fraction of that amount. The arithmetic is unsustainable at scale. As analysts at the Center for Strategic and International Studies have noted, saturation attacks can exhaust defensive inventories faster than replenishment is possible, creating windows of vulnerability that adversaries are quick to exploit. For the United States, this is not merely a technical problem, it is a strategic one that requires urgent attention in both procurement and doctrine.

The development of the Golden Dome missile defense architecture and expanded investment in directed energy and electronic warfare systems reflect growing official awareness that current interception models are not cost-competitive. These are necessary steps. However, technology alone cannot resolve a dilemma that is fundamentally about the economics of offense versus defense. Adversaries will adapt their tactics faster than procurement cycles can respond unless the U.S. also changes the strategic logic driving their calculations.

Attrition Without Decision: The Limits of the Iranian Model

The Iranian approach has imposed genuine costs on its adversaries, but it has not produced decisive military outcomes. This distinction is critical. Iran’s missile and drone campaigns have disrupted logistics, strained defensive inventories, and created operational uncertainty. They have not, however, defeated U.S. or Israeli military power, seized or held territory, or forced a negotiated settlement on Iranian terms. The model is one of strategic attrition, not strategic victory. Survivability and persistence are not equivalent to effectiveness, and the broader narrative of a drone revolution rendering conventional military power obsolete requires significant qualification.

The claim that air superiority is no longer a necessary condition for strategic effectiveness also warrants scrutiny. Air superiority remains essential for intelligence, surveillance, and reconnaissance; for close air support of ground operations; and for denying adversaries freedom of movement. What Iran’s campaign demonstrates is that a state without air superiority can still impose costs and delay adversary operations—not that air power has been rendered irrelevant. The bar for what air superiority can guarantee has been raised. Its strategic value, however, has not disappeared. Policymakers and analysts should resist the temptation to draw sweeping conclusions from a conflict that remains ongoing and whose full operational record is still emerging.

Implications for American Deterrence

The proliferation of precision strike capabilities across state and non-state actors undermines the assumption that technological overmatch alone is sufficient to deter conflict. When adversaries can field asymmetric capabilities that challenge U.S. and allied defenses at an acceptable cost to themselves, deterrence by denial becomes increasingly difficult to guarantee. The U.S. must prioritize cost-effective interception technologies, particularly directed energy weapons, that can neutralize mass drone and missile attacks without depleting high-value interceptor stocks. This is a resource allocation problem as much as it is an engineering one, and it demands serious engagement at the budgetary and strategic planning levels.

The Iranian model is also exportable, and this may prove to be its most consequential long-term dimension. States with limited defense budgets that are aligned with China or Russia can observe the operational lessons from this conflict and apply them in their own regional contexts. The proliferation of domestically produced or externally transferred missile and drone capabilities across the Middle East, South Asia, and the Indo-Pacific represents a compounding deterrence challenge. American extended deterrence commitments to allies in these regions will become harder to sustain if the cost-exchange problem is not structurally resolved. As Defense News reported, the proliferation of drone technology is already forcing militaries worldwide to reconsider their approach to air and missile defense.

There is also a crisis stability dimension that deserves serious attention. Rapid, sustained missile and drone strikes compress decision-making timelines and increase pressure for early, and potentially disproportionate, responses. In a multipolar environment where multiple actors possess similar strike capabilities, the risk of miscalculation is elevated. The U.S. should pursue updated arms control frameworks and diplomatic mechanisms to manage the proliferation of these systems alongside its technical and procurement investments. Deterrence cannot be reduced to hardware alone.

Conclusion

Iran’s missile and drone campaign has not rewritten the principles of warfare, but it has exposed critical assumptions underpinning American deterrence in ways that cannot be ignored. Distributed, low-cost, high-impact systems are now accessible to a wider range of actors and the gap between offensive capability and defensive cost is widening. The United States requires a

deterrence posture that integrates cost-effective defense, credible offensive options, active non-proliferation diplomacy, and sustained alliance management. Meeting this challenge demands strategic adaptation across doctrine, procurement, and diplomacy, not simply an incremental increase in interceptor production.

Dr. Tahir Mahmood Azad is currently a research scholar at the Department of Politics & International Relations, the University of Reading, UK. Views expressed in this article are the author’s own.

Iran’s Missile-Drone Campaign and Its Implications for the United States’ Deterrence was originally published on Global Security Review.

Bottom line: The center of gravity in deterrence is shifting to space-enabled, long-range, rapidly replaceable kill webs, and our adversaries are acting as if they know it. NATO voices now openly frame space as a war-fighting domain, while Europe moves from point defense to deep strike, Washington debates force-design trades (B-52J vs. more B-21s), and Iran/Russia press for coercive advantage amid sanctions friction. The strategic task is to turn language and spending into tested, resilient, allied operational architectures, and fast.

Unifying Trends

1. Space goes operational, not “supporting.”
   NATO leaders’ tone shift (Germany, France, Spain, Canada) treats space as a domain for defense and offense (“shield and sword”), demanding common doctrine, delegated authorities, and tactically responsive launch (<96 hours) to restore/augment constellations under attack.
2. From point defense to deep strike.
   Denmark’s decision to field long-range precision fires (Tomahawk/JASSM-ER class and European options) reflects a continental realization: you can’t intercept your way out of massed salvos—you must hold launchers, C2, and magazines at risk.
3. U.S. force-design inflection.
   Cost/schedule breaches on B-52J upgrades collide with contested-airspace realities, strengthening arguments to expand and accelerate B-21. This is a survivability vs. standoff trade with industrial-base and budget consequences.
4. Great-Power coercion is coordinated.
   ISW’s readout on Moscow’s aims, Iran’s missile signaling and suspected tests, and Beijing’s pressure campaigns (incl. Taiwan wargaming counters) form a convergent pressure track seeking to outlast Western cohesion and exploit cost-asymmetry (cheap counter-space/EW vs. exquisite satellites).
5. Homeland defense as a system-of-systems problem.
   “Golden Dome” can work only if rigorous end-to-end (E2E) testing—across space sensors, comms, C2, effectors, cyber—starts now and leverages commercial testbeds/digital twins. Otherwise, the architecture risks beautiful fragility.
6. Forward posture debates return.
   Talk of re-entering Bagram underscores a broader theme: geography for deterrence matters again, but must be weighed against access, legitimacy, and escalation dynamics with the Taliban and China.

