History

This Day in History — The First Parachute Descent from a Balloon

On this day in 1797

On October 22, 1797, André-Jacques Garnerin cut away from a balloon about 3,000 feet over Paris and floated to earth under a 23-foot frameless canopy.

The Off-Key Bard stands among a crowd gathered at Parc Monceau in Paris in the autumn of 1797. Above the spectators floats a hydrogen balloon carrying an unusual passenger and an even more unusual invention. The man in the basket is preparing to do something almost unimaginable. He intends to separate himself from the balloon thousands of feet above the ground and trust a fabric canopy to save his life.

"What happens when a man deliberately steps away from the only thing keeping him in the sky?"

On October 22, 1797 (1 Brumaire, Year VI, under the French Republican calendar), the French aeronaut André-Jacques Garnerin made the first recorded parachute descent from a balloon, cutting loose at roughly 3,000 feet over Paris and returning to earth under a large frameless canopy. The experiment was terrifying to watch. His parachute swung violently as it fell, and spectators feared they were witnessing a death. But Garnerin survived, and he showed that a person could come down from a great height under a parachute instead of staying aboard a balloon. It was an important milestone in aviation history, and it helped turn the parachute from a theoretical invention into a practical technology.

The Idea Before the Man

The idea of slowing a fall with a broad surface was much older than Garnerin. Long before powered flight, people understood that something with a large surface area falls more slowly than something compact and heavy. The reason is air resistance, or aerodynamic drag. As an object moves through the atmosphere, the air pushes back against it, and the resistance depends on the object's speed, shape, exposed area, and the density of the air. A falling person presents a small area, but a person who can spread a broad canopy overhead greatly increases the drag and slows the descent. The challenge was turning that principle into a reliable device.

One of the best-known early concepts is in the Codex Atlanticus of Leonardo da Vinci, which has a parachute sketch dated to about 1485. It was a pyramid-shaped canopy held open by a square wooden frame. There is no evidence that Leonardo built and tested it himself, but the design proved workable when a Briton, Adrian Nicholas, successfully tested it in 2000.

Others pursued related ideas. On December 26, 1783, Louis-Sébastien Lenormand jumped from the tower of the Montpellier observatory in front of a crowd, using a 14-foot (4.3 m) parachute with a rigid wooden frame. He is also credited with coining the word "parachute." Experiments like these showed that a controlled descent was possible. But a jump from a tower is one thing, and a descent from a balloon thousands of feet in the air is another.

Balloons Change the Question

The invention of ballooning created an entirely new problem. In 1783 the Montgolfier brothers demonstrated practical hot-air balloons in France, and the first human free flights followed that year. Hydrogen balloons came soon after. For the first time humans could rise thousands of feet and remain aloft, but ballooning carried frightening risks. A balloon could lose lift, catch fire, meet dangerous weather, or fail structurally, and a person aboard a damaged one had few ways to escape. A parachute that could carry a human down from a balloon attracted growing attention.

Parachutes had already been tried from balloons, though not with a person. In 1785 Jean-Pierre Blanchard demonstrated a parachute as a way to leave a hot-air balloon safely, and his first demonstrations used a dog as the passenger. Garnerin's achievement was to make the descent himself.

André-Jacques Garnerin was born in Paris in January 1769 and came of age during the French Revolution, a time of political upheaval and scientific enthusiasm. Balloon ascents drew large crowds, and the public celebrated balloonists as daring explorers of a new environment. Garnerin served in the French army and was held for three years as a prisoner of war in Buda, in Hungary, until 1797. One account says the experience awakened his interest in human flight.

He designed a parachute with a large canopy of white fabric above a small basket. Unlike some earlier concepts, it had no rigid frame, and the fabric would spread under the pressure of the air during descent. The canopy was about 23 feet (7 m) across. The engineering problems were considerable: the canopy had to be strong enough to carry its load, its lines had to share the strain, and the whole system had to open reliably instead of collapsing or tangling. And Garnerin intended to test it himself.

Parc Monceau

On October 22, 1797, spectators gathered at Parc Monceau, a landscaped park in Paris, to watch. France was governed by the Directory at the time. Strong winds had forced Garnerin to delay the start, and according to a French account, he rose above the park at about 5 p.m., as daylight began to fade. A hydrogen balloon carried his folded parachute and basket into the sky while the crowd watched the odd assembly of fabric, rope, and basket climb.

Sources vary on how high he went, from a little over 2,000 feet to about 3,200 feet, but most put it near 3,000 feet (about 1,000 meters), well beyond any help from the ground. At that height he cut the rope joining the parachute to the balloon. For an instant the basket fell. Then the canopy began catching air, spreading outward as the pressure under it grew, and his descent slowed. The principle worked.

