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The History Of Drones (History Timeline From 1483 to 2026)

The History Of Drones (History Timeline From 1849 to 2020)

How deep do drones go in history timeline and when did they first appear? The very idea of drones has been around for over a century. Do you know that the first drone (unmanned aerial vehicle) was created almost 537 years ago? Devices that we call “drones” actually fall into two categories. 

So in this article, we will designate them with one term (Drones or UAVs). We’ll go through the full history of drones Timeline here:

📜 QUICK ANSWER Updated for 2026

When were drones invented, and who invented them?

No single person invented the drone. The first military unmanned aircraft was the Kettering Bug, which first flew on 2 October 1918. The first reusable remote-controlled aircraft was Britain’s DH.82B Queen Bee in 1935 — and the word “drone” is generally traced to its name. The first mass-produced drone was Reginald Denny’s Radioplane OQ-2 in 1939. Consumer drones arrived far later: DJI was founded in 2006 and the Parrot AR.Drone launched in 2010. Everything before 1918 — Da Vinci’s aerial screw, the Montgolfier balloons — is a precursor rather than a drone.

💣
First UAV
1918
Kettering Bug
🐝
Name Origin
1935
DH.82B Queen Bee
🏭
Mass Produced
1939
Radioplane OQ-2
📷
Consumer Era
2006+
DJI founded

The idea of an aircraft that flies without anyone on board is far older than powered flight itself. It runs from a wooden bird in ancient Greece, through explosive balloons over Venice, to a wooden biplane in 1935 that accidentally gave the whole category its name.

This timeline covers that full history, and it does something most drone histories do not: it separates the genuine milestones from the myths. A lot of what circulates online about early drone history is wrong — including several claims that appear on almost every page covering this topic. Where that happens, this guide says so and gives the documented version instead.

The Complete Drone History Timeline

YearMilestoneWhy it mattered
c. 400 BCArchytas’ flying pigeonEarliest recorded self-propelled flying device
1483Da Vinci designs the aerial screwFirst serious concept for vertical flight (never built)
1783Montgolfier balloon flightsFirst uncrewed then crewed lighter-than-air flight
1849Austrian balloon attack on VeniceFirst use of uncrewed aircraft as a weapon
1898Tesla’s radio-controlled boatProved remote control of a vehicle was possible
1917Hewitt-Sperry Automatic AirplaneFirst gyro-stabilised automatic aircraft
1918Kettering Bug first flightFirst purpose-built unmanned aerial weapon
1935DH.82B Queen Bee enters serviceFirst reusable UAV, and the origin of “drone”
1939Radioplane OQ-2First mass-produced drone
1951Ryan FirebeeFirst jet-powered drone family
1956Convertawings Model A QuadrotorFirst practical four-rotor aircraft
1960Gyrodyne QH-50 DASHFirst operational unmanned helicopter
1973Tadiran MastiffReal-time video reconnaissance from a small UAV
1982IAI Scout in LebanonDrones proved decisive in combat operations
1986RQ-2 PioneerLong-serving tactical reconnaissance drone
1995RQ-1 PredatorLong-endurance armed-capable UAV
2001First armed drone strikesDrones become weapons platforms, not just sensors
2006DJI foundedBeginning of the consumer drone industry
2010Parrot AR.DroneFirst smartphone-controlled consumer drone
2013Amazon announces Prime AirDrone delivery enters public consciousness
2016EHang 184 passenger droneFirst autonomous passenger multirotor shown
2020sCommercial delivery and agriculture scale upDrones become routine industrial tools

What Actually Counts as a Drone?

Before the timeline makes sense, the definition has to be settled, because different answers to “what is a drone” produce wildly different first dates.

DefinitionFirst exampleYear
Any uncrewed flying objectArchytas’ pigeonc. 400 BC
Uncrewed aircraft used as a weaponAustrian balloons over Venice1849
Remotely controlled vehicle of any kindTesla’s radio-controlled boat1898
Purpose-built unmanned aircraftKettering Bug1918
Reusable remote-controlled aircraftDH.82B Queen Bee1935
Mass-produced droneRadioplane OQ-21939
Consumer camera droneParrot AR.Drone2010

Most historians settle on the 1918 Kettering Bug as the first true unmanned aerial vehicle, and on the 1935 Queen Bee as the first drone in the modern sense — because it could be flown, recovered and flown again. Everything earlier is a precursor.

