In Ukraine, $500 FPV drones are taking out million-dollar tanks with pinpoint accuracy, while traditional warplanes are sidelined by dense anti-air defenses (Zafra et al. 2024). Thousands of miles away in the Red Sea, US fighter jets are downing Houthi drones using laser-guided rockets that cost a fraction of traditional missiles, choosing precision and cost efficiency over brute force (Epstein 2025). These instances highlight a critical question: Will drones someday supplant manned military aircraft as the primary means of air combat in the modern era?
These advancements show a recent trend: drones are becoming vital weapons integrated and indispensable in contemporary warfare. However, drones are unlikely to completely replace manned military aircraft, despite the quick advancements in unmanned aerial technology. Rather, more realistically, a hybrid approach that combines manned and unmanned platforms, each utilizing their own advantages and integrating them with each other, may be the way of the future for airpower.
This paper first looks at unmanned aerial vehicles’ (UAVs) history in military use, ranging from the Cold War to the present day. After that, it evaluates the threats and possibilities drones pose to several types of combat aircraft, including fighters, bombers, electronic warfare (EW), and ISR (Intelligence, Surveillance and Reconnaissance) systems, and assesses the likelihood of UAV integration or replacement. Lastly, it examines the wider ramifications of this change, such as the importance of human judgment, costs, and the policy challenges of integrating UAVs into our national security strategy.
The Rise of Drones: Evolution and Current Capabilities
To understand how UAVs might shape future airpower, it's first essential to briefly review their historical evolution. The first instances of UAVs being used by the military occurred during WWI, only to be used operationally starting in the Cold War. Despite the limitations of drone technology, the United States began developing radio-controlled reconnaissance drones that may gather intelligence without endangering pilots, finally deploying them in the late 1950s. November 1964 reportedly marked the first official U.S drone being shot down: called the Firebee Spy Drone, it was conducting reconnaissance over China before being intercepted (Tyagi 2023). The Ryan Firebee was one of the most famous UAVs of the time, flying hundreds of surveillance missions over Southeast Asia and becoming a representation of airborne espionage during the Cold War (Piesing 2024). Because Firebees and similar platforms relied on radio signals, their range was constrained, and they were susceptible to jamming (The Bureau of Investigative Journalism n.d.). However, their capacity to obtain imagery over adversarial territory without inciting full-scale conflict made them a silent but crucial intelligence weapon (Tyagi 2023).
During the early 2000s, drone warfare transitioned from surveillance platforms to armed precision strike tools. The MQ-1 Predator was first developed in the 1990s and equipped with Hellfire missiles to target high-value terrorist leaders, which played a crucial role in U.S. operations in Afghanistan and Iraq (Marino 2024; McNeil 2025). This increased coverage over hostile areas and decreased pilot risk by enabling the military to strike remotely. The MQ-9 Reaper, a larger, more lethal replacement, could carry more munitions and sustain longer strike operations at higher altitudes (Britannica n.d.). By the mid-2010s, drones were fully integrated in U.S. counterterrorism strategy, but also started sparking debates over ethics, responsibilities of oversight, and level of autonomy in warfare (Vyas 2020).
Today, UAVs are increasingly autonomous and have multi-role capabilities that far outsmart their older surveillance counterparts. These new capabilities are becoming essential for contemporary military operations. A new generation of drones, such as the MQ-28 Ghost Bat and XQ-58 Valkyrie, have been developed to fly alongside fighters as "loyal wingmen" and perform duties such as precision strikes, EW, and surveillance - all independently in order to lower pilot risks (Marino 2024). AI, which powers many of these systems, is gradually improving its ability to make judgments in real-time, analyze data in flight, recognize targets, avoid obstacles, alter mission plans, and adjust to contested environments, all with minimal human intervention (Oledcomm 2024; Surender 2024).