The flight was anything but smooth. Instead of coming down steadily, the parachute began swinging violently from side to side, and the basket rocked beneath it so badly that spectators feared it would overturn. A cry of terror rose from the crowd, and several women fainted, according to the French account. From the ground the experiment looked headed for disaster.

The problem was stability. Garnerin's canopy had no way to release pressure in a controlled manner. Air building up under the fabric escaped unevenly around the edges and set the basket swinging. This is the difference between slowing a fall and controlling a descent. A parachute has to do more than produce drag; it also has to stay stable enough to deliver its passenger safely. Garnerin had shown the first part. The second still needed work.

Still, the canopy kept enough drag to prevent an uncontrolled fall, and Garnerin came down near the park. He survived, shaken and likely sick from the swinging, but without serious injury. One account says he then rode a horse through his admirers. The crowd had just watched a man deliberately leave a balloon above Paris and return alive. It was not a perfect success, and not a comfortable one, but it was a breakthrough.

After the Jump

The news spread across Europe. At a time when balloon flights were still public spectacles, jumping from one seemed extraordinary. The swinging also showed exactly what needed fixing. In 1804 a vent, an opening at the top of the canopy that lets air escape in a controlled way, was introduced to eliminate the violent oscillations, a change usually credited to the astronomer Jérôme Lalande, though a French account credits Garnerin himself. Vents became a standard feature of later parachutes.

Garnerin kept experimenting. His wife, Jeanne-Geneviève Labrosse, first flew in a balloon in November 1798, and on October 12, 1799, she made a parachute descent from about 900 meters, becoming the first woman to parachute. In 1802 the couple traveled to England during the Peace of Amiens. On September 21, 1802, Garnerin rose from a ground off North Audley Street in London, cut loose at around 8,000 feet, and landed near St Pancras Church, less than two miles away, in the first parachute descent ever made in England. Jeanne accompanied him on his third flight over London.

Parachuting remained dangerous. Equipment was handmade, materials could fail, and balloonists had little control over their altitude or landing place. There were no reserve parachutes and no reliable way to predict how a canopy would behave. Garnerin died in Paris on August 18, 1823, struck by a falling beam while he was working on a new balloon, a reminder of how perilous early aeronautics still was.

From Balloons to Mars

The technology kept developing. The arrival of powered aircraft created a new need, since a pilot could meet engine failure, structural damage, or fire at high speed, and a parachute could be a way out. On March 1, 1912, Albert Berry made the first parachute jump in the United States from a fixed-wing aircraft, over Jefferson Barracks in St. Louis. Later improvements brought better harnesses, more reliable deployment, and canopies designed to cut the risks of high-speed descent. Parachutes became vital equipment for military aviators and airborne troops, and later for skydivers, wildland firefighters, and aircraft emergency systems.

They also became important in space exploration. NASA's Perseverance rover landed on Mars under a 72-foot parachute that had to inflate in a Mach 2 airstream in about half a second, and engineers tested it to a load of 67,000 pounds, the highest a supersonic parachute has survived. The engineering is vastly more sophisticated than Garnerin's canopy. But the underlying principle is recognizable: an object moving through an atmosphere meets resistance, and a properly designed parachute can raise that resistance enough to make a safe landing possible.

The questions engineers ask today are the same ones Garnerin faced in 1797. Will the canopy open? Will it stay stable? Will it slow the descent enough? And will the passenger reach the ground safely? His achievement also says something broader about technology. An invention does not have to perform perfectly to establish an important new possibility. His first parachute swung dangerously, and the landing was hardly comfortable. But it demonstrated that a flexible canopy could carry a person down from a considerable height, and it gave later inventors a foundation to improve. An experiment shows what is possible, its flaws reveal what still needs to be understood, and each improvement moves the technology toward reliable use.

"Above the crowds, he cut the line,
And trusted cloth against decline.
The basket swung, the people cried—
But safely to the earth he'd glide."

Today parachutes are so familiar that their function can seem obvious. We see them in military operations, skydiving, emergency aviation systems, and spacecraft landings. But in 1797, deliberately separating from a balloon at great altitude took an extraordinary willingness to test an uncertain technology. Garnerin's descent was more than a daring public spectacle. The violent swinging showed that much work remained, but his safe landing proved that the central concept was sound.

On October 22, 1797, André-Jacques Garnerin separated his parachute from a hydrogen balloon above Paris and descended safely to the ground. His experiment became the first recorded parachute descent from a balloon, a milestone in a technology that would go on to save lives in aviation, support airborne operations, and help return spacecraft safely to the ground.

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