Whether the MSS is indicative of an unfolding RMA remains a subject of debate. At a minimum, it represents a significant leap in how modern militaries sense, decide, and act in combat. From a scholarly perspective, RMAs are not defined by single technological breakthroughs but by clusters of innovations that fundamentally transform the conduct of warfare.

They typically involve shifts in doctrine, tactics, organization, culture, and technology. Unlike broader military revolutions, which reshape societies and political systems, RMAs are confined to the military sphere—and they often unfold quietly, only recognized in hindsight.

Several RMAs were identified in the past, providing a framework to anticipate future ones. In The Dynamics of Military Revolutions: 1300–2050, MacGregor Knox and Williamson Murray outline five significant military revolutions in the West since 1618. Each one, they argue, set off a chain of revolutionary changes in military affairs.

These include the emergence of the modern state with its standing armies, the political and social upheavals brought on by the French Revolution, the industrialization of warfare in the 19th century, the era of total war in the 20th century, and the transformative impact of nuclear weapons. If a new RMA is underway, we may not fully recognize it until it has already matured.

The concept of RMA has drawn justified criticism for being abstract, amorphous, and debated to the point of analytical paralysis. After the Gulf War, the DoD’s fixation on identifying the “next RMA” often overshadowed the operational impact of emerging capabilities. Scholars frequently focus on definitional purity rather than assessing real battlefield transformation.

Whether the MSS fits a textbook definition, adopted by the DoW or derived from historical theory, is less important than its functional impact. If an RMA is indeed emerging or approaching, there should be tangible real-world consequences. Otherwise, theory becomes disconnected from practice. In this light, the MSS may serve as a bridge between the long-unfolding information RMA and a new, AI-driven transformation.

The MSS could be indicative of another significant shift in command and control (C2). While the US Army’s command post computing environment (CPCE) already integrates legacy systems into a modular, cloud-capable architecture for multi-domain operations, the MSS pushes these capabilities toward revolutionary real-time situational awareness.

While initially developed to automate drone feed analysis, the MSS has evolved into an AI-powered battlefield intelligence engine. It fuses intelligence, surveillance, and reconnaissance (ISR) data, enables real-time targeting, and supports distributed decision-making. As with the telegraph in the 19th century, the MSS may redefine the military’s relationship with information and time.

Historically, C2 was slow and fragmented. Commanders relied on flags, runners, and direct observation, limited by geography and transmission delay. The Industrial Revolution began to change this. Introduced in 1793, Claude Chappe invented the optical telegraph which allowed faster coordination across long distances. It was Samuel Morse’s electrical telegraph, patented in 1837, that truly revolutionized communication.

AI is reshaping combat just as electricity once did. Electricity transformed communication by creating the foundation for critical innovation, like the internet. The harnessing of electricity for industrial use itself was not an RMA, but it was the essential prerequisite for one. Without it, the revolution in communication that began with the telegraph would not have been possible. AI may not constitute a full RMA on its own, but it is the enabling foundation for one.

During the Crimean War and the American Civil War, the telegraph enabled real-time command for the first time. In the US, President Lincoln relied on the War Department telegraph office to direct Union forces and enforce strategic decisions. Strategic-level C2 became possible, and expectations for real-time situational awareness took hold. The rise of the steam-powered printing press and the expansion of railways accelerated this transformation, making war reporting nearly instantaneous—a precursor to modern information warfare.

Similarly, Project Maven, initiated in 2017, began as a machine learning initiative to automate drone video analysis. Since then, the MSS has grown to integrate cloud computing, ISR fusion, and targeting. The MSS delivers intelligence to the tactical edge at machine speed on enterprise cloud infrastructure. It processes unfathomable amounts of data in milliseconds— augmenting analysts and automating portions of the workflow.

Just like the electric telegraph centralized control and supported linear commander decisions, the MSS introduces machine learning, machine inference, and adaptive analytics to take command and control. The MSS provides a picture of the theater that is not merely quantitative, but qualitative.

A true RMA requires more than new technology. It demands operational adaptation, organizational restructuring, and doctrinal evolution. The MSS checks many of these boxes. Technologically, the MSS merges AI, edge computing, and cloud infrastructure in a holistic fashion. Operationally, it uses human-machine teaming to accelerate kill chains. Organizationally, it catalyzed the creation of institutions such as the Joint AI Center (JAIC) and the Chief Digital and Artificial Intelligence Office. Doctrinally, it promotes shifts toward algorithmic and mosaic warfare, which are adaptive, data-driven models of conflict.

The MSS could signal a broader shift in military operations, much like the telegraph reshaped communication in the 19th century. By combining intelligence, surveillance, and reconnaissance (ISR) with artificial intelligence at operational speed, the MSS is changing how armed forces interpret the battlespace, make decisions, and coordinate action—all while improving the shared situational picture. Yet without a corresponding cultural shift, even the best tools can fail to yield a true RMA. Whether the Department of War can fully adapt its doctrine and institutions to leverage the MSS remains to be seen.

Lieutenant Colonel Matthew J. Fecteau is an information operations officer working with artificial intelligence. The views expressed in this report are those of the author and do not necessarily reflect the official policy or position of the Department of the Army, the Department of War, or the US Government. 

Signals of a New Revolution: Maven Smart System and the AI-RMA Horizon 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.

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.

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.