Ancient and Renaissance Precursors

c. 400 BC — Archytas’ flying pigeon

The Greek mathematician Archytas of Tarentum is credited with building a wooden bird that flew using a jet of compressed air or steam, reportedly covering around 200 metres. The accounts come from later writers rather than contemporary records, so treat the details as legend with a plausible core. It is not a drone by any modern definition, but it is the earliest recorded attempt at self-propelled flight.

1483 — Leonardo da Vinci’s aerial screw

Leonardo da Vinci's sketch of the aerial screw, a helical rotor mounted on a wooden frame
Fig. 1 — Da Vinci’s aerial screw, sketched around 1483. It was a design study, not a machine that flew.

Da Vinci sketched a helical rotor roughly 5 m in diameter, intended to compress air and screw itself upward. It is genuinely the conceptual ancestor of the helicopter and, indirectly, of the multirotor.

One correction worth making clearly, because it appears in a great many articles: the aerial screw was never built and never flew. The materials of the period could not have supported it, and no power source existed that could have driven it. Modern analysis suggests the design would not have generated usable lift in its sketched form. It belongs in this timeline as an idea, not as an aircraft.

The Balloon Era: 1783 to 1863

1783 — The Montgolfier brothers

Period engraving of an early hot air balloon with a suspended basket carrying animals
Fig. 2 — The first passengers of an uncrewed flight were a sheep, a duck and a rooster.

Joseph and Étienne Montgolfier began experimenting with hot air balloons in the early 1780s and made their first public demonstration in June 1783. In September 1783, at Versailles, they sent up a balloon carrying a sheep, a duck and a rooster — the first living passengers of an aerial flight, sent up precisely because nobody knew whether altitude was survivable. The flight lasted around eight minutes and the animals landed unharmed.

Crewed flight followed within months. But the uncrewed principle had been established: you could put something in the air without putting a person at risk.

1849 — The bombing of Venice

Illustration of a balloon carrying a rack of suspended explosive charges
Fig. 3 — Austrian balloons carrying explosive charges, used against Venice in 1849.

Austrian forces besieging Venice launched balloons carrying explosive charges on time fuses, some released from the vessel Vulcano. It is the first recorded use of an uncrewed aerial vehicle as a weapon.

It also demonstrated the fundamental flaw of unguided aircraft. The balloons had no control system at all, and the wind changed. Several drifted back over Austrian lines. The military value of an aircraft you cannot steer is close to zero, and that lesson shaped everything that followed.

The same idea kept reappearing. During the American Civil War both sides experimented with incendiary balloons, and in the Second World War Japan launched thousands of Fu-Go balloon bombs into the jet stream toward North America. Cheap, uncontrollable, and militarily marginal every time.

World War I: The First True UAVs

1898 — Tesla’s precedent

Before aircraft could be flown remotely, remote control itself had to be invented. Nikola Tesla demonstrated a radio-controlled boat at Madison Square Garden in 1898, steering it around a tank in front of a crowd who largely assumed it was a trick. The vehicle was not an aircraft, but the enabling technology was now proven.

1917 — The Hewitt-Sperry Automatic Airplane

Elmer Sperry and Peter Cooper Hewitt developed a gyroscopic stabiliser that could hold an aircraft level without a pilot, and fitted it to a Curtiss aircraft. Their “aerial torpedo” was designed to fly a set distance and dive onto a target.

This is the true beginning of automatic flight. The gyroscope solved the problem the Venice balloons could not: an aircraft that keeps itself level can hold a heading, and an aircraft that holds a heading can be aimed.

1918 — The Kettering Bug

The Kettering Bug unmanned aerial torpedo on its wheeled launch dolly
Fig. 4 — The Kettering Bug launched from a wheeled dolly running down a portable track.

