The Dawn and History of AI Fighter Jets

1. The Birth of Unmanned Aircraft: From Target Drones to Reconnaissance UAVs

1935, on the deck of a British naval vessel. Gunners look up at the sky. A small biplane, controlled by radio, weaves through the clouds. The DH.82B Queen Bee — this aircraft was born to be shot down. It was a target for gunnery practice. No one sat in the cockpit. Only the buzzing hum of the engine echoed through the sky, and some likened that sound to the wingbeat of a drone. That is how the word "drone" was born.

The history of unmanned aircraft began not in glory, but in sacrifice. Being shot down was the mission. Anti-aircraft gunners needed something real to aim at as they practiced tracking moving targets, and they could not very well shoot at manned aircraft. So a machine that could fly without a pilot was built. A machine that did not need to come back. A machine whose destruction would bring no tears. This was the first identity of the unmanned aircraft.

When World War II erupted, demand for target drones exploded. In the United States, a man named Reginald Denny began attaching radio control devices to model aircraft and supplying them to the military. These small flying machines, called the Radioplane OQ-2, became America's first mass-produced unmanned aircraft. During the war, more than 9,400 OQ-3 models were manufactured and flew over the Pacific and European skies. Most, of course, were shot down during training, plunging into the sea or crashing into fields.

When the war ended and the Cold War's shadow fell over the world, the fate of unmanned aircraft began to change entirely. They were no longer mere training aids. Discovering what the enemy was doing became the key to survival. At the time, reconnaissance aircraft flying over enemy territory still carried pilots, and when one was shot down, both the pilot's life and an enormous political crisis followed.

On May 1, 1960, an American U-2 reconnaissance plane was shot down over Soviet airspace. Pilot Gary Powers was captured alive, and relations between the United States and the Soviet Union turned ice-cold. This incident posed a single question to military strategists around the world: Is there no way to conduct reconnaissance over enemy territory without a pilot?

The answer already existed. You simply had to flip the target drone around. You had to take the machine that flew to be shot down and make it come back alive. The U.S. Air Force converted a jet-propelled target drone called the Ryan Firebee for reconnaissance use. These aircraft, code-named "Lightning Bug," carried out thousands of secret missions during the Vietnam War. They flew over North Vietnam's dense air defense networks, taking photographs, collecting electronic signals, and sometimes acting as decoys to exhaust the enemy's missiles.

The Lightning Bug flew along pre-programmed routes. Real-time control was impossible. Film could only be developed after the aircraft returned, and the intelligence was always in the past tense. Yet the single fact that no pilot was aboard was revolutionary enough. When one was shot down, no diplomatic crisis erupted, and there were no prisoner exchange negotiations to be dragged into. The age of machines dying in place of humans had begun.

The true leap came in 1982, in Lebanon's Bekaa Valley. The Israeli Air Force launched small drones called "Scout" and "Mastiff" to neutralize Syrian air defenses. These small propeller-driven aircraft were nearly invisible to radar, and most importantly, they could transmit video in real time. Commanders sitting inside containers could watch the battlefield "live." The moment an enemy radar activated, fighter jets on standby immediately fired anti-radiation missiles. Nineteen Syrian surface-to-air missile sites were destroyed in a single day.

This battle became a decisive turning point in the history of unmanned aircraft. The machine that began as a target had now become the eyes of the battlefield. It no longer flew to be hit. It flew to see, remember, and relay. Shocked by Israel's success, the United States rushed to reverse-import the technology, and this became the seed that would later grow into the Predator and the Reaper.

This is how unmanned aircraft were born. From bullet sponge to battlefield sentinel. From expendable commodity to strategic asset. From a machine whose loss made no one weep, to precision equipment whose destruction sent tens of billions of won vanishing into thin air. The simple idea that the sky did not need a human aboard began to change the face of war.

2. Predator and Reaper: Drones Evolved into Sky Assassins

3:00 AM, Creech Air Force Base, Nevada. Inside an air-conditioned container, a pilot grips a joystick. Multiple monitors stretch before his eyes, displaying an infrared image of a village somewhere in Afghanistan on the other side of the globe. People appear as white dots. One of them moves. The target. The pilot's finger rises over a button. "Fire." Three seconds later, the dot on the screen disappears. Six hours later, the pilot drives home and has dinner with his children.