Drone swarms and loitering munitions are increasingly used to outnumber adversaries and create a continuous threat presence. Aiming to deploy modular UAVs that directly assist brigades in combat, the U.S. Army announced the effects program and its investment in the Future Tactical Unmanned Aircraft System (FTUAS) (Lima 2024). These platforms are changing how forces operate across domains. UAVs capable of jamming radars, disrupting communications, and spoofing enemy defenses now play a growing role in electronic warfare, especially in support of manned operations (Surender 2024). They’re also increasingly used for medevac, resupply, and communication relay missions in contested environments (Lopez 2017; Keller 2024). This demonstrates that these technological advancements are affecting the composition and approach of contemporary airpower (Caspi 2024).
Operational planning today heavily relies on modern military drones that conduct EW, intelligence gathering, precision strikes, and communications tasks; and ISR continues to be a core strategic capability. Systems such as the RQ-4 Global Hawk can provide continuous monitoring over large areas without putting personnel in danger by replacing them when flying over 60,000 feet for more than 30 hours (Marino 2024). Drones like the MQ-9 Reaper and Switchblade 600 offer accurate strike capabilities; the latter also serves as a loitering munition that can hover, locate, and destroy targets that are time-sensitive upon request (Caspi 2024).
Platform-by-Platform Risk Assessment
Given these rapid advancements in UAV capabilities, it is crucial to assess their potential impacts across different aircraft categories: Fighters, bombers, EW, and ISR aircraft will be discussed. This assessment rests on two distinct criteria. Integration risk measures how deeply UAVs are being incorporated into a platform's operations as a complement to manned systems, without necessarily replacing them. Replacement risk, by contrast, measures the likelihood that UAVs will fully supplant manned platforms in that role altogether. A given platform category can score differently on each axis, since deep integration does not necessarily imply eventual replacement, and vice versa.
1. Fighters: Low-Risk Replacement, High-Risk Integration
The U.S. Air Force is actively integrating drones into fighter operations through programs like the Collaborative Combat Aircraft (CCA) initiative, which pairs crewed platforms like the F-35 and F-22 with semi-autonomous drones such as the XQ-58 Valkyrie and MQ-28 Ghost Bat (Ross 2023; Frias 2025). These loyal wingmen conduct ISR, EW, and strike missions, thereby extending the pilot’s reach while reducing exposure to enemy fire (Army Recognition 2025). Drone swarms are also being tested for SEAD (Suppression of Enemy Air Defenses) missions, saturating adversary radar with multiple inexpensive threats.
However, drones lack the situational awareness required for close-range dogfighting and struggle with real-time threat prioritization, especially in chaotic air combat scenarios (Ross 2023). While AI excels at rapid calculations and adaptive maneuvering, human pilots still outperform in judgment, creativity, and leadership under pressure. As experts like Mary Cummings note, drones are most valuable when used for range, coverage, and support, not traditional dogfighting roles (Ross 2023).
In the future, UAVs will increasingly support fighter squadrons by offering tactical advantages such as extended reach, reduced risk, and real-time coordination, but human pilots will continue to play an essential role in achieving air superiority and providing mission command in complex operations.
2. Bombers: Medium-Low-Risk Replacement, High-Risk Integration
Unmanned systems are steadily becoming a fixture in bomber operations, especially for conventional strike roles. Drones like the X-47B and Ukraine’s long-range reusable UAVs have shown that unmanned platforms can fly deep into contested territory, conduct strikes, and return to base, multiplying sortie rates while minimizing risk to aircrew (Axe 2025; Skove 2023). Additionally, drone swarms are being employed to neutralize enemy air defenses ahead of manned bomber missions, effectively softening the battlespace for follow-up strikes (Skove 2023). The U.S. military’s B-21 Raider, which is built for both manned and unmanned missions, is designed not only for stealthy nuclear delivery but also to control drones as an interconnected ‘sky sensor’ (Osborn 2025).
Yet despite these advancements, drones remain fundamentally limited in roles like nuclear deterrence, which demand the flexibility, oversight, and accountability that only human crews can provide. As mentioned previously, even with bomber responsibilities, AI struggles in adaptive environments where ambiguous signals have to be interpreted or split-second decisions need to be made (Pickrell et al. 2024). This inability makes them less suited for the full range of bomber operations. While UAVs will likely dominate tactical and conventional bombing missions in the future, manned bombers will continue to be essential for strategic deterrence, nuclear delivery, and mission leadership in sensitive environments.