In November 1917 the US Army asked Charles Kettering of Dayton, Ohio to design an unmanned flying machine capable of hitting a target 40 miles away. The result was formally the Kettering Aerial Torpedo and universally known as the Bug. Orville Wright consulted on the aerodynamics; Elmer Sperry designed the guidance.

SpecificationKettering Bug
First flight2 October 1918
Maximum range75 mi (121 km)
SpeedAbout 50 mph (80 km/h)
WarheadAbout 180 lb (82 kg) of explosive
GuidancePneumatic and electrical pre-set controls
Number builtFewer than 50
Combat useNone

The guidance method was ingenious in its simplicity: a mechanical counter tracked propeller rotations, and after a preset number the engine shut off and the wings were released, dropping the warhead onto the target. That first flight on 2 October 1918 failed — the Bug climbed too steeply, stalled and crashed — and later tests were mixed.

The Army ordered thousands, but fewer than 50 were built before the war ended, and it never saw combat. Commanders considered it too risky to fly nearly 180 lb of explosives over friendly troops on an unreliable airframe. As a weapon it was a failure. As a proof of concept, it is the direct ancestor of the cruise missile.

Two corrections to figures that circulate widely: the Kettering Bug’s speed was around 50 mph, not 8 mph, and its range was 75 miles. The 8 mph figure appears in many drone history articles and is simply wrong — no aircraft of that configuration would stay airborne at walking pace.

1935: Where the Word “Drone” Came From

De Havilland Queen Bee biplane target aircraft fitted with floats on a shipboard launch catapult
Fig. 5 — The DH.82B Queen Bee, a pilotless Tiger Moth derivative, launched here on floats from a catapult.

Britain’s DH.82B Queen Bee was a radio-controlled derivative of the Tiger Moth biplane, built as a target for anti-aircraft gunnery practice. It could be fitted with wheels or floats, launched from land or ship, and — critically — flown back and landed.

That reusability is why it matters. Every uncrewed aircraft before it was expendable. The Queen Bee could be shot at, missed, recovered, and sent up again. More than 400 were built, and some were still flying into the 1950s.

The name is the other reason it matters. The term “drone” is generally traced to the Queen Bee, and the bee metaphor is apt in a way that is easy to miss: a drone bee is the male that does no work in the hive. An aircraft with no crew, doing no flying of its own, fitted the metaphor neatly. The British precursor was the Fairey Queen of 1931, of which three prototypes were built, but it was the Queen Bee that entered service in numbers and lodged the word in the language.

World War II and the First Mass Production

Radioplane OQ-2 target drone shown on the ground and launching from a rail catapult
Fig. 6 — The Radioplane OQ-2, launched from a rail. Thousands were produced for gunnery training.

The Second World War turned drones from experiments into products, and the story behind it is unusually good. Reginald Denny was a British-born Hollywood actor who ran a model aircraft shop in Los Angeles. He believed radio-controlled models could serve as gunnery targets, pitched the idea to the US Army, and after several attempts won a contract.

The Radioplane OQ-2 that followed became the first mass-produced drone in history, with thousands built and successors including the OQ-3 pushing total production far higher. It is a genuinely strange origin: the modern drone industry began with a film actor’s hobby shop.

There is a famous footnote. A young woman working on the Radioplane assembly line was photographed by an Army photographer visiting the factory. The photographs launched her modelling career, and Norma Jeane Dougherty later became Marilyn Monroe.

After the war, surplus aircraft were converted into target and research drones, establishing the pattern of repurposing airframes that would continue for decades.

The Cold War Jet Era

1951 — The Ryan Firebee

Orange Ryan Firebee jet target drone mounted on a launch stand by the sea
Fig. 7 — The Ryan Firebee, painted high-visibility orange as a target aircraft. Reconnaissance variants followed.

The Ryan Aeronautical Company’s Firebee was the first jet-powered drone family and one of the longest-running programmes in aviation. Beginning as a target for training fighter pilots and missile crews, it evolved into a reconnaissance platform, and Firebee derivatives flew thousands of surveillance sorties over Southeast Asia during the Vietnam War.