This is the new landscape of war that the MQ-1 Predator created. A war where the distance between seeing and shooting has vanished. A war where the pilot need not be on the battlefield. The Predator was not merely an unmanned aircraft. It was a machine that rewrote the grammar of war itself.

The Predator's roots began in the garage of Israeli-born engineer Abraham Karem. Having emigrated to the United States in the 1980s, he designed a long-endurance unmanned aircraft called "Amber" at his own expense. His philosophy was clear: unmanned aircraft must stay aloft for a long time and must be reliable. Amber's design evolved through the GNAT-750 into the RQ-1 Predator in the mid-1990s.

Initially, the Predator was a reconnaissance aircraft. It served as the eyes monitoring enemy movements during the Balkan conflicts. But there was a problem. When the Predator spotted a target, it had to radio for manned fighter jets, and by the time they arrived, the target had often vanished. As long as a time gap existed between reconnaissance and strike, the enemy had room to escape.

On September 11, 2001, the world changed. The War on Terror began, and the need to track and immediately eliminate al-Qaeda leadership surged. The U.S. Air Force and CIA pushed forward with experiments to mount Hellfire anti-tank missiles on the Predator. It was surgery to give talons to a reconnaissance bird.

In November 2002, on a road somewhere in Yemen, a Predator was tracking a vehicle carrying a senior al-Qaeda operative. At CIA headquarters in Langley, Virginia, a button was pressed. A signal that had traveled thousands of kilometers bounced off a satellite and reached the Predator above Yemen, and a Hellfire missile launched from beneath the aircraft's wing. The vehicle was engulfed in flames. It was the first "drone strike" in human history.

The Predator's designation changed from RQ-1 to MQ-1. "R" stood for Reconnaissance, and "M" for Multi-role. This single letter change became the dividing line in the history of warfare. The unmanned aircraft was no longer a passive observer. It had become a self-hunting predator.

The Predator's success spawned an even more powerful successor: the MQ-9 Reaper. The name itself means "Grim Reaper." The Reaper was not a simple upgrade of the Predator. Equipped with a turboprop engine, its speed doubled, and its weapons payload increased fifteenfold. It could carry eight Hellfire missiles, plus GBU-12 laser-guided bombs or GBU-38 Joint Direct Attack Munitions (JDAMs). Its firepower rivaled that of a fighter jet.

The Reaper's true terror lies in its loiter time. Fully armed, it can remain airborne for over 14 hours. With a full fuel load, 27 hours is possible. This means giving the enemy no respite. The Reaper circles above a target area all day, observing "patterns of life." Who goes where, who meets whom, when they sleep. Everything is recorded. And at some moment, when the opportunity comes, a missile flies.

The Reaper's eyes are the MTS-B (Multi-Spectral Targeting System). By day it tracks targets with a high-resolution camera; by night with infrared sensors. Its Synthetic Aperture Radar (SAR) peers through clouds and smoke to see the ground. It can read vehicle license plates and identify human faces.

Yet even the sky assassin has weaknesses. The Reaper is slow. Its maximum speed is 480 kilometers per hour, but typical operating speed is 370 kilometers per hour — a quarter of a jet fighter's speed. With a 20-meter wingspan, it shows up clearly on radar. In places like Afghanistan, where enemy air defenses are rudimentary, it can reign supreme, but against adversaries with modern surface-to-air missiles like Russia or China, it is easily shot down.

By 2024, more than 20 MQ-9 Reapers had been shot down by Yemen's Houthi rebels. Aircraft costing over 30 million dollars each, brought down by obsolete missiles worth only hundreds of thousands. This is the trap of cost asymmetry. In a full-scale war between great powers, the Reaper cannot survive.

That is why the U.S. Air Force is preparing the next generation. New unmanned aircraft with stealth capability, AI-driven autonomous flight, and the ability to complete missions even when communications are severed. The Predator and Reaper are the machines that built the bridge — stepping stones from the age of remote control to the age of autonomous flight. They may have been the last unmanned aircraft piloted by humans.