What This Means Operationally

• Speed is deterrence. Time to detect-decide-deliver (and to replace space capacity) is now a primary measure of merit.
• Proliferation beats pedigree. Multi-orbit, proliferated constellations with rapid reconstitution are more survivable than few exquisite assets.
• Kill webs over platforms. Advantage will come from tested integration of sensors, AI-enabled C2, and multi-domain effectors, not any single “silver bullet.”
• Allies are moving—synchronize them. Europe’s deep-strike pivot and NATO’s space posture create a window to standardize doctrine, data, and munitions.

Risks to Watch

• Doctrine lag in space. Without common allied space ROE/authorities, response times will miss the fight.
• Testing shortfalls. If E2E campaigns are under-funded or staged too late, integration debt will surface in crisis.
• Budget whiplash. Raiding legacy accounts for survivable capacity is necessary—but undisciplined shifts can hollow critical standoff magazines and training.
• Cost asymmetry. Adversaries’ cheap EW/dazzling/cyber vs. our pricey satellites remains a structural vulnerability.

Priority Actions (next 6–12 months)

1. Adopt an Allied Space Operations Doctrine 1.0
   Codify protect/defend, attribution thresholds, delegated authorities, and tactically responsive launch across NATO.
2. Stand up a Joint Tactically Responsive Space (TacRS) pipeline
   Contract now for rideshare, hot-spare payloads, and 96-hour launch/checkout drills; exercise quarterly.
3. Golden Dome: lock an Integrated Master Test Plan
   Fund E2E test events that include on-orbit sensing + ground C2 + live/interoperable interceptors + cyber red-teaming. Mandate industry-in-the-loop from day one.
4. Rebalance the bomber portfolio toward survivability
   Protect B-21 ramp; scrutinize B-52J scope/schedule to preserve standoff munitions buys and mission-planning AI.
5. European deep-strike integration
   Fast-track common mission planning, targeting data standards, and logistics for JASSM-ER/Tomahawk/European LR strike across F-35 and surface fleets.
6. Harden the space kill web
   Deploy optical crosslinks, jam-resilient waveforms, PNT alternatives, and autonomous battle management aids to ride through EW/cyber.
7. Tighten economic levers against Russia/Iran
   Enforce oil price caps/leakage, expand sanctions on dual-use microelectronics, and close maritime re-flag loopholes that fund attritional strategies.
8. Wargame access/logistics for any Afghanistan posture
   If Bagram re-entry is pursued, pre-plan overflight, basing, sustainment, and escalation controls; build non-permissive extraction branches.

Concrete Measures of Effectiveness

• Time-to-Replace-On-Orbit (TTRO): target ≤ 96 hours from loss to restored coverage.
• Find-Fix-Finish latency: median time from first detection to effect in minutes, not hours.
• E2E test cadence: quarterly cross-domain integrated events; zero critical interoperability defects carried forward.
• Allied deep-strike coverage: % of NATO targets held at risk at >500 km with validated comms/targeting.
• Resilience index: % of space services with disaggregated backups (multi-orbit/multi-vendor).

Longer Perspective

Deterrence now hinges on resilient connections more than singular platforms: space that can fight and recover, kill webs that integrate fast, and alliances that can reach deep. If we test as we will fight, standardize with allies, and bias for speed and survivability, we deny adversaries the slow-motion coercion they seek—and keep escalation ladders short, clear, and in our control.

This Week in Deterrence (September 15-19, 2025) was originally published on Global Security Review.

By mid-June 2025, after years of preparation, the Israelis, in one fell swoop, destroyed half of Iran’s ballistic missile capabilities, destroyed some nuclear facilities, and assassinated Iran’s leading nuclear scientists and the leadership of the Islamic Revolutionary Guard Corps (IRGC). Then on June 23, 2025, a pre-dawn bombing raid ordered by US President Donald Trump took out of commission the hard-to-crack nuclear facilities of Fordow, Natanz, and Esfahan.

Beyond adding to Israel’s capabilities with American B2 bombers loaded with GBU-57 massive ordnance penetrators, bunkers busters, the bombing cemented American leadership in dealing with the Iran problem. A review of joint Israel-US capabilities helps explain how deterrence in the region is returning and what to expect next.

Since the October 7, 2023, massacre of Israelis by Hamas, an Iranian proxy, Israeli intelligence and military units, all backed by superior defense technology, methodically destroyed Iranian capabilities and supporters. Iran’s “Ring of Fire” utterly failed to achieve Iran’s strategic aims.

Israeli and American space-based intelligence, surveillance, and reconnaissance enabled early warning, target verification, and battle damage assessment. Israel relied on a precision-strike doctrine that is supported by systems like the Ofek, AMOS, and Eros-B space assets. Israel maintained surveillance for dominance above Iranian military and nuclear infrastructures. Iran merely linked its space program to the IRGC.

With multi-layer sensor fusion, Israel integrates Eitan unmanned aerial vehicles (UAV), ELW-2090 airborne warning and control systems, and ground-based radars like the EL/M-2080 Green Pine with satellite data into a national and regional situational awareness (SA) web, shaping strikes and missile defense prioritization. Space-derived situational awareness enables real-time assessment of missile launches, UAV swarm attacks, or asymmetric maritime threats by Iran and proxies operating from the Red Sea or Persian Gulf.

Cyber intelligence, signal intelligence (SIGINT), and electronic warfare form another layer. In the conflict, Israel command, control, communications, and computer (C4) systems pit Unit 8200 against IRGC affiliated cyber units.

Israel’s missile shield includes Iron Dome, David’s Sling, and Arrow-2/Arrow-3. They combine to create a web of coverage. Arrow’s high-altitude, long-range interceptors tackle Iranian ballistic missiles such as Fattah, Shahab, and Sejil. Iron Beam laser defense, under development, aims to address low-cost, high-volume threats like UAVs and small rockets.

Israeli capabilities for missile defense, early warning, C4, and interoperability are integrated with US Central Command and the systems of the Gulf States. The US supports Arrow and David’s Sling. Aegis ballistic missile defense and terminal high altitude area defense (THAAD) systems in the region share radar feeds. American space-based infra-red system satellites provide missile-launch detection.

Bahrain hosts the US Navy and supports regional C4ISR, and has growing maritime security ties with Israel. The US expanded its Saudi Arabian basing in Tabuk to feed into the regional missile defense picture. The United Arab Emirates enables THAAD, Patriot (PAC-3), radar integration, and air picture sharing with the US and Israel. Jordan, the United Kingdom, and France also contribute to defensive actions during missile and drone attacks.

