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Parachuting
Parachuting
from Wikipedia

Parachuting and skydiving are methods of descending from a high point in an atmosphere to the ground or ocean surface with the aid of gravity, involving the control of speed during the descent using a parachute or multiple parachutes.

Key Information

For human skydiving, there is often a phase of free fall (the skydiving segment), where the parachute has not yet been deployed and the body gradually accelerates to terminal velocity.

In cargo parachuting, the parachute descent may begin immediately, such as a parachute-airdrop in the lower atmosphere of Earth, or it may be significantly delayed. For example, in a planetary atmosphere, where an object is descending "under parachute" following atmospheric entry from space, may occur only after the hypersonic entry phase and initial deceleration that occurs due to friction with the thin upper atmosphere.

History

[edit]
Garnerin by Edward Hawke Locker

The first parachute jump in history was made on 22 October 1797 by Frenchman André-Jacques Garnerin above Parc Monceau, Paris. He used a silk parachute to descend approximately 3,000 feet (910 m) from a hot air balloon.[citation needed]

Common uses

[edit]
Tandem in freefall

Parachuting is performed as a recreational activity and a competitive sport, and is widely considered an extreme sport due to the risks involved. In 2018, there were 3.3 million jumps in the US.[1] Modern militaries utilize parachuting for the deployment of airborne forces and supplies. Special operations forces commonly employ parachuting, especially free-fall parachuting, as a method of insertion. Occasionally, forest firefighters, known as "smokejumpers" in the United States, use parachuting as a means of rapidly inserting themselves near forest fires in especially remote or otherwise inaccessible areas.[citation needed]

Manually exiting an aircraft and parachuting to safety has been widely used by aviators (especially military aviators and aircrew) and passengers to escape an aircraft that could not otherwise land safely. While this method of escape is relatively rare in modern times, it was occasionally used in World War I by German military aviators, and utilized extensively throughout the air wars of World War II. In modern times, the most common means of escape from an aircraft in distress is via an ejection seat. Said system is usually operated by the pilot, aircrew member, or passenger by engaging an activation device manually. In most designs, this will lead to the seat being propelled out of and away from the aircraft, carrying the occupant with it, by means of either an explosive charge or a rocket propulsion system. Once clear of the aircraft, the ejection seat will deploy a parachute, although some older models entrusted this step to manual activation by the seat's occupant.[citation needed]

Safety

[edit]

In the U.S. during the 1970s, the sport averaged 42.5 fatalities annually. In the 1980s, the average dropped to 34.1, and in the 1990s, the average decreased to 32.3 deaths per year. Between 2000 and 2009, the average dropped to 25.8 and over the eight years after 2009, the annual average declined to 22.4 fatalities (roughly 7.5 fatalities per one million jumps). In 2017, members of one organization, the United States Parachute Association (USPA) reported 2,585 skydiving injuries sufficiently severe to require resort to a medical care facility.[1]

Reserve parachute (right) in use

In the US and in most of the western world, skydivers are required to wear two parachutes. The reserve parachute must be periodically inspected and repacked (whether used or not) by a certified parachute rigger (in the US, an FAA certificated parachute rigger every 180 days). Many skydivers use an automatic activation device (AAD) that opens the reserve parachute at a predetermined altitude if it detects that the skydiver is still in free fall. Depending on the country, AADs are often mandatory for new jumpers, and/or required for all jumpers regardless of their experience level.[2] Some skydivers wear a visual altimeter, and some use audible altimeters fitted to their helmets.[citation needed]

Unsafe maneuvers

[edit]

Injuries and fatalities occurring under a fully functional parachute usually happen because the skydiver performed unsafe maneuvers or made an error in judgement while flying their canopy, typically resulting in a high-speed impact with the ground or other hazards on the ground.[3] One of the most common sources of injury is a low turn under a high-performance canopy and while swooping. Swooping is the advanced discipline of gliding at high-speed parallel to the ground during landing.[citation needed]

Winds

[edit]
A parachutist of the REME Lightning Bolts Army Parachute Display Team lands. The red smoke that gives the parachutists the wind direction during the jump is still running.