3. The Limits of the Pilot: The Physical Wall of G-Forces and Cognitive Load

Altitude 5,000 meters. Inside an F-16 cockpit, the pilot begins a sharp turn. Instantly, body weight multiplies by nine. Eighty kilograms becomes 720 kilograms of pressure. Blood begins draining from the head. The edges of vision darken. It feels like driving through a tunnel. The pilot grits his teeth and clenches his abdomen. He holds his breath and tenses every muscle. Three seconds. Five seconds. Seven seconds. He must endure. If he cannot, he loses consciousness and the aircraft plummets to the ground.

This is 9G — nine times Earth's gravity. The limit that modern fighter jets can withstand, and the limit that humans can endure. And here lies the irony: what constrains the performance of 21st-century cutting-edge fighter jets is not the engine, the radar, or the missiles. It is the human sitting in the cockpit.

Fighter airframes can be engineered to withstand over 20G. But as long as a person is aboard, 9G is the ceiling. The human heart struggles to pump blood to the brain under 9G. And it often fails. When blood flow becomes insufficient, vision turns gray — "grayout" — followed by complete darkness — "blackout." If that state persists, consciousness is lost. G-LOC: G-force induced Loss of Consciousness. When an unconscious pilot releases the control stick, the aircraft cannot fly itself.

Pilots are trained to fight this limit. They enter centrifuges to experience artificially created 9G. They wear G-suits that inflate around the abdomen and legs. They learn the AGSM (Anti-G Straining Maneuver) — a breathing technique where they hold their breath and tense muscles below the neck to prevent blood from pooling downward. All of this must be done simultaneously while chasing enemy aircraft, monitoring radar, listening to radio communications, and firing missiles.

Yet G-forces are only half the problem. The other half is inside the brain: Cognitive Load. Modern aerial combat unfolds in a storm of information. AESA radar tracks dozens of targets simultaneously. Infrared sensors detect heat sources. Data links exchange information with friendly aircraft. Radar Warning Receivers (RWR) alert to enemy radar lock-on. All this information pours onto the pilot's helmet display and instrument panel.

The human brain is not a parallel processing device. It can focus on only one thing at a time. What appears to be "multitasking" is actually rapid switching. And that switching takes time — 0.1 seconds, 0.2 seconds. In aerial combat, these fractions determine life and death.

The OODA Loop, formalized by Colonel John Boyd, explains the essence of air combat: Observe, Orient, Decide, Act. Whoever cycles through this loop faster wins. Decide 0.5 seconds before your opponent and act 0.5 seconds sooner, and you win. But humans have a physical limit called reaction time — the time it takes for the eyes to see, the brain to interpret, and the hands to move the stick. No amount of training can entirely overcome this limit.

Stress makes things worse. The fear of death, the rage of losing a comrade, the fatigue of flying all night. These emotions erode the brain's processing capacity. There is an expression: "the bucket is full." The brain can no longer absorb information. In this state, a pilot misses critical warning tones, falls for enemy deception, or mistakes friendly aircraft for hostiles.

Fifth-generation fighters like the F-35 attempt to reduce this problem through Sensor Fusion technology — computers integrate data from radar, infrared, and electronic warfare sensors and present it to the pilot as a simplified picture. Yet the complexity of the battlefield is increasing faster than technology can keep up. In an environment where drone swarms are incoming, hypersonic missiles are raining down, and electronic warfare is paralyzing communications, it becomes ever harder for humans to process everything.

Add the economic dimension. Training a single skilled fighter pilot costs billions of won. Years of training, expensive fuel, sophisticated simulators. If that pilot dies from one mistake, the entire investment vanishes. A pilot is a strategic asset in itself, not easily replaced.

AI, on the other hand, knows none of these limits. It does not feel G-forces. It does not know fatigue. It has no fear. It can process thousands of sensor data points in milliseconds. In the instant a human thinks "that's an enemy," AI has already begun evasive maneuvers and is preparing to launch a missile. 15G maneuvers are no problem. No ejection seat, no oxygen mask, no life support system is needed.

In the end, human limitations prove the necessity of AI fighter jets. The physical wall of G-forces, the mental wall of cognitive load. These two walls are the product of millennia of human evolution, but they are mismatched with the speed of modern aerial combat. It is only a matter of time before pilots disappear from the cockpit. Yet they will not vanish entirely. Their role will simply change — from aviators gripping the stick, to battlefield managers directing AI formations. From an era of training fingers, to an era of training minds.