Iranian targets and their proxies have nowhere to hide. The US Space Force’s Space Operations Command Mission Delta 4 identifies and tracks threats. It did so during the April 2024 and October 2024 Iranian missile and drone attacks on Israel. Operating 24 hours a day, 365 days a year to share intelligence, Mission Delta 4 ensures no missile launch ever catches America or her allies and partners by surprise.

A space-enabled Israel, integrated with Gulf State operations, eliminated Iranian air defenses, triggered covert operations inside Iran, and launched targeted bombings and assassinations. The American bombing topped these other efforts. Israel, as the military strong horse, irreversibly altered the regional balance of power, possibly ushering in the demise of a threatening Iranian Shia hegemony—an objective shared by Sunni Arab Gulf States.

Regime change was never a stated war aim but was an anticipated consequence if it occurred. It did not. The surviving Shia Islamist leadership and IRGC are now engaged in repression and remain capable of inflicting much suffering on both the region and Iranians.

It is unclear to which extent proxies such as Hezbollah, the Houthis, and Shia militias can still attack Israel and American assets in the region. Military outcomes, though, are not the sole factors defining the Iranian endgame. The Iranian taqiyya-driven regime and its Shia hegemony ideology are down, but not out. Their nefarious ideological influence can persist around the Gulf, as far as Yemen and Africa, and beyond.

Considering the cost of inaction and a failure to reinstate deterrence, eradicating a threat to the homeland, Middle East bases, and Gulf allies means the effort was worth it. If the conflict drags on, the costs will rise. Disruption of maritime traffic and oil markets could bring its predictable cohort of economic disruptions. Terrorism around the globe is déjà vu.

In the words of German Chancellor Friedrich Merz, “Israel is doing the dirty work for all of us.” Depending on the roles the new Syrian leadership and a resurgent Türkiye play, the Iranian endgame may take different forms.

Yes, President Trump decisively played the hand he was dealt. But there are many more moves left in this game. The best moves may be still to come.

Christophe Bosquillon is a senior fellow at the National Institute for Deterrence Studies. He has over 30 years of international experience in general management, foreign direct investment, and private equity and fund management across various industries in Europe and the Pacific Basin. The views expressed are the author’s own.

Deterring Iran: The Art of No Deal was originally published on Global Security Review.

Golden Dome is focused on specific missile threats to the American homeland. AUKUS pillar two is designed to reduce the significant lead China has in dual-use emerging technologies. An “extended” Golden Dome approach that produces strong and resilient allies may provide greater strategic deterrence than an America alone approach.

As stronger allies contribute more to collective defense through burden sharing, this can reduce the financial and military burden on the United States. Capable allies can deter aggression and manage local conflicts, promoting regional stability without constant American intervention.

If allies are seen as weak and easily overrun, it may undermine the credibility of alliances and security guarantees, thereby emboldening adversaries. Strong allies often bring advanced technologies and capabilities that enhance joint operations through interoperability and innovation.

Defeating fractional orbital bombardment system (FOBS), intercontinental ballistic missiles (ICBM), submarine-launched ballistic missiles (SLBM), hypersonic glide weapons, and land-attack cruise missile threats is the focus of Golden Dome, which “proposes a multilayered defense network capable of intercepting threats during the boost, midcourse, and terminal stages of missile flight.” Some analysts argue that it is easiest to target these threats in the boost/ascent phase.

Targeting the boost phase can either occur from allied territory, targeting North Korean missiles from South Korea, or the homeland. The boost phase can also be targeted from space. However, targeting from space is not without its own unique set of challenges. Either way, it will not be solved by America without its allies.

Arguably, five-eyes countries (Australia, Canada, New Zealand, United Kingdom, and United States) are already entangled in American nuclear command, control, and communications (NC3). Furthermore, the US operates in coordination with other military forces as part of broader coalition operations. Hence, extending Golden Dome to allies is not only possible, but can further leverage the AUKUS pillar two effort. Moreover, a missile defense system consists of sensors, interceptors, and command-and-control systems that work together to detect, track, and intercept incoming missiles.

These necessary components exist in AUKUS pillar two working groups like the cyber capabilities, artificial intelligence (AI) and autonomy, quantum technologies, undersea capabilities, hypersonics and counter-hypersonics, electronic warfare capabilities, innovation and information sharing, and the deep-space advanced radar capability program (DARC).

AUKUS pillar two leadership should prioritize the development of technologies and supporting systems for an effective extended Golden Dome architecture. America is unlikely to solve the problem in isolation by building a “tightly integrated system of low Earth orbit (LEO) satellites, terrestrial radar stations, directed-energy platforms, and kinetic interceptors” that senses, decides, and neutralizes incoming missiles. The linkages and opportunities for the prioritization of advanced technology development for missile defense can be found in the following summaries.

Cyber capabilities encompass both offensive and defensive operations for missile defense. Offensive cyber tools are used to deter adversaries and disrupt their operations through tactics such as cyber-reconnaissance, communication isolation, targeted strikes, and network intrusions. Defensively, military forces can prioritize robust network protection, active threat disruption, and seamless coordination across units to safeguard critical systems. Cyber operations can enhance intelligence gathering, command and control, and information warfare to shape public perception and the broader information environment. As conflict evolves, training personnel in cyber tactics and integrating machine learning for threat detection and analysis can maintain strategic advantage.

AI and autonomy can transform missile defense and military operations by enhancing efficiency, precision, and decision-making. Autonomous weapon systems are used for reconnaissance, surveillance, and combat missions. AI-driven wargaming platforms simulate real-world combat scenarios to help strategists test tactics and improve readiness. In command and control, AI supports real-time data processing and analysis. AI optimizes logistics by improving resource allocation, supply-chain management, and transportation.

In intelligence and surveillance, AI analyzes vast datasets to detect patterns and identify threats. Additionally, AI monitors threats and predicts future events. Human-machine teaming allows AI systems to collaborate with human operators, combining strengths and minimizing errors.

Quantum technologies transform missile defenses through enhanced security, operational efficiency, and advanced training. In cybersecurity, quantum-resistant cryptography is being developed to protect against the threat quantum computers pose to traditional encryption. Quantum key distribution offers highly secure communication by transmitting encryption keys through quantum channels, making interception nearly impossible.