Those Vietnam missions are an underrated milestone. They were the first large-scale use of drones for photographic reconnaissance in a contested environment, and they established the core argument for unmanned aircraft: send the machine where sending a crew is unacceptable.

1960 — The QH-50 DASH

The Gyrodyne QH-50 DASH was the first operational unmanned helicopter, designed to fly anti-submarine torpedoes from destroyer decks to targets beyond the ship’s own weapon range. Around 800 were built. Reliability was poor by modern standards and many were lost, but it proved that rotary-wing drones could operate from ships — a capability navies now take for granted.

1956: The Forgotten Quadrotor

Convertawings Model A quadrotor helicopter in flight with a pilot on board, showing four rotors on tubular booms
Fig. 8 — The Convertawings Model A of 1956: four rotors, differential thrust control, no tail rotor. The architecture every modern drone uses.

This one deserves far more attention than it usually gets, because it is the direct ancestor of the aircraft in your bag.

The Convertawings Model A Quadrotor first flew in March 1956. It was crewed rather than unmanned, but its control principle is exactly what every multirotor uses today: four rotors, no tail rotor, and control achieved purely by varying thrust between them. It flew successfully many times and demonstrated that the configuration worked.

The programme ended because military orders never materialised, and the quadrotor concept then lay largely dormant for four decades. The reason is instructive. Balancing four rotors by hand is extremely demanding, and the electronics needed to do it automatically — cheap MEMS gyroscopes and fast microcontrollers — did not exist yet. The aerodynamics were solved in 1956. The world had to wait for the computing.

1973 to 1982: Israel Reinvents the Drone

Tadiran Mastiff reconnaissance UAV with twin tail booms on display
Fig. 9 — The Tadiran Mastiff pioneered small, cheap UAVs carrying live video.

The most important shift in drone history was conceptual rather than technical. Until the 1970s, drones were mostly targets or flying bombs. Israeli engineers reframed them as persistent eyes.

The Tadiran Mastiff, flying from the early 1970s, carried a live television camera and could stay airborne for hours. Real-time video was a formidable engineering problem at the time — the equipment filled shipping containers — but the payoff was enormous. Instead of returning film to be developed, a commander could watch the battlefield as it happened. Later versions added colour and night capability, and the mission narrowed from watching armies to tracking individual vehicles.

In 1982, during operations in Lebanon, IAI Scout drones were used to locate and characterise Syrian air defence sites, with the results feeding directly into the strikes that followed. That operation is widely regarded as the moment drones proved decisive rather than merely useful, and militaries worldwide took notice.

The Predator Generation

1986 — RQ-2 Pioneer

RQ-2 Pioneer reconnaissance drone in flight with US Navy markings
Fig. 10 — The RQ-2 Pioneer, developed from Israeli designs, served the US Navy for over two decades.

Developed jointly with Israeli industry, the Pioneer first flew in December 1986 and gave tactical commanders real-time battlefield imagery at low cost. It could be rocket-launched from ships and recovered by flying into a net or landing on water, and it stayed in service for more than twenty years.

Around the same period, the RQ-7 Shadow programme began, eventually becoming one of the most widely used tactical UAVs in US service. The Shadow is frequently misnamed in online drone histories — including as “RQ-7B Phantom”, which is not an aircraft that exists.

1995 — The RQ-1 Predator

RQ-1 Predator drone in white livery flying over desert terrain
Fig. 11 — The RQ-1 Predator entered service in 1995 as a pure reconnaissance platform.

The General Atomics Predator, which entered service in 1995, is the aircraft that made “drone” a household word. Its lineage traces back to the Amber UAV designed by Israeli engineer Abraham Karem, often called the father of the modern long-endurance drone.

The Predator’s defining capability was endurance. It could loiter over an area for many hours, streaming video via satellite to operators thousands of miles away. Persistent surveillance was no longer a matter of arranging a flight; it became continuous coverage.

2001 — The armed turn

Armed MQ-9 Reaper drone in flight carrying missiles under its wings
Fig. 12 — Once drones carried weapons, the designation changed from RQ (reconnaissance) to MQ (multi-role).

