An F-35 hit out of over 15,000 missions over Iran does not testify to a structural vulnerability of Western stealth, but rather overwhelming air superiority – comparable to the best attrition rates ever recorded in modern conflicts.
The absence of visible evasive maneuvers suggests engagement by non-emissive infrared or optical sensors, exploiting a narrow tactical window linked to proximity and environmental conditions – not a systemic breakthrough of Iranian defense.
The plane was hit but landed safely on a friendly base, the pilot is alive: modern fighter jets are designed not for total invulnerability, but for organized resilience against impacts.
The sequence, though brief, has gone viral. It shows an aircraft in flight, without visible evasive maneuvers or deployment of decoys, then an impact or explosion nearby. Those who edited and circulated the video made sure to cut it immediately after the detonation. So the plane is not seen disintegrating, spinning out of control, or disappearing in a fireball.
BREAKING: Iran claims to have shot a US F-35 jet
– Rapid Report (@RapidReport2025) March 19, 2026
However, this sequence was interpreted as a turning point. The incident triggered a flood of comments forecasting, with even more spectacular assurance because it was unfounded, the “end of the myth” of stealth and structural vulnerability of fifth-generation fighters. The fact that an F-35 was hit over Iran immediately became, in some media circles and on social networks, proof of alleged Western technological obsolescence.
This interpretation projects a strategic significance onto an isolated incident that it does not carry. Because aerial warfare is not a competition for absolute invulnerability, but a game of probabilities where performance is measured over thousands of missions rather than through a singular event.
In the current war in Iran, Israel and the United States have together carried out over 15,000 sorties across the Iranian territory. One aircraft hit reflects a much higher superiority than anticipated in the history of modern aerial conflicts
This number alone is enough to put the event into perspective. Compared to the history of modern aerial warfare, it takes on a special significance. During the Vietnam War, the United States lost over 2,000 aircraft in combat against a dense air defense system, including artillery, surface-to-air missiles, and fighter jets, which demonstrated a real capability to inflict losses and disrupt operations. In 1991, during the Gulf War, the coalition conducted nearly 100,000 sorties with around 75 aircraft lost, a very low attrition rate, indicating a decisive technological and doctrinal superiority. By 2003, this rate further reduced, with less than 40 aircraft lost in over 40,000 sorties, confirming the rise of increasingly asymmetric aerial warfare. In this context, one aircraft hit (but not downed!) out of 15,000 sorties clearly aligns with this historical trend of reducing losses, demonstrating dominance rather than vulnerability. Aerial defense may claim occasional success. What matters is its ability to turn this success into the ability to impose a regular cost on the opponent and alter their operational behavior. Yet, there is no evidence of that here.
Let’s return to the aircraft that was hit. The most striking element is not so much the impact as the lack of visible response. No sudden turn, no decoy release, no recognizable evasive maneuver. This detail immediately steers the analysis. It suggests that the aircraft was not engaged by a conventional radar battery. In such a case, radar illumination or acquisition by a radar-guided missile would likely trigger an alert in the cockpit, giving the pilot, even if brief, time to react with active and passive countermeasures.
The most likely scenario is engagement by an infrared or optical sensor, therefore non-emissive. This type of system does not “betray” its presence through radar emissions and significantly reduces the target aircraft’s early warning capabilities. The missile or targeting system simply captures the thermal or visual signature of the target. In such conditions, detection by on-board alert systems becomes more uncertain until the terminal phase.
© Revue Conflits
This also implies another essential parameter: range. Passive systems of this kind generally operate at short distances, much shorter than radar-guided surface-to-air systems. In recent Indo-Pakistani conflicts, engagements claimed to have taken place over dozens of kilometers, in visual range shooting configurations. Here, we are completely changing scales. The engagement therefore assumes that the aircraft was operating within a relatively close envelope of threat, only possible under certain specific tactical or environmental conditions.
This observation is not contradictory to the logic of modern aerial operations.
In environments where air superiority is considered secure, aircraft may be brought down to lower altitudes or reduce their safety distance for precision missions, support, or intelligence
But for manned aircraft, this type of exposure remains limited and controlled in principle. The value of the platform and that of the pilot necessitate a careful risk management.
Today, drones are increasingly taking on more of this risk. Cheaper, more replaceable, they are engaged in more exposed mission profiles, closer to enemy defenses. In Iran, about fifteen of them have reportedly been lost. This asymmetry indirectly highlights the incident. What appears exceptional for a manned aircraft is, for non-habitual systems, a much more ordinary reality of contemporary warfare.
Finally, this type of engagement heavily depends on environmental conditions. A clear sky, good visibility, and exploitable thermal signature significantly enhance the effectiveness of infrared or optical sensors. Conversely, cloud cover, countermeasures, or certain flight configurations can reduce their efficacy. In other words, the incident does not reveal a systemic breakthrough in Iranian aerial defense but rather the exploitation of a rare tactical window, made possible by a combination of proximity, favorable conditions, and an unpredictable detection mode.
Finally, the aircraft was hit but did not crash. It landed on a friendly base and the pilot is alive. This fact is crucial yet largely absent from the most alarmist comments. Is it possible for an aircraft to withstand the impact of a missile and survive? Not only is it possible, but that’s precisely why it is designed. Modern fighter jets are not built on the assumption of total invulnerability but organized resilience. Protection of critical elements, system redundancy, circuit compartmentalization, fire suppression devices, all contribute to allowing the aircraft to continue flying after being hit.
Moreover, it is rare for a surface-to-air missile to hit an aircraft directly. Most of the time, the precision is not sufficient, and the missile passes close to the target, detonating its explosive charge through a proximity detonator just a few meters away from the target. As it moves away from the target, it triggers its charge and releases shrapnel aimed at damaging critical systems, such as control surfaces, fuel tanks, the engine, hydraulic circuits, and avionics. The goal is not necessarily to destroy the aircraft instantly but to make it uncontrollable and force the pilot to eject.
In most cases, the aircraft does not disintegrate in flight. It continues to operate while the systems that were hit begin to degrade. The pilot, sometimes injured, then has limited time to decide whether to eject or attempt to return the aircraft to a base. This intermediate temporality, neither immediate destruction nor restored safety, characterizes most modern engagements. It is invisible in simplified narratives but constitutes the core of operational reality.
More broadly, this episode forces us to clarify what stealth truly is. It is neither invisibility nor immunity. By reducing radar and infrared signatures, primarily through design and materials used, it shortens detection ranges, complicates target acquisition, and delays firing solutions. It is part of a larger system that combines electronic warfare, intelligence, suppression of enemy defenses, and network coordination. In other words, it does not eliminate risk but reduces it.
The real lesson from this incident is not found in the aircraft that was hit, but in the entire air campaign. If, after thousands of sorties, the Iranian defense only manages to record one isolated semi-success, it means that the system as a whole is functioning. Air superiority is not defined by total absence of losses but by their rarity and inability to disrupt maneuvering.
In this sense, the viral video mostly illustrates the growing discrepancy between perception and reality of war. Where the image suggests a tragedy, the numbers tell a story of continuity. And in this contrast, it’s not the vulnerability of the aircraft that is glaring, but that of contemporary analysis in the face of the power of immediate narratives.