In military operations, quantum algorithms can optimize logistics, supply chains, and battlefield strategies by analyzing complex data in real time. Quantum computing could process data in real time, enabling missile defense systems to rapidly analyze incoming threats, allowing for quicker decision-making and more effective interception. Additionally, quantum computing could enable highly accurate simulations of complex systems like nuclear reactions and weapon designs.

Undersea capabilities encompass a wide range of offensive and defensive functions that contribute to missile defense. Offensively, submarines and other undersea platforms can strike surface vessels, submarines, and land-based targets. They are also instrumental in inserting special forces into hostile territory for reconnaissance or sabotage missions. Undersea vehicles play a key role in mine warfare, either by laying mines or clearing minefields. On the defensive side, these platforms are vital for anti-submarine warfare, enabling the detection and neutralization of enemy submarines. They also support surveillance and reconnaissance efforts, gathering intelligence on enemy naval movements. Undersea systems help protect vital infrastructure such as pipelines and communication cables and help ensure safe navigation.

Hypersonic weapons and counter-hypersonic systems are vital to missile defense operations. Hypersonic glide weapons and hypersonic cruise missiles are designed to strike targets with exceptional speed, maneuverability, and precision while evading traditional defenses. Counter-hypersonic capabilities include advanced sensors and tracking systems like radar and satellite imaging to detect and monitor hypersonic weapons. Hypersonic interceptors aim to neutralize threats mid-flight, while high-power lasers and microwave weapons can disrupt their guidance systems. Effective command-and-control systems are essential for coordinating these defenses, and soft-kill measures such as cyberattacks offer additional means to interfere with hypersonic weapons.

Electronic warfare is fundamental for gaining military advantages in cross-domain missile defense. Electronic attack includes jamming enemy communications, radar, and navigation systems. It also includes spoofing—sending false signals to enemy forces. Electromagnetic or directed-energy weapons disable or destroy enemy assets. Electronic protection ensures secure communication through encryption and satellite links and employs electronic countermeasures (ECM) to defend against attack. Electronic counter-countermeasures are used to overcome enemy ECM and maintain operational effectiveness. Electronic support can be focused on gathering intelligence through signals interception, using sensors for surveillance and target acquisition, and detecting threats in the electromagnetic spectrum.

            In short, under the auspices of AUKUS pillar two, Australia and the United Kingdom can contribute to Golden Dome in ways that many may not be thinking about. As longtime allies with a shared culture, history, and values, working together on Golden Dome just makes sense.

Natalie Treloar is a Senior Analyst at the National Institute for Deterrence Studies (NIDS), a Non-Resident Fellow at the Indo-Pacific Studies Center (IPSC), the Australian Company Director of Alpha-India Consultancy, and a cohost of the NIDS Deterrence Down Under Podcast.

Extending the Golden Dome: AUKUS Pillar 2 was originally published on Global Security Review.

Shifting to upgrading existing airframes with advanced technology rather than developing entirely new 6th-generation aircraft could offer significant long-term benefits. This approach results in substantial cost savings by avoiding the massive research and development expenses associated with new platforms while leveraging existing maintenance infrastructure. Additionally, integrating advanced technologies into proven airframes allows for faster deployment, reducing development cycles from decades to just a few years. Reliability would also improve, as these upgraded aircraft are built on battle-tested designs, avoiding the risks of unproven platforms and costly performance shortfalls.

Another key advantage is the ability to adopt modular and open-architecture upgrades, which enable rapid integration of artificial intelligence (AI), sensor fusion, hypersonic weapons, and advanced stealth coatings without requiring entirely new aircraft designs. This incremental innovation approach ensures continuous modernization without the financial and operational burdens of a generational shift. Furthermore, sustaining production of existing airframes stabilizes the industrial base and supply chain, preserving skilled labor and reducing reliance on experimental manufacturing techniques. However, this approach does come with trade-offs.

While upgraded airframes can incorporate many next-generation technologies, they may struggle to compete with emerging peer threats, such as China’s J-20B and a future J-31, which are designed from the ground up with advanced stealth and next-generation propulsion. Despite these limitations, prioritizing enhancements to proven aircraft, while strategically investing in select next-generation platforms, could provide a cost-effective, lower-risk approach to maintaining American air superiority in the evolving global security landscape.

For example, the estimated cost per F-15EX Eagle II is $87.9 million per unit. However, the total procurement cost, including development, support, and spares, can push the price per aircraft to around $117 million. At first glance, this makes the F-15EX slightly more expensive than the F-35A ($82.5 million) but cheaper in terms of long-term sustainment and operational costs, as it leverages existing F-15 infrastructure.

Leveraging emerging technology to enhance existing military capabilities is a cost-effective strategy for extending platform lifecycles, improving combat effectiveness, and increasing survivability. AI and autonomy integration, such as AI copilots for fighter jets and swarm unmanned aerial vehicles (UAV), enhance decision-making and reduce risks for human operators. Upgrading legacy aircraft and naval platforms with hypersonic weapons significantly expands strike ranges and lethality, while applying stealth coatings and advanced electronic warfare systems enhances survivability by reducing detectability and countering modern threats. Cybersecurity and network-centric warfare advancements, including real-time data-sharing and AI-driven analysis, improve battlefield coordination across multiple domains, ensuring more effective mission execution.

Meanwhile, integrating directed-energy weapons, such as high-energy lasers on ships and vehicles, provides cost-effective, high-precision air and missile defense without expending traditional munitions. Ground combat platforms, including M1A2 Abrams tanks and infantry systems, are also benefiting from active protection systems and AI-powered targeting, significantly improving survivability and lethality. In space and intelligence, reconnaissance satellites with AI-driven threat detection and persistent intelligence, surveillance, and reconnaissance (ISR) drones ensure superior situational awareness. By applying AI, hypersonics, stealth, electronic warfare, and directed energy to proven platforms, the US can modernize its forces without the extreme costs and risks of developing entirely new systems, ensuring long-term military superiority while maintaining fiscal responsibility.

This strategy allows the United States to maintain its military superiority over China’s rapidly expanding and modernizing forces by prioritizing technological advancements over costly new platform development. By integrating AI, hypersonics, stealth, electronic warfare, and directed energy into existing platforms, the US can rapidly upgrade combat capabilities without the lengthy and expensive process of designing entirely new aircraft, ships, and ground systems. This ensures that American forces remain combat-ready and adaptable while China continues to build up its military infrastructure.