The most consequential change in drone history is compressed into a single letter. RQ denotes reconnaissance; MQ denotes multi-role, meaning the aircraft can strike as well as observe. When the Predator was armed with Hellfire missiles it became the MQ-1, and the first armed drone strikes were conducted in Afghanistan in October 2001.

That change compressed the gap between finding a target and engaging it from hours to seconds, and it began a debate about accountability, oversight and civilian casualties that continues today. Early strikes included significant errors, and the questions raised then have never been fully resolved.

2006 to 2014: The Consumer Revolution

While military drones grew larger, a separate revolution was happening at the other end of the scale, driven by three technologies arriving at once: cheap MEMS sensors, lithium polymer batteries, and brushless motors small enough for a toy.

Enabling technologyWhat it made possible
MEMS gyroscopes and accelerometersAutomatic stabilisation on a chip costing a few dollars
Lithium polymer batteriesEnough energy density for useful flight times
Small brushless motors and ESCsEfficient, reliable, precisely controllable thrust
Cheap GPS modulesPosition hold and return to home for everyone
Smartphone componentsCameras, processors and radios at consumer prices

2006 — DJI is founded

White DJI Phantom quadcopter with green and red LED lights hovering
Fig. 13 — The DJI Phantom made aerial photography accessible to anyone who could afford a mid-range camera.

DJI began in Shenzhen in 2006, initially supplying flight controllers to hobbyists. The Phantom series changed the market completely by delivering something no one else had: an aircraft that flew stably out of the box, with a camera, that a beginner could operate. That combination created the consumer drone category rather than merely competing in it, and DJI has dominated global civilian drone market share ever since.

2010 — The Parrot AR.Drone

Parrot AR.Drone quadcopter with orange and blue foam body held in a hand
Fig. 14 — The Parrot AR.Drone, unveiled at CES 2010, was the first drone flown from a smartphone.

The French company Parrot unveiled the AR.Drone at CES in Las Vegas in 2010. Its innovation was the interface: it was controlled from an iPhone over WiFi, with no dedicated transmitter at all. That removed the last barrier for people who had never flown a radio-controlled aircraft, and it turned drones into a consumer electronics product rather than a hobbyist one.

Delivery, Passengers and the Present Day

2013 — Amazon Prime Air

Amazon Prime Air octocopter delivery drone carrying a yellow parcel container
Fig. 15 — Amazon’s Prime Air concept, announced in December 2013, put drone delivery into public debate.

Amazon announced Prime Air in December 2013, promising delivery within 30 minutes by drone. The technology largely worked; the regulation did not exist. The following decade was spent building it — beyond-visual-line-of-sight rules, remote identification, traffic management — and limited commercial drone delivery is now operating in various markets. The lesson of Prime Air is that the constraint on drone applications is usually regulatory rather than technical.

2016 — The EHang 184

EHang passenger drone with an enclosed cabin landing on a helipad as a person signals
Fig. 16 — The EHang 184: an autonomous multirotor scaled up to carry a person.

Chinese manufacturer EHang presented the 184 autonomous passenger drone at CES in Las Vegas in January 2016. A single passenger would enter, select a destination, and the aircraft would fly the route with no pilot and no controls. It was essentially a consumer quadcopter scaled up until a human fitted inside — and it opened the eVTOL and urban air mobility sector that has attracted enormous investment since.

The 2020s

The defining trend of the current decade is that drones stopped being remarkable. Agricultural spraying drones cover millions of acres. Infrastructure inspection by drone is routine. Search and rescue teams deploy thermal-equipped aircraft as standard. Regulation has matured into weight-based categories, mandatory remote identification and structured pathways for beyond-visual-line-of-sight operations.

Curious how the machines themselves actually work? Our guides on the physics behind how drones fly and drone parts and components cover the engineering behind the history.

Drone History Myths, Corrected

Several claims about early drone history are repeated so often that they have become accepted. They are worth correcting, because getting the history right is the point of a timeline.