3. ISR: High-Risk Replacement
UAVs have become the preferred platform for ISR missions due to their endurance, cost efficiency, and ability to operate in high-risk environments without endangering pilots. Platforms like the RQ-4 Global Hawk can remain airborne for over 30 hours, providing persistent surveillance and wide area intelligence collection with high resolution sensors, including electro-optical, infrared, and synthetic aperture radar (A&D Market Reports 2023). UAVs are increasingly equipped for multi-sensor fusion and capable of feeding real-time intelligence into networked command systems, making them superior to many manned ISR aircraft in coverage and duration of flight (MAG Aerospace 2024; Caspi 2024).
Still, technical limitations remain. Large ISR drones are vulnerable to electronic warfare, including GPS jamming and spoofing, and they lack the interpretive intelligence and flexibility that analysts bring (MAG Aerospace 2024). While autonomy is improving, current systems struggle with synthesizing multi-source intelligence under ambiguous conditions where human judgment is still critical (Molloy 2024b; MAG Aerospace 2024).
As ISR increasingly shifts toward UAV dominance, full replacement of manned systems like the RC-135 Rivet Joint appears likely within the next decade, especially for conventional surveillance missions. However, human-led platforms may persist for highly sensitive or politically tense operations at least for the foreseeable future (Harper 2022). Unlike fighters, bombers, and EW aircraft, ISR shows little evidence of manned-unmanned teaming, as UAVs in this category operate independently rather than extending or partnering with a crewed platform. This makes integration highly unlikely, leaving replacement as the defining dynamic of this category.
4. EW aircraft: Medium-Risk Replacement, High-Risk Integration
EW aircraft, such as the EA-18G Growler and EC-130 Compass Call, conduct missions involving electronic attack, jamming, and signals intelligence (Ellis 2025; Ross 2023). Given the risks of contested airspace, UAVs are emerging as potential replacements or complements, reducing danger to aircrew (Molloy 2024a). UAVs are well-suited for SEAD and electronic reconnaissance, with drone swarms capable of saturating enemy radars and communications at lower cost (Marino 2024; Surender 2024). They can also execute long-duration missions autonomously, improving operational resilience and flexibility (MAG Aerospace 2024; Ross 2023).
However, technical and operational limits prevent full replacement of manned EW aircraft. UAVs often lack the power, payload, and antennas needed for complex EW missions (Ross 2023; MAG Aerospace 2024). They also struggle to adapt in dynamic electronic environments where human operators excel (Osborn 2025; Molloy 2024b). Policy and ethical concerns further require human oversight for sensitive operations, restricting full autonomy (Perrin 2025; Stambamkadi 2025).
Over the next 10-15 years, UAVs will likely complement, not replace, crewed EW platforms. Drone swarms and autonomous systems will take on high-risk tasks, boosting the effectiveness and survivability of manned aircraft. Hybrid operations will dominate, balancing new technology with the need for human judgment and oversight (Osborn 2025; Surender 2024).
Implications and Challenges
Considering these platform-specific assessments, it becomes clear that broader strategic, ethical, and operational implications must also be addressed. Despite significant advances in UAV capabilities, these systems remain susceptible to EW, including GPS jamming, spoofing, and cyber intrusions, threats already demonstrated in Ukraine (Stambamkadi 2025). AI-guided systems struggle in fast-moving, unpredictable combat scenarios where advanced situational awareness and ethical judgment are essential. Unlike human pilots, drones rely on sensor data and fixed algorithms, limiting their cognitive flexibility and adaptability in high-stakes situations (Ross 2023; MAG Aerospace 2024). This dependence increases risks of misinterpretation, raising serious legal and ethical questions, especially regarding compliance with international humanitarian law and principles of distinction and proportionality (Davison 2018; Stambamkadi 2025). Consequently, human oversight remains crucial for ethical accountability and reliable decision-making in contested airspace (Perrin 2025).