One key advantage is speed and efficiency—modernizing proven platforms allows the US to deploy cutting-edge technologies much faster than China, which is still refining its next-generation aircraft, naval forces, and missile systems. Upgrading legacy airframes like the F-15EX and B-52J with hypersonic weapons, enhancing stealth with radar-absorbent materials, and improving real-time battlefield awareness with AI-driven sensor fusion ensure that American forces can strike faster, detect threats sooner, and operate with superior coordination.

Additionally, network-centric warfare improvements, such as joint all-domain command and control (JADC2) and real-time data-sharing, enhance multi-domain operations, allowing the US to maintain an intelligence and decision-making advantage over China’s military.

Survivability is another critical factor. By integrating active protection systems into tanks, directed-energy weapons into naval ships, and AI-driven electronic warfare suites into aircraft, US forces can better counter China’s advanced missile threats, cyber warfare tactics, and mass drone swarms. Additionally, maintaining a robust industrial base through upgrades to existing platforms ensures that production remains scalable and sustainable, unlike China’s military, which relies heavily on state-controlled production with limited battlefield testing of new systems.

By leveraging emerging technologies in a modular, cost-effective manner, the US can remain ahead of China’s growing military without the financial and operational burdens of continuously developing entirely new systems. This strategy ensures that American forces remain agile, lethal, and technologically superior, capable of deterring war and, if necessary, achieving decisive victories in any operational environment.

Joshua Thibert is a Senior Analyst at the National Institute for Deterrence Studies (NIDS) and doctoral student at Missouri State University. His extensive academic and practitioner experience spans strategic intelligence, multiple domains within defense and strategic studies, and critical infrastructure protection. Joshua currently resides in Columbus, Ohio.

Maintaining American Military Primacy Without Breaking the Bank was originally published on Global Security Review.

Their low cost, flexibility, and ability to operate without putting human pilots at risk make drones increasingly valuable in conventional military conflicts. Their capabilities already include reconnaissance and surveillance, long-range strike missions, electronic warfare, and precision killing.

With their precision-targeting ability, drones can be integrated into nuclear deterrence strategies. For instance, they could be used to ensure the survivability of a country’s nuclear forces by providing continuous surveillance and early warning against potential nuclear threats. Drones could also support a more viable second-strike capability, potentially increasing the credibility of nuclear deterrence by ensuring that a country retains a means to retaliate even after a nuclear first strike.

The use of drones in situations where nuclear escalation is a possibility could lead to unintended consequences. The increasing autonomy of drones raises the risk of misinterpretation, as drones could be perceived as a precursor to a larger attack, even when they are only conducting reconnaissance. This could trigger a preemptive nuclear strike by an adversary, leading to an inadvertent escalation into full-scale nuclear war. Cold War and subsequent histories show that the danger of inadvertent nuclear escalation is not trivial.

The possibility that expansion of the war in Ukraine from conventional weapons into nuclear first use could occur from Russian views of Ukrainian deep strikes into Russian territory, with NATO ballistic and cruise missiles, provides one example of concerns in this category.  Lewis A. Dunn suggests that President Donald Trump is faced with a world sliding into nuclear anarchy. He writes:

Brinkmanship among major nuclear powers is rising. China is relentlessly expanding its nuclear forces but rejecting serious engagement with the United States on arms control. US–Russia cooperation on nuclear matters, already in a dire state, has deteriorated further with President Vladimir Putin’s repeated nuclear threats in the course of Russia’s war in Ukraine. Recent reports based on information from senior US officials indicate that the United States, too, could modify its posture and expand its arsenal to strengthen deterrence of coordinated Russian, Chinese, and North Korean nuclear adventurism. All these developments have eroded critical pillars of nuclear order and raised the risk of nuclear warfare.

Drones are relatively fast, low-cost, and difficult to detect, which makes them ideal for preemptive strikes against high-value targets. In theory, a nation could deploy a drone strike against an adversary’s nuclear command-and-control infrastructure or missile silos, aiming to disrupt or neutralize a potential nuclear retaliation before it can be launched. In addition, drones equipped with nuclear payloads or advanced conventional weapons could be used as part of a disarming strike. The ability to carry out such strikes could shift the strategic calculations of nations, as adversaries might feel more vulnerable to a preemptive attack, especially if they believe their nuclear retaliation capabilities could be neutralized by fast-moving drone strikes.

As drones become more autonomous, the risk of them making decisions without human oversight increases. In a nuclear context, where the consequences of any action are catastrophic, the delegation of decision-making to machines is highly controversial. The potential for autonomous drones to trigger a nuclear response or make fatal miscalculations due to algorithmic errors presents a possible threat to strategic stability.

Given that drones can operate autonomously, one challenge is ensuring that their actions do not trigger unintended escalation. Moreover, the reliance on technological systems for communication and control in a nuclear context raises concerns about vulnerabilities in these systems, especially if adversaries employ cyberattacks or electronic warfare tactics to disrupt drone operations.

Future generations of drones will interact with artificial intelligence that also supports other elements in the matrix of deterrence and defense. AI will privilege deterrence by denial compared to deterrence by credible threat of unacceptable retaliation. It will do so because states will have to quickly manage the deterrence and/or conduct conflicts in multiple domains: land, sea, air, space, cyberspace, and the information or knowledge domain. The knowledge domain wraps around all the others. It is the “gnostic center” that controls, connects, and prioritizes among the component parts of the various domains in order to provide for the correct response to threats or attacks.

AI-assisted attacks on the gnostic center will require immediate responses by AI-assisted defenses that can defeat or diminish the cost of those attacks. Absorbing the first blow and then retaliating may not be a choice that is available to beleaguered and time-pressed decision-makers. This situation poses an especially concerning challenge for nuclear deterrence. Decisions for or against nuclear war should allow policymakers sufficient time to deliberate alternatives with their advisors and to select the most appropriate option for the exigent circumstances. But the potential speed of AI-boosted attacks against space and cyber assets, together with the rising speed of kinetic strikes from hypersonic weapons, may leave leaders fearful of an enemy nuclear first strike to choose preemption instead of retaliation.

Just as we can conceive of drones as reconnaissance and strike platforms for offenses, it is also possible that drones can be part of any state’s comprehensive antimissile and air defense plan. One illustration is the use of drone swarms to defeat attacking drones tasked with reconnaissance or strike missions. Another example would be the use of drones for electromagnetic “hit to kill” within the atmosphere or, even more ambitiously, in midcourse intercept against attacking ballistic missile forces. Drones based on one or more lunar spaceports could protect American interests in cislunar space.