Commonly Repeated Errors

  • “Da Vinci’s aerial screw flew.” It was never built. No 15th-century material or power source could have made it work, and the design as sketched would not have produced usable lift.
  • “The first drone was created 537 years ago.” Da Vinci’s 1483 sketch was a concept for a crewed machine, not an unmanned one. The first true UAV was the Kettering Bug in 1918.
  • “The Kettering Bug flew at 8 mph.” Around 50 mph, with a range of roughly 75 miles and a warhead of about 180 lb.
  • “The RQ-7B Phantom entered service in 1991.” The aircraft is the RQ-7 Shadow. “RQ-7B Phantom” conflates two unrelated names.
  • “Amazon announced drone delivery in 2014.” Prime Air was announced in December 2013.
  • “EHang showed its passenger drone in 2018.” The EHang 184 was presented at CES in January 2016.
  • “The Montgolfier balloon flew in 1782.” Experiments began around then, but the first public demonstration was June 1783 and the animal flight was September 1783.
  • “Reginald Danny built the first mass-produced drone.” The name is Reginald Denny, a British-born actor turned model aircraft entrepreneur.

Looking at the timeline as a whole, one pattern stands out. The ideas almost always arrived decades before the technology that could deliver them. Da Vinci sketched vertical flight 400 years before an engine existed to power it. Convertawings flew a working quadrotor in 1956, and the world waited another forty years for the microelectronics that would make the configuration practical. Amazon announced drone delivery when the aircraft already worked and the rulebook did not.

That is the real story of drone history: not a sequence of inventions, but a long series of good ideas waiting for the rest of the world to catch up.

About this guide: Dates and specifications here are drawn from museum and aviation-history sources including the Imperial War Museums, the National Museum of the United States Air Force, manufacturer records and standard aviation references. Where accounts conflict — as they do for the earliest precursors such as Archytas’ pigeon — this is noted in the text rather than presented as settled fact. Several widely repeated claims corrected in the final section appear in many other drone history articles. Originally published in 2021, fully rewritten and expanded in 2026.

Frequently Asked Questions

No single person did. Nikola Tesla demonstrated the first radio-controlled vehicle in 1898, Charles Kettering built the first unmanned aerial torpedo in 1918, Britain produced the first reusable UAV in 1935, and Reginald Denny mass-produced the first target drones from 1939.

The Kettering Bug, which first flew on 2 October 1918, is generally accepted as the first purpose-built unmanned aerial vehicle. Everything earlier — Da Vinci’s aerial screw, the Montgolfier balloons, the Venice balloon attack — is a precursor rather than a drone.

The name is generally traced to Britain’s DH.82B Queen Bee of 1935, a radio-controlled target aircraft. The bee metaphor fits neatly: a drone bee is the male that does no work in the hive, much as these aircraft carried no crew.

No. It was a design sketched around 1483 and never built. The materials and power sources of the period could not have supported it, and modern analysis suggests the design as drawn would not have produced usable lift. It belongs in drone history as an idea, not an aircraft.

The first recorded use of uncrewed aircraft as weapons was the Austrian balloon attack on Venice in 1849. The balloons carried explosives on time fuses, but with no control system the wind blew several back over Austrian lines — demonstrating exactly why guidance mattered.

The Convertawings Model A Quadrotor, which first flew in March 1956. It was crewed rather than unmanned, but used exactly the control principle every modern drone uses: four rotors, no tail rotor, and control by varying thrust between them.

In Afghanistan in October 2001, after the Predator was fitted with Hellfire missiles. That change is reflected in the designation: RQ means reconnaissance, MQ means multi-role, so the RQ-1 Predator became the MQ-1 once it could strike as well as observe.

DJI was founded in 2006 and its Phantom series created the mass market for camera drones. Parrot unveiled the AR.Drone at CES in 2010, the first drone flown from a smartphone, which turned drones into a consumer electronics product rather than a hobbyist one.

Because balancing four rotors by hand is extremely demanding, and the electronics needed to do it automatically did not exist. The aerodynamics were proven in 1956, but cheap MEMS gyroscopes and fast microcontrollers only arrived decades later.

Yes. Norma Jeane Dougherty worked on the Radioplane assembly line during the Second World War, where an Army photographer visiting the factory photographed her. Those photographs launched her modelling career, and she later became Marilyn Monroe.

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