4. Network-Centric Warfare: The Battlefield Connected by Data Links

Altitude 30,000 feet. The sun was sinking below the horizon. The sky outside the cockpit was deepening into dark indigo. Then the Radar Warning Receiver emitted a sharp beep. Someone was out there. The heart quickened and palms began to sweat. Where was the enemy aircraft? Nothing appeared on my radar screen.

At that moment, a new symbol materialized on the display. A point roughly 120 kilometers away — an enemy aircraft I had not seen. This information had not come from my radar. It had been captured by an E-3 Sentry AWACS flying 200 kilometers behind me. The AWACS's powerful radar had detected the enemy's position, speed, and heading, and that data had been transmitted to my fighter via data link. I could now see an enemy I had been blind to. My eyes were no longer alone.

This is the essence of Network-Centric Warfare.

Throughout the history of warfare, information has always been as important as weapons — perhaps even more so. Think of medieval scouts. They risked their lives infiltrating deep into enemy lines to gauge the enemy's movements. A commander who obtained that intelligence could prepare an ambush or secure an escape route. The problem was the speed at which that information traveled. By the time a scout galloped back to deliver his report, the situation on the battlefield may have already changed.

The era of voice radio was not much different. Through World War II, the Korean War, and the Vietnam War, pilots communicated by radio. "Bandit at three o'clock!" Such calls went back and forth. But this method had fundamental limitations. Only one person could speak at a time — that was the first problem. When multiple pilots tried to report simultaneously in the chaos of a dogfight, frequencies became garbled and nothing could be understood. The second problem was the time that passed through the human tongue and ear — the seconds it took to hear, comprehend, and act. In the world of supersonic fighters, a few seconds are more than enough to decide life and death.

The 1991 Gulf War showed the world a new paradigm of warfare. U.S. and coalition forces won an overwhelming victory over the Iraqi military. The secret of that victory did not lie solely in better fighters or more powerful missiles. The real difference was in how information was shared. The U.S. military linked all friendly platforms on the battlefield through a tactical data link called Link-16. Fighters, bombers, warships, and ground forces were bound into one vast network.

Let me explain what Link-16 is in simple terms. If the old radio transformed a human voice into radio waves and transmitted it, a data link is computers talking directly to computers. There is no need for a pilot to verbally explain, "Enemy aircraft at three o'clock, distance 80 kilometers, altitude 20,000 feet." The information captured by radar is converted into a digital signal and simultaneously transmitted to every friendly unit on the network — latitude, longitude, altitude, speed, heading, and friend-or-foe identification. Information that would take tens of seconds to describe verbally is delivered in the blink of an eye.

The origins of this technology trace back to the 1990s. U.S. Navy Admiral William Owens published the concept of a "System of Systems" in 1996 — a proposal to integrate sensors, command-and-control systems, and precision weapons into one. Soon after, Admiral Arthur Cebrowski coined the term "Network-Centric Warfare." His core argument was straightforward: the sharing of information produces an exponential increase in combat power. 1+1 equals not 2, but 10 — or even 100.

Link-16 uses a time-division multiple access method. It divides time into very small slices and assigns each to a participant. Much like a meeting where people take turns speaking — except the turns change hundreds of times per second, so everyone feels as if they are talking simultaneously. It also uses frequency-hopping technology, making it resistant to enemy jamming. Because the communication frequency constantly changes, the enemy cannot lock onto it with jamming signals.

The effect of Network-Centric Warfare as experienced from the cockpit is dramatic. In the past, what my radar showed was the entirety of my world. Enemies beyond my radar's range might as well not have existed. But the moment a data link was connected, my field of vision expanded hundreds of kilometers. What a wingman saw, what an AWACS saw, what an Aegis destroyer at sea saw, even what a ground-based radar station saw — all of it appeared integrated on my display. It was like looking down on the battlefield through the eyes of a god.

In December 2024, remarkable news arrived. A Norwegian Air Force F-35 and a P-8 maritime patrol aircraft had successfully communicated via Link-16 through satellites in space. Until then, Link-16 operated only within line-of-sight — direct communication beyond the horizon was impossible because the Earth is round. But by using the U.S. Space Development Agency's low-Earth orbit satellite constellation as a relay, that barrier was broken. It was now possible to share tactical information in real time with friendly forces on the other side of the globe.