Futuristic drones with embedded AI and space-to-space weapons could defend orbital satellites against attack (so-called DSATs) or engage another state’s satellites that appear threatening (ASATs). Priority DSATs and ASATs would deter or defend against any threat to the viability of American satellites for warning and assessment; command, control, and communications; geolocation; and other missions.

Comparatively inexpensive drones could thus take over some of the strategic defense burden, otherwise requiring both upgraded terrestrial missile launchers and kill vehicles or, eventually, sophisticated ballistic missile defenses based on space-to-earth weapons such as lasers or particle beams. Future planners should expect a more crowded space domain, including newer generations of orbital satellites with diverse missions, space stations, and additional reconnaissance and strike weapons along with smarter drones and larger swarms.

The preceding discussion about drones and their possible relationship to nuclear deterrence has implications for nuclear arms control. It is important for a peace agreement to terminate the war in Ukraine for many reasons. One reason is so that the United States and Russia can resume negotiations about an arms control regime to succeed the New START agreement, due to expire in 2026.

The “beyond New START” consultations should include discussions about the two states’ arsenals of non-strategic nuclear weapons and protocols for nuclear first use. Vladimir Putin’s repeated warnings about the possibility of Russian nuclear first use in Ukraine is dismissed by some as bluffing for effect, a form of coercive diplomacy. On the other hand, Russia’s doctrinal shifts appear to move toward a more permissive standard as the war continues. In addition to clarifying this matter, the United States and Russia must acknowledge that China is an aspiring nuclear peer and include China in discussions about nuclear policy issues, including transparency about force structures and military doctrines. China is unlikely to be interested in arms reductions per se, but dialogue should be initiated at the expert level to clarify China’s thinking about strategy, arms control, and related issues.

The character of war changes with the advent of new technologies and strategic thinking.  But the nature of war is perennially the environment of competition and conflict, uncertainty, chance, and friction. The relationship between drones and nuclear deterrence represents a mixed blessing for military planners and arms control. Drones have the potential to enhance nuclear deterrence, but they also introduce significant risks in terms of escalation control and first-strike stability. As drone technology advances, it will be critical for policymakers to develop strategies that account for the unique challenges drones pose in nuclear deterrence and, as well, their future roles in space and cyber wars.

Professor Stephen Cimbala, PhD, is a Senior Fellow at the National Institute for Deterrence Studies.

Nuclear Deterrence and Drones: An Unpredictable Mix? was originally published on Global Security Review.

The challenge is clear; adversaries are developing ASAT weapons, electronic warfare capabilities, and cyber threats that can disable American satellites—disrupting military operations, global communications, and economic stability. Without a robust deterrence framework, adversaries are emboldened to target space infrastructure. To counter these threats, the US must enhance resilient space architectures, strengthen policy frameworks, and refine operational doctrine to deter and, if necessary, defeat adversarial actions in space.

Resilient Space Architectures: Hardening the Backbone of American Space Operations

One of the most effective deterrence measures is making space assets more difficult to target and replaceable, if attacked. The United States is shifting from large, centralized satellite systems to disaggregated and proliferated constellations, reducing the risk posed by any single point of failure. The Proliferated Warfighter Space Architecture (PWSA), led by the Space Development Agency, aims to deploy a network of small, low-cost satellites that provide redundancy, making it harder for adversaries to cripple American space capabilities with a single strike.

Additionally, on-orbit servicing, maneuverable satellites, and rapid launch capabilities enhance resilience. SpaceX’s Starlink and the Rapid Agile Launch Initiative ensure that the US can quickly replenish space assets, denying adversaries the ability to achieve lasting effects through space attacks. By maintaining a dynamic, self-healing space architecture, the US strengthens deterrence by signaling that any attempted disruption will be ineffective.

Counterspace Capabilities: Strengthening Active and Passive Defenses

While resilience is key, deterrence also requires credible counterspace capabilities to impose costs on adversaries. The US Space Force and other defense agencies are investing in defensive counterspace measures, such as jamming-resistant communications, maneuverable satellites, and cyber-hardened space systems to protect critical assets.

At the same time, the US must maintain offensive counterspace capabilities as part of a deterrence posture. This includes electronic warfare tools to disrupt enemy satellite operations, rendezvous and proximity operations (RPO) for on-orbit inspection and intervention, and ground-based kinetic and non-kinetic capabilities to neutralize hostile space threats. By demonstrating both defensive resilience and credible response options, the US reinforces deterrence by denial and punishment.

Policy and Alliances: Strengthening Space Norms and Collective Security

A strong policy framework and allied cooperation bolster deterrence by shaping adversary behavior and reinforcing international stability. The Artemis Accords, a multinational agreement on responsible space conduct, establish norms that promote transparency and discourage hostile activities. The US must continue leading diplomatic efforts to build consensus on space security standards, making aggressive actions politically and strategically costly for adversaries.

Additionally, alliances like the North Atlantic Treaty Organization (NATO), partnership with the Quad (Australia, India, Japan, and the US), and Five Eyes intelligence network provide collective security in space. The Combined Space Operations (CSpO) initiative, which includes Australia, Canada, France, Germany, New Zealand, the UK, and the US, enhances shared situational awareness and rapid coordination in space crisis scenarios. By integrating allied capabilities, the US deters adversaries by presenting a unified, multinational response to any hostile space activity.

Space Domain Awareness: Gaining the Tactical Advantage

Deterrence depends on knowing when and where threats emerge. The US Space Force and the National Reconnaissance Office (NRO) are advancing Space Domain Awareness (SDA) through advanced radar systems, AI-powered surveillance, and persistent monitoring of space objects. Programs like the Deep Space Advanced Radar Concept (DARC) and the Space Surveillance Telescope provide real-time tracking of adversary satellite maneuvers, ensuring that hostile actions do not go undetected.

By integrating AI and machine learning, the US can predict and respond to potential threats before they escalate. Improved SDA capabilities deny adversaries the element of surprise, reinforcing deterrence by ensuring that any aggressive move is immediately identified and countered.

Military Space Operations: Defining Rules of Engagement

To deter and defeat adversary actions, the US must develop clear space warfighting doctrine and operational concepts. The Space Force’s “competitive endurance” strategy emphasizes continuous engagement with adversaries to counter gray zone tactics, such as cyber intrusions, satellite blinding, and electromagnetic interference. Establishing clear rules of engagement for responding to hostile actions in space strengthens deterrence by ensuring decisive and proportional responses when necessary.

