Proliferation of unmanned systems in modern warfare has popularized the notion that traditional platforms have reached the end of their operational relevance. Particularly, the Russia-Ukraine war has deepened the perception that small, agile, and inexpensive drones have rendered manned platforms in land, air, and sea domain obsolete.

This argument gains credibility while assessing drones’ performance against manned armored vehicles which are now routinely labelled as outdated systems against drone-enabled precision strikes. Yet, what is often depicted in the media is only one side of the coin. Drones often fail to find targets, are intercepted, or manage to hit their target, thus not achieving intended results. Despite proliferation of first-person view (FPV) drones, armored vehicles continue to play a vital role in maneuver warfare and protected mobility. Modern armor strategies have evolved to include combined arms and dispersion rather than mass for increasing survivability and combat efficiency. In the Russia-Ukraine war, several rudimentary measures like installation of cope cages atop turrets, have been implemented by both militaries to enhance the survivability rate of tanks against kamikaze drones. Vehicle mounted jammers have also shown promising results. Defensive technologies, like active protection systems (APS) and electronic countermeasures (ECM), have proven their efficiency against FPV drones. Thus, it can be argued that drones have not turned armored vehicles obsolete; they have forced them to evolve into more refined systems.

Similarly, in the aerial domain, many analysts perceive unmanned aerial systems (UAS) as cost effective alternative vis-à-vis manned aircraft. Yes, UASs have shown impressive evolution. From dropping laser-guided bombs (LGBs) to firing cruise missiles, air-to-air missiles, torpedo, and even smaller drones, drones have come a long way in changing warfare. Increasingly, drones have pushed manned aircraft aside as a more efficient option for operational engagement. In Nagorno-Karabakh conflict, Azerbaijan innovatively employed aerial drones to expose Armenian air-defenses’ positions making them vulnerable to subsequent Azerbaijan’s targeted strikes. This unique use of drones as a crucial component of SEAD/DEAD (Suppression & Destruction of Enemy Air Defenses) kill chain marked a watershed moment in modern warfare.

However, the inherent limitations of drones are obvious too. UASs are more susceptibility to electronic warfare (EW) disruption and have unproven records in complex battlespace with dynamics rules of engagement (ROEs). Claims that unmanned systems will soon replace fighter jets overlook the enduring advantages of human decision-making in contested and escalation-sensitive environments. Manned aircraft provide operational flexibility and command judgment that are yet to be replicated through automation alone. The developmental trajectory suggests that instead of perceiving UAVs as one-one-one substitute for piloted aircraft, the future lies in Manned-Unmanned Teaming (MUM-T) where manned aircraft will serve as command nodes while accompanied unmanned systems will provide mass, persistence, and attainability.

In the naval domain, the successfully employment of kamikaze surface and aerial drones by Ukraine in the Black Sea conflict is now frequently cited as an indicator that large surface combatants will soon turn into relics of past. Besides sinking multiple Russian warships in the Black Sea, Ukraine has even damaged a Russian Kilo class submarine stationed at Novorossiysk harbor using an underwater suicide drone. The Russian Black Sea Fleet, despite having overwhelming superiority over Ukrainian counterpart, has failed to establish sea-control in the Black Sea primarily due to remarkable performance of Ukrainian naval drones.

Similarly, in the Red Sea crisis, the Houthis’ rudimentary drones have challenged the operational persistence of Western naval powers. Kamikaze drones have compelled American, British, French, and German warships to deplete expensive air-defense missiles, which in some cases resulted in pre-mature withdrawal. Close-in Weapon Systems (CIWS) is usually considered a potent point of defense against all types of aerial threats in the maritime domain. However, both gun-based and missile-based CIWS have limited magazine capacity and engagement range. This suggests that against a more capable adversary, drone swarms can saturate warships’ defenses and can cause mission-kill by damaging critical instruments onboard, rendering them inoperable for extended time duration.

Although naval drones have added an additional layer of threat for warships, they do not, in themselves, render them obsolete. Novel defensive capabilities for countering drone threats are already in the developmental phase. Few systems have been deployed and evaluated in real combat. For example, on 03 March 2024, an Italian Andrea Doria class destroyer shot down an incoming kamikaze drone threat in Red Sea using DART projectiles fired from 76mm deck gun, a move far more economically feasible than air-to-surface missile. Similarly, high-energy lasers (HELs) onboard warships are being tested for countering drones. Besides kinetic defensive application, soft-kill measures such as jammers and decoy systems are also emerging as critical components of warships defensive suite.

In addition, the Black Sea and the Red Sea are enclosed bodies of water, offering limited operational space for naval forces and providing tactical advantage to drone-based asymmetric tactics. In blue waters, however, the effectiveness of such drones would diminish considerably. In open seas, it is unlikely that even mass formations of drones would be able to penetrate modern naval armadas. Although suicide drones can be used in formation with cruise and ballistic missiles to outclass adversary air-defenses, but repeating such a feat against time-sensitive and well protected high-value naval ships would be a very challenging undertaking. Thus, it can be argued that sea drones can be employed as enablers or force-multipliers in conjunction with other systems, but not as decisive instruments of naval warfare.

The future of warfare will not be defined by the triumph of drones over manned platforms. Today, drones have turned into a potent tool of warfare and are also an integral part of the kill-chain of modern militaries around the globe. However, limitations cannot be ignored. In practice, drones work less as independent war-winning weapons but are enablers and force-multipliers. In the age of viral narratives and simplified conclusions, misperceptions regarding military technologies are bound to persist. No single military system determines the outcome of war, and no single innovation renders all others irrelevant. Military power is cumulative and contextual.

Ahmad Ibrahim is a Research Associate at Maritime Centre of Excellence (MCE), Pakistan Navy War College (PNWC), Lahore. The views of the author are his own.

Assessing the Credibility of Manned Platforms in Contemporary Drone-Rich Combat Environment 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.