The Republic of Korea Air Force is also part of this trend. It has equipped F-15K and KF-16 aircraft with Link-16 for combined operations capability with the U.S. An indigenous data link system called Link-K is also under development. The KF-21 Boramae was designed from the outset with Network-Centric Warfare in mind. In the future, the KF-21 and unmanned Loyal Wingmen will be linked by data link to conduct cooperative operations.

Yet networks are not omnipotent. Data links are targets for enemy electronic warfare attacks. If the enemy brings powerful jamming, communications can be severed. And as information grows, so does the pilot's cognitive load. When dozens of symbols crowd the screen, the pilot must instantly judge which is an immediate threat and which can be ignored. One can drown in the flood of information.

It is at this very point that artificial intelligence enters the stage. AI analyzes the vast data pouring through the network and sets priorities. It elevates threats requiring immediate response to the top and filters out what can be ignored. It may even propose target allocation across the entire formation. If the network is the nervous system, AI is the brain that governs it. In the future Joint All-Domain Command and Control framework, AI will be indispensable.

Network-Centric Warfare did not begin as a simple advance in communications technology. It was a fundamental shift in how we view warfare: from the individual to the system, from firepower to information, from the platform to the network. This paradigm shift created the stage on which AI fighter jets will perform.

5. The Evolution of Fighter Automation: From Mechanical Controls to Digital Fly-By-Wire

January 20, 1974, Edwards Air Force Base, California. General Dynamics test pilot Phil Oestricher sat in the cockpit of the new YF-16 prototype. That day was scheduled for a high-speed taxi test — not flight, just running fast down the runway. When Oestricher pushed the throttle forward and the afterburner ignited, the fighter began accelerating ferociously. Then something unexpected happened. During the taxi, the aircraft started rocking side to side. Oestricher moved the control stick to restore balance, but the aircraft's response was not what he expected. The oscillations grew worse, and suddenly the fighter leaped off the runway. An unintended takeoff.

Being an experienced test pilot, Oestricher made an instant judgment: attempting to land again could cause a worse accident. He continued climbing, flew for six minutes, and landed safely. This was the birth moment of the world's first production fly-by-wire fighter, the F-16.

Now you may be wondering what fly-by-wire actually is. To understand this technology, you first need to know the traditional method of flight control. After the Wright brothers achieved the first powered flight in 1903, the way aircraft were controlled remained largely unchanged for decades. When a pilot pulled the control stick, that movement was transmitted through steel cables, pulleys, and levers to the control surfaces on the wings. Much like pulling strings in a puppet show. The pilot's arm strength directly moved the airplane.

This mechanical control method was simple and intuitive. Pilots could feel wind resistance through their fingertips and sense the aircraft's state with their entire body. But there was a problem. As aircraft grew faster and larger, the force required for control increased exponentially. Moving the control surfaces of a supersonic jet fighter with human muscle power became nearly impossible.

Hydraulic systems were introduced to solve this problem — similar in principle to power steering in a car. When the pilot moved the control stick slightly, hydraulic pumps amplified that force to move the control surfaces. Legendary aircraft like the F-4 Phantom and the F-15 Eagle used this method. The pilot's burden was reduced, but the connection between stick and wing remained mechanical.

And there was a more fundamental issue: mechanical controls cannot handle an unstable aircraft. This may sound strange — an unstable aircraft is a good thing? For a fighter, yes. A stable aircraft strongly resists changes in equilibrium, which is safe but reduces maneuverability. An unstable aircraft, like a spinning top, is always ready to change direction — a decisive advantage in aerial combat. The problem is that human reaction speed cannot control this instability. An unstable aircraft tries to tumble the moment the pilot releases the stick. Preventing this requires micro-adjusting the control surfaces dozens of times per second. Human brains and hands simply cannot move that fast.

This is where the computer enters. Fly-by-wire, or FBW, severs the mechanical connection between stick and wing. Instead, it sends electrical signals through wires. When the pilot pulls the stick, sensors detect the movement and convert it to a digital signal. This signal goes to the flight control computer, which interprets the pilot's intent, considers the current flight state (speed, altitude, attitude), calculates how much to move each control surface, and then sends commands to hydraulic actuators.