Additionally, the integration of space with multi-domain operations ensures that any adversary attack on space assets is met with cross-domain retaliation, whether in cyber, air, land, or sea. This raises the stakes for adversaries, reinforcing deterrence by making space conflict an unattractive option.

Conclusion: A Comprehensive Approach to Space Deterrence

The US must pursue a multi-layered strategy to deter and defeat adversary actions in space. Resilient architectures, credible counterspace capabilities, strong alliances, superior space domain awareness, and well-defined military operations are essential to ensuring freedom of action in space and securing national security interests. As space becomes increasingly contested, the ability to deter, detect, and defeat threats will determine whether the US maintains its strategic advantage beyond the atmosphere.

Brandon Toliver, PhD, is an engineer and career civil servant with the Department of the Air Force. The views expressed are his own and do not necessarily represent those of the US Air Force. Views expressed in this article are the author’s own.

Beyond the Atmosphere: Strengthening US Space Deterrence in a Contested Domain was originally published on Global Security Review.

Standoff warfare is characterized by the use of long-range weapon systems, such as cruise missiles, drones, and precision-guided munitions, to engage targets from a safe distance. This approach leverages advanced surveillance, reconnaissance, and targeting technologies to identify and strike enemy assets without direct engagement.

Advantages of Standoff Warfare

One of the primary advantages of standoff warfare is the significant reduction in the risk to military personnel. By operating from a distance, forces are less exposed to direct enemy fire and ambushes, leading to fewer casualties and increased morale. By keeping forces out of the immediate reach of the enemy, standoff warfare helps preserve valuable military assets. This approach ensures that high-value equipment and personnel are available for prolonged engagements and future conflicts.

Modern long-range weapons are highly accurate, allowing for precision strikes on strategic targets. This capability enhances operational efficiency by focusing on high-value targets and minimizing collateral damage, which is crucial in maintaining public support and adhering to international laws of warfare.

The ability to strike from a distance can have a significant psychological impact on the enemy. The constant threat of unexpected precision attack can demoralize opposing forces and disrupt their operational planning and execution.

Standoff warfare allows for rapid deployment and response to emerging threats. With assets positioned at a safe distance, commanders can quickly adapt to changing battlefield conditions and execute strikes without the need for extensive mobilization.

Disadvantages of Standoff Warfare

Standoff warfare relies heavily on advanced technologies for surveillance, targeting, and weapon delivery. This dependence can be a vulnerability if these systems are disrupted by electronic warfare, cyberattacks, or other countermeasures.

The development, procurement, and maintenance of long-range weapon systems and associated technologies are expensive. The financial burden of sustaining a standoff warfare capability can strain defense budgets and divert resources from other critical areas.

Standoff warfare is most effective against concentrated, high-value targets. When facing adversaries employing dispersed, decentralized tactics, the efficiency of long-range strikes diminishes, necessitating alternative approaches.

Accurate intelligence and targeting data are crucial for successful standoff operations. The reliance on real-time, high-fidelity information can be a limitation if there are gaps in intelligence or if adversaries employ deception and concealment strategies.

The use of long-range strikes can be perceived as highly provocative and potentially escalatory in a conflict. Adversaries may respond with retaliatory measures, leading to a cycle of escalation that can spiral out of control.

China

China’s military modernization and expansion pose a significant challenge to American and allied forces in the Indo-Pacific region. China’s development of anti-access/area denial (A2/AD) capabilities, including long-range missiles, sophisticated air defenses, and naval assets, necessitates a robust standoff strategy.

Standoff warfare allows the US and its allies to engage Chinese assets from a distance, mitigating the risk posed by China’s A2/AD systems. The ability to strike from afar can disrupt Chinese operations, degrade critical infrastructure, and maintain freedom of navigation in contested areas.

China’s advancements in electronic warfare, cyber capabilities, and counter-space operations could undermine the effectiveness of standoff warfare. Additionally, the vast expanse of the Indo-Pacific region presents logistical challenges for sustaining long-range operations.

Russia

Russia’s military doctrine emphasizes hybrid warfare, combining conventional and unconventional tactics. Its integrated air defense systems, long-range missile capabilities, and electronic warfare proficiency make it a formidable adversary.

Standoff warfare enables NATO forces to counter Russian aggression by targeting key military installations, command-and-control centers, and logistical hubs from a safe distance. Precision strikes can degrade Russia’s offensive capabilities and hinder its operational tempo.

Russia’s integrated air defenses and advanced electronic warfare capabilities pose significant challenges to standoff operations. The risk of miscalculation and escalation is also high, given the proximity of NATO forces to Russian borders and the potential for rapid conflict escalation.

Iran

Iran’s strategic posture relies on asymmetric tactics, including the use of proxy forces, ballistic missiles, and naval assets in the Persian Gulf. Its ability to disrupt critical waterways and target regional adversaries necessitates a nuanced approach.

Standoff warfare allows the US and its allies to target Iranian missile launch sites, naval assets, and command structures with minimal risk to their forces. This approach can help deter Iranian aggression and protect vital shipping lanes in the region.

Iran’s use of underground facilities, mobile missile launchers, and dispersed assets presents challenges for effective targeting. Additionally, the potential for retaliatory actions against regional allies and American interests necessitates careful consideration of the broader geopolitical implications.

Conclusion

Standoff warfare continues to offer significant advantages in terms of force protection, precision, and operational flexibility. However, its effectiveness is contingent on technological superiority, accurate intelligence, and the ability to adapt to evolving threats. Against adversaries like China, Russia, and Iran, standoff warfare provides a valuable tool for countering their respective military capabilities. Nonetheless, it must be integrated into a comprehensive strategy that addresses the unique challenges posed by each adversary and mitigates the risks of escalation and technological vulnerabilities. As hypersonic, low-observable, and other advancing technologies continue to develop, they will force the need for rapid evolutions of military doctrines which will need to consider the role of standoff warfare as a critical component of modern defense strategies.

Joshua Thibert is a Contributing Senior Analyst at the National Institute for Deterrence Studies (NIDS) with nearly 30 years of comprehensive expertise, his background encompasses roles as a former counterintelligence special agent within the Department of Defense and as a practitioner in compliance, security, and risk management in the private sector. His extensive academic and practitioner experience spans strategic intelligence, multiple domains within defense and strategic studies, and critical infrastructure protection.