Unmanned systems are often viewed as cost-effective, but their long-term financial footprint is more complex. Drones like the MQ9 Reaper, priced around $32 million per unit, appear cheaper than manned platforms (Hambling 2020). However, lifecycle costs rise due to software updates, cybersecurity demands, and specialized maintenance (Surender 2024). Operating a single MQ9 can exceed $100 million when accounting for training, infrastructure, and support (Carter 2026). RAND research indicates UAV procurement and flyaway costs scale similarly to manned aircraft, emphasizing that sustaining a capable drone fleet remains capital intensive (Light et al. 2024).
Growing global reliance on UAVs is prompting adversaries to develop counter-drone capabilities. Russia, China, and Iran are investing heavily in EW, directed energy weapons, and advanced air defenses to neutralize drones (Stambamkadi 2025; Molloy 2024b). This evolving threat landscape demands ongoing innovation in drone design and operational doctrine to maintain effectiveness.
Finally, the idea of fully autonomous lethal systems remains unrealistic, as current U.S. and NATO policies still require human oversight for lethal strikes (Perrin 2025). Delegating life-and-death decisions to machines raises unresolved questions about accountability and moral responsibility. As autonomy advances, policymakers face growing pressure to revise regulatory frameworks that are neither comprehensive nor equipped to address emerging challenges (Davison 2018; Perrin 2025). Compounding the issue, existing international arms control regimes, such as the Missile Technology Control Regime (MTCR), originally designed to limit missile proliferation, did not anticipate the rise of UAVs (Davenport n.d.; U.S. Department Of State 2025). The absence of dedicated, binding regulations leaves global security exposed to destabilizing risks from both state and non-state actors (Davenport n.d.).
Looking Ahead 10 Years in The Future of Air Power
When discussing UAVs of the past and the present, the natural question to ask is: what will the landscape of airpower realistically look like ten years from now? In the coming decade, airpower will be shaped less by the replacement of manned aircraft and more by the integration of crewed and uncrewed systems. UAVs are expected to take on a growing share of ISR, strike, and support roles, while manned platforms remain essential for mission command, complex decision-making, and nuclear deterrence. The United States Air Force’s CCA program is already developing hybrid squadrons where fighter pilots fly alongside loyal wingmen drones, enhancing range, survivability, and performance in contested airspace (Ross 2023; MAG Aerospace 2024). By 2035, most advanced air forces will likely field UAVs in frontline roles, with human operators maintaining oversight and control.
This hybrid model reflects the practical reality of modern warfare. UAVs excel in high-risk, high endurance, and expendable roles, but they still lack the adaptability, ethical judgment, and situational awareness needed in complex combat. As AI advances, these systems will grow more capable, yet long-term command is likely to remain with pilots. In the future, swarms of semi-independent drones may carry out large-scale missions with minimal oversight.
While drones are revolutionizing airpower, they will not replace manned aircraft. Instead, the future belongs to hybrid airpower, where UAVs enhance rather than replace human capabilities. The key takeaway is clear: human judgment remains irreplaceable in warfighting. Drones are powerful force multipliers, but pilots will continue to lead missions, particularly where lives, legality, and strategy intersect.
Recommendations
Translating that balance into policy requires the United States to invest aggressively in the technology reshaping airpower while safeguarding the human judgment that must still govern it. Alongside this, the pace of great power competition, particularly with China, demands acceleration. Recent Pentagon reporting shows Beijing rapidly closing the gap: China ordered one million one-way attack drones for delivery by 2026, and a 2025 CNAS report warns that U.S. forces risk having their warfighting strategies "overwhelmed by massed Chinese drone attacks" in a potential Taiwan conflict unless counter-drone capacity investment deepens (Pettyjohn and Campbell 2025; Panella 2025). Separately, the Pentagon's own annual report to Congress found that China's commercial and academic AI sectors have narrowed the performance gap in large language models and AI-based reasoning systems that increasingly underpin autonomous combat platforms (Harper 2025). China's September 2025 Victory Day parade further signaled this ambition, showcasing uncrewed ground vehicles, underwater and aerial drones, and collaborative combat aircraft as core pillars of the PLA's future force (Bresnick et al. 2026).