Here is the critical difference: in mechanical control, the pilot directly controlled the angle of the control surfaces. In FBW, what the pilot inputs is not an angle but an intention. Input "I want to raise the nose," and the computer calculates the optimal control surface movements to achieve that intention in the current situation.

NASA's role was decisive. In 1972, NASA's Dryden Research Center stripped all mechanical controls from an F-8 Crusader and implanted a computer from the Apollo lunar lander. It was the world's first digital FBW aircraft experiment. Test pilot Gary Krier took the aircraft — controlled solely by computer with no mechanical backup — into the sky on May 25, 1972. Over 13 years and 210 test flights, not a single emergency arose from computer failure. Digital flight control had been proven reliable.

The F-16 was the first production fighter to apply this technology — and an intentionally unstable one at that. The F-16's center of gravity sits behind its center of lift, meaning the aircraft constantly tries to pitch up or down. The computer adjusts the control surfaces thousands of times per second to counteract this instability. To the pilot, it feels like a stable, responsive aircraft. But without the computer, it could not fly for even a few seconds.

Another function FBW provides is flight envelope protection. In older fighters, pilot error could push the aircraft beyond structural limits — wings could break, or the aircraft could stall and crash. The F-16's computer limits maneuvers to within the aircraft's structural capabilities, no matter how aggressively the pilot moves the stick. It automatically prevents loads exceeding 9G and angles beyond stall. The pilot can focus on the fight. There is no longer any need to fight the aircraft itself.

Now let me tell you about the Automatic Ground Collision Avoidance System, or Auto-GCAS. This technology is an extension of FBW and an important stepping stone toward AI fighter jets. One of the greatest dangers for fighter pilots is ground collision — losing situational awareness during combat or losing consciousness from high-G maneuvers (G-LOC), causing the aircraft to plunge into the ground. The system combines terrain databases, GPS, and radar altimeters to predict the current flight path. If it determines a ground collision is imminent, it first warns the pilot. If the pilot does not respond, the computer seizes control and pulls the aircraft into a climb — leveling the wings and pulling up at 5G.

In 2016, the U.S. Air Force released dramatic footage. An Arizona Air National Guard F-16 trainee lost consciousness during air combat training after enduring 8.4G. The fighter dove toward the ground nose-first at over 700 kilometers per hour. The instructor's frantic call echoed over the radio: "Two, recover! Two, recover!" No response came. At 8,700 feet, Auto-GCAS activated. The computer automatically recovered the aircraft and saved the pilot's life.

Since its operational deployment in 2014, Auto-GCAS has saved 12 F-16s and 13 pilots. It is also installed on the F-35, with at least one rescue recorded on the F-22. The technology is expected to save over 3 billion dollars in assets and dozens of lives over 30 years.

Yet the introduction of Auto-GCAS was not smooth. Technically, it was ready by the 1990s. So why did operational deployment take over 20 years? Pilot resistance. For fighter pilots, the ability to control an aircraft is the core of their identity. Auto-GCAS meant a machine intruding into that domain. DARPA ACE program manager Lieutenant Colonel Ryan Hefron compares this to the cavalry of the 1930s. For cavalrymen, horsemanship was their identity. Just as they resisted mechanized units, pilots resisted automation. But in the end, the cavalry gave way to tanks. The tide of technology could not be turned back.

Following this trajectory of evolution naturally leads to AI fighter jets. From mechanical controls to hydraulic controls, from analog FBW to digital FBW, from flight envelope protection to Auto-GCAS, from sensor fusion to AI pilots. Each step has evolved in the direction of reducing the human pilot's burden. At the end stands a fully autonomous combat aircraft that can fly and fight without a human.

Digital FBW is the essential interface for AI to control a fighter. Had mechanical linkages remained, AI would have needed a robotic arm to physically grip the control stick. But thanks to FBW, AI can talk directly to the flight control computer through software code. What the pilot's hand once input on the stick, AI's algorithms now do instead.

The history of fighter automation is the story of compensating for human limitations with machines. And at the end of that story, we face machines that aspire to dominate the skies without any human at all.

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