Changing wind conditions are another risk factor. In conditions of strong winds and turbulence during hot days, the parachutist can be caught in downdrafts close to the ground. Shifting winds can cause a crosswind or downwind landing which have a higher potential for injury due to the wind speed adding to the landing speed.

Canopy collisions

[edit]

Another risk factor is that of "canopy collisions", or collisions between two or more skydivers under fully inflated parachutes. Canopy collisions can cause the jumpers' inflated parachutes to entangle with each other, often resulting in a sudden collapse (deflation) of one or more of the involved parachutes. When this occurs, the jumpers often must quickly perform emergency procedures (if there is sufficient altitude to do so) to "cut-away" (jettison) from their main canopies and deploy their reserve canopies. Canopy collisions are particularly dangerous when occurring at altitudes too low to allow the jumpers adequate time to safely jettison their main parachutes and fully deploy their reserve parachutes.

Equipment failure

[edit]

Equipment failure may contribute to fatalities and injuries. Approximately one in 750 deployments of a main parachute result in a malfunction.[4] Ram-air parachutes typically spin uncontrollably when malfunctioning, and must be jettisoned before deploying the reserve parachute. Reserve parachutes are packed and deployed differently; they are also designed more conservatively and built and tested to more exacting standards so they are more reliable than main parachutes, but the real safety advantage comes from the probability of an unlikely main malfunction multiplied by the even less likely probability of a reserve malfunction. This yields an even smaller probability of a double malfunction although the possibility of a main malfunction that cannot be cut away causing a reserve malfunction is a very real risk. Static line failures pose risks of towed paratroopers.

Base jumping

[edit]
Parachutists jumping from an Ilyushin Il-76 of the Ukraine Air Force (2014)

Parachuting disciplines such as BASE jumping or those that involve equipment such as wingsuit flying and sky surfing have a higher risk factor due to the lower mobility of the jumper and the greater risk of entanglement. For this reason,[tone] these disciplines are generally practised by experienced jumpers.[citation needed]

USPA member drop zones in the US and Canada are required to have an experienced jumper act as a "safety officer" (in Canada DSO – Drop Zone Safety Officer; in the U.S. S&TA – Safety and Training Advisor) who is responsible for dealing with jumpers who violate rules, regulations, or otherwise act in a fashion deemed unsafe by the appointed individual.

In many countries, either the local regulations or the liability-conscious prudence of the drop zone owners require that parachutists must have attained the age of majority before engaging in the sport.

The first skydive performed without a parachute was by stuntman Gary Connery on 23 May 2012 at 732 m (2,402 ft).[5]

Most common injuries

[edit]

Due to the hazardous nature of skydiving, precautions are taken to avoid parachuting injuries and death. For first-time solo-parachutists, this includes anywhere from 4 to 8 hours of ground instruction.[6] Since the majority of parachute injuries occur upon landing (approximately 85%),[7] the greatest emphasis within ground training is usually on the proper parachute landing fall (PLF), which seeks to orient the body so as to evenly disperse the impact through flexion of several large, insulating muscles (such as the medial gastrocnemius, tibialis anterior, rectus femoris, vastus medialis, biceps femoris, and semitendinosus),[8] as opposed to individual bones, tendons, and ligaments which break and tear more easily.

The percent of injuries caused by an improper landing position

Parachutists, especially those flying smaller sport canopies, often land with dangerous amounts of kinetic energy, and for this reason, improper landings are the cause of more than 30% of all skydiving-related injuries and deaths.[7] Often, injuries sustained during parachute landing are caused when a single outstretched limb, such as a hand or foot, is extended separately from the rest of the body, causing it to sustain forces disproportional to the support structures within.[9] This tendency is displayed in the accompanying chart, which shows the significantly higher proportion of wrist and ankle injuries among the 186 injured in a 110,000 parachute jump study.