Striking from Afar: The Strategic Edge of Standoff Warfare was originally published on Global Security Review.

India’s anti-satellite (ASAT) test, held on March 27, 2019, highlights its growing space capabilities and intent to weaponize space. India’s test, known as “Mission Shakti,” demonstrated its ability to intercept and destroy a satellite in low Earth orbit, positioning India as one of only four countries with such capabilities. While Indian officials maintain that the test was aimed at strengthening national security and not directed toward any particular country, such a capability would pose a significant threat to Pakistan’s space assets, which would undermine Pakistan’s situational awareness, communication, and command-and-control capabilities during a conflict.

The implications of India’s recent MIRV test to its intent in the space domain have received little scrutiny, with one Indian analyst suggesting that the country’s MIRV efforts complement its space ambitions. However, analysts did not address the potential implications on regional stability. India’s development and testing of advanced missile technologies suggest that New Delhi could use these capabilities for counter-space missions, including the targeting of satellites, and their expansion of counter-space weapons may disrupt the strategic equilibrium in South Asia.

Bringing MIRVs to Space

While the primary use of MIRV ballistic missiles is not in counter-space missions, there are scenarios and technologies related to MIRVs that could potentially be adapted for anti-satellite (ASAT) roles. Instead of carrying nuclear warheads, the MIRV could be equipped with kinetic kill vehicles (KKV) or other payloads designed to disable or destroy satellites through collision or other means. A missile equipped with MIRV technology could launch multiple payloads into space, each with its own propulsion and guidance systems, allowing them to maneuver into specific orbits close to target satellites. Moreover, the independent targeting capability of MIRVs means each payload could be directed to a different satellite, potentially allowing for simultaneous attacks on multiple targets in different orbits.

In addition, co-orbital systems can loiter in space and potentially engage targets when needed, providing a persistent threat compared to direct-ascent ASAT systems. MIRVs could be adapted for co-orbital ASAT missions by modifying their payloads and utilizing their independent targeting capabilities. Russia and China have demonstrated co-orbital ASAT systems, while the United States maintains advanced space technologies that could potentially be used in similar roles. The adaptation of MIRVs for such purposes would be complex and carry significant strategic and legal implications.

Implications for Regional Stability

Outer space is considered a global common, a concept established by the Outer Space Treaty of 1967, which ensures that space is free for exploration and use by all countries, cannot be claimed by any nation, must be used for peaceful purposes, and should be preserved for future generations. It is crucial that this principle should be consistently applied to preserve space for the benefit of all states for communication, navigation, weather monitoring, and scientific research. However, the growing overlap between military and space technologies is blurring the lines between these fields and raises apprehensions about the militarization and potential weaponization of the domain.

The advancements made by India in military technology and satellite capabilities, which integrate military and space capabilities, have raised significant concerns about the weaponization of space in Pakistani policy circles. Pakistan also tested a MIRV capability on its Ababeel missile. However, it never demonstrated its intent to develop counter-space weapons through policy or capability development. Pakistan’s space policy and activities are focused on peaceful uses of outer space, such as satellite communications, remote sensing, and scientific research. Islamabad has participated in international initiatives aimed at promoting the responsible and peaceful use of outer space, including discussions on space security and arms control within forums such as the United Nations Committee on the Peaceful Uses of Outer Space (COPUOS).

Considering India’s development and modernization of its military beyond traditional security needs, such as its ASAT capability and advanced missile ranges, there is a possibility that New Delhi may use MIRVs for counter-space missions in the future. In a scenario of escalating tensions with Pakistan, India could conduct counter-space missions by either placing co-orbital ASAT systems during a brewing crisis or launch KKVs during a conflict by using MIRV capability. This would enable India to destroy Pakistani satellites, severely impairing Pakistan’s situational awareness, disrupting secure military communications, and degrading command-and-control functions.

As New Delhi strengthens its counter-space capabilities, its potential development of counter-space capabilities can upset the balance maintained by Pakistan’s effective deterrence posture in South Asia. The complex interplay between nuclear and conventional forces maintains this balance. However, there is a growing asymmetry between India and Pakistan in space capabilities.

New Delhi’s substantial advancements and investments in space technology and infrastructure outmatch Pakistan’s space capabilities, creating a significant power disparity where India has a much greater capacity to deploy and utilize space-based assets for various purposes, including military and intelligence gathering. India’s disproportionate expansion of space capabilities not only poses a threat to Pakistan but also China. Their reliance on satellites for command, control, communications, computers, intelligence, surveillance, and reconnaissance (C4ISR) functions is growing to address genuine security needs. Pakistan recognizes the strategic importance of information superiority in modern warfare.

With evolving security challenges, including border surveillance and counter-terrorism operations, Islamabad is enhancing its C4ISR capabilities through significant technological upgrades such as satellite programs and advanced communication systems, along with the integration of centralized command centers and secure communication networks. The expansion includes increased use of drones for surveillance and reconnaissance, development of electronic warfare capabilities, and robust cybersecurity measures.

Human resources are being developed through specialized training and international collaboration, particularly with China and Turkey, to facilitate technology transfer and interoperability. These efforts aim to improve situational awareness, decisionmaking, and operational effectiveness, strengthening Pakistan’s overall national security.

During a crisis, Pakistan may face the risk of its satellite assets being targeted which could have significant impact on its military and strategic capabilities. Pakistan could face severe constraints in its C4ISR capability. Moreover, the integration of satellite communication into Pakistan’s drone operations and C4ISR framework highlights the dependence on these assets for maintaining robust communication. Hence, the loss of satellite communication could disrupt command-and-control functions, impairing coordination and timely decisionmaking across the armed forces.

In view of these reasons, it is possible to conclude that India’s MIRV test represents a dangerous shift in the domain of space weaponization. The integration of MIRV technology with India’s missile systems not only enhances its nuclear deterrence but also signals its potential use for counter-space capability. Therefore, while India’s achievements in missile technology and space capabilities are notable, they carry significant risks for regional stability.

Maryyum Masood is working as a Research Officer & Associate Editor at the Center for International Strategic Studies (CISS) Islamabad. She is an MPhil scholar in the Department of Strategic Studies at the National Defense University (NDU) Islamabad. Views expressed in this article are the authors own.

India’s MIRV Development – A Latent Counter-space Capability was originally published on Global Security Review.