To keep pace, the United States should significantly increase investment in defense technology startups that have demonstrated faster, more cost-effective development cycles than legacy primes. Anduril Industries exemplifies this shift: the company, which closed a $5 billion Series H round in May 2026 at a $61 billion valuation, is reportedly now in talks for a new round that could value it near $100 billion and was awarded a 10-year U.S. Army enterprise contract worth up to $20 billion in March 2026 (Sacra n.d.; Iyer 2026). Its Lattice software platform and Arsenal-1 manufacturing facility in Ohio reflect a broader industry pivot toward cheap, "attritable" autonomous systems in place of high-end, hard-to-replace hardware. Anduril has company in this space: Shield AI ($12.7 billion valuation) and Saronic ($1.2 billion), which builds autonomous warships, along with Epirus, which has fielded directed-energy counter-drone systems, are part of a defense tech sector that has grown from under $1 billion in annual venture investment in 2018 to over $15 billion in 2025 (ValueAdd VC n.d.). These companies are winning contracts faster by leveraging Other Transaction Authorities, evidence that Silicon Valley style speed can outpace traditional Beltway procurement.
Drone investment also offers a faster route to offset a separate vulnerability: the depletion of U.S. missile stockpiles following the 39-day bombing and air defense campaign against Iran, Operation Epic Fury. According to CSIS analysts Mark Cancian and Chris Park, U.S. forces expended between 1,060 and 1,430 Patriot interceptors during the campaign, with full replenishment not projected until mid-2029, while THAAD usage totaled between 190 and 290 interceptors, with deliveries stretching into late 2029 (Cancian and Park 2026). Separate reporting frames the same drawdown in relative terms: the U.S. is estimated to have expended roughly 65 percent of its prewar Patriot inventory and about 38 percent of its THAAD inventory, leaving fewer than 1,000 Patriot interceptors and as few as 234 THAAD interceptors on hand (Oliverio 2026). Cancian and Park concluded bluntly that "there are no good alternatives to Patriot and THAAD for ballistic missile defense," warning that these depleted inventories have created a window of vulnerability for a potential Western Pacific conflict, since sophisticated interceptors take three or more years to return to prewar levels once funding is authorized (Cancian and Park 2026; Oliverio 2026). Lower-cost, expendable drones and loitering munitions, by contrast, can be produced and fielded on a timescale of months rather than years, offering a more immediate way to rebuild deterrence capacity while top-of-the-line interceptor stockpiles slowly recover.
Even as this integration accelerates, the United States must hold firmly to the paper's central caution: final lethal decision-making authority should remain human-centered. Preserving that judgment keeps a clear ethical and legal distinction between American forces and the adversaries this buildup is meant to deter. The stakes of getting this wrong are severe. The ICRC has warned that AI decision-support systems can process vast amounts of targeting data in seconds, but their speed and scale, worsened by automation bias, risk becoming simple rubber-stamping of a machine's recommendation rather than genuine human judgment (Droege 2025). Analysts have similarly cautioned that algorithmic errors can cascade undetected, feeding hallucinated or faulty intelligence into a targeting recommendation that gets approved in seconds and potentially actioned by an autonomous drone swarm, a risk underscored by a recent school bombing in Iran that killed nearly 200 children and teachers, an incident attributed primarily to human error but cited as a warning about the dangers of acting on faulty unverified intelligence (Hehir 2026). These cases show why speed and scale can never fully substitute for accountable human oversight in life-and-death decisions.
Ultimately, the world is innovating faster than the public sector's traditional acquisition cycles can absorb. As in Darwin's account of natural selection, survival favors the organism most capable of adapting quickly to a changing environment, regardless of its size or initial strength. In airpower as in evolution, the decisive advantage belongs to whichever power moves fastest from vision to fielded capability.
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