Due to the possibility of fractures (commonly occurring on the tibia and the ankle mortise), it is recommended that parachutists wear supportive footwear.[7] Supportive footwear prevents inward and outward ankle rolling, allowing the PLF to safely transfer impact energy through the true ankle joint, and dissipate it via the medial gastrocnemius and tibialis anterior muscles.

Weather

[edit]

Parachuting in poor weather, especially with thunderstorms, high winds, and dust devils can be a more dangerous activity. Reputable drop zones will suspend normal operations during inclement weather. In the United States, the USPA's Basic Safety Requirements prohibit solo student skydivers from jumping in winds exceeding 14 mph while using ram-air equipment. However, maximum ground winds are unlimited for licensed skydivers.[10]

Visibility

[edit]

As parachuting is an aviation activity under the visual flight rules,[11] it is generally illegal to jump in or through clouds, according to the relevant rules governing the airspace, such as FAR105[12] in the US or Faldskærmsbestemmelser (Parachuting Ordinances)[13] in Denmark. Jumpers and pilots of the dropping aircraft similarly bear responsibility of following the other VFR elements,[11] in particular ensuring that the air traffic at the moment of jump does not create a hazard.

Canopy collisions

[edit]

A collision with another canopy is a statistical hazard, and may be avoided by observing simple principles, including knowing upper wind speeds, the number of party members and exit groups, and having sufficient exit separation between jumpers.[14] In 2013, 17% of all skydiving fatalities in the United States resulted from mid-air collisions.[15]

Training

[edit]
Static line jump
Exit from a Cessna 208
A parachutist above Venezuela
Parachuting simulator on "Army-2022" exhibition

Skydiving can be practised without jumping. Vertical wind tunnels are used to practise for free fall ("indoor skydiving" or "bodyflight"), while virtual reality parachute simulators are used to practise parachute control.

Beginning skydivers seeking training have the following options:

Tandem

[edit]

Tandem skydiving or tandem parachuting refers to a type of skydiving where a student skydiver is connected to an instructor via a harness. The instructor guides the student through the whole jump from exit through freefall, piloting the canopy, and landing. The student needs only minimal instruction before making a tandem jump with the instructor.[16]

Static line

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A static line is a fixed cord attached to a large, stable object. It is used to open parachutes automatically for paratroopers and novice parachutists.

Instructor-assisted deployment (IAD)

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Instructor-assisted deployment (IAD) is a parachute deployment program most adequately similar to static line. The main difference is that instead of being deployed by a static line, the student's jumpmaster (who is in the plane with them) deploys the student's parachute by throwing the pilot chute downward and clear of the door as the student exits.

Accelerated freefall

[edit]

Accelerated freefall (AFF) (known in Canada as progressive freefall, and in Finland as Nova (NOpeutettu VApaapudotus, a literal translation) is a method of training for skydiving, called accelerated because the progression is the fastest way to experience solo freefall, normally from 10,000 to 15,000 feet above ground level (AGL), allowing one to reach a higher terminal velocity than normal. In AFF, one (or sometimes two) instructor(s) are dedicated to just one student, causing this method of training to be more expensive than static line progression, where one instructor can dispatch multiple students per load, initially from a lower altitude.

Parachute deployment

[edit]

At a sport skydiver's deployment altitude, the individual manually deploys a small pilot-chute which acts as a drogue, catching air and pulling out the main parachute or the main canopy. There are two principal systems in use: the "throw-out", where the skydiver pulls a toggle attached to the top of the pilot-chute stowed in a small pocket outside the main container: and the "pull-out", where the skydiver pulls a small pad attached to the pilot-chute which is stowed inside the container.

Throw-out pilot-chute pouches are usually positioned at the bottom of the container – the B.O.C. deployment system – but older harnesses often have leg-mounted pouches. The latter are safe for flat-flying, but often unsuitable for freestyle or head-down flying.

In a typical civilian sport parachute system, the pilot-chute is connected to a line known as the "bridle", which in turn is attached to a small deployment bag that contains the folded parachute and the canopy suspension lines, which are stowed with rubber bands. At the bottom of the container that holds the deployment bag is a closing loop which, during packing, is fed through the grommets of the four flaps that are used to close the container. At that point, a curved pin that is attached to the bridle is inserted through the closing loop. The next step involves folding the pilot-chute and placing it in a pouch (e.g., B.O.C pouch).

Activation begins when the pilot-chute is thrown out. It inflates and creates drag, pulling the pin out of the closing loop and allowing the pilot-chute to pull the deployment bag from the container. The parachute lines are pulled loose from the rubber bands and extend as the canopy starts to open. A rectangular piece of fabric called the "slider" (which separates the parachute lines into four main groups fed through grommets in the four respective corners of the slider) slows the opening of the parachute and works its way down until the canopy is fully open and the slider is just above the head of the skydiver. The slider slows and controls the deployment of the parachute. Without a slider, the parachute would inflate fast, potentially damaging the parachute fabric and/or suspension lines, as well as causing discomfort, injury or even death of the jumper.[17] During a normal deployment, a skydiver will generally experience a few seconds of intense deceleration, in the realm of 3 to 4 g, while the parachute slows the descent from 190 km/h (120 mph) to approximately 28 km/h (17 mph).

If a skydiver experiences a malfunction of their main parachute which they cannot correct, they pull a "cut-away" handle on the front right-hand side of their harness (on the chest) which will release the main canopy from the harness/container. Once free from the malfunctioning main canopy, the reserve canopy can be activated manually by pulling a second handle on the front left harness. Some containers are fitted with a connecting line from the main to reserve parachutes – known as a reserve static line (RSL) – which pulls open the reserve container faster than a manual release could. Whichever method is used, a spring-loaded pilot-chute then extracts the reserve parachute from the upper half of the container.

Competitions

[edit]

World Championships are held every two years both Indoor and Outdoor in the competition disciplines Artistic Events (Freestyle and Freefly, indoor and outdoor), Canopy Formation (outdoor only), Canopy Piloting (outdoor only), Dynamic (indoor only), Formation Skydiving (indoor and outdoor), Paraski (outdoor only), Style & Accuracy Landing (outdoor only) and Wingsuit Flying (outdoor only). Continental Championships and World Cups can be held in alternate years.

Artistic events

[edit]

There are now two competitive Artistic Events, Freestyle and Freefly. Freestyle teams consist of a performer and a videographer, Freefly teams have two performers and a videographer. Skysurfing is no longer a competitive event after insufficient competitors entered in two successive World Championships. The history of these events is on this Freeflying page.

Accuracy landing

[edit]
Accuracy landing – Thomas Jeannerot 2013

Often called "Classic accuracy", this is an individual or team contest performed under an open parachute. The aim is to touch down on a target whose center is 2 cm in diameter. The target can be a deep foam mattress or an air-filled landing pad. An electronic recording pad of 32 cm in diameter is set in the middle. It measures score in 1 cm increments up to 16 cm and displays result just after landing.

The first part of any competition takes place over 8 rounds. Then in the individual competition, after these 8 selective rounds, the top 25% jump a semi-final round. After the semi-final round, the top 50% are selected for the final round. The competitor with the lowest cumulative score is declared the winner.

Competitors jump in teams of 5 maximum, exiting the aircraft at 1,000 or 1,200 meters and opening their parachutes sequentially to allow each competitor a clear approach to the target.

This sport is unpredictable because weather conditions play a very important part. So classic accuracy requires high adaptability to aerology and excellent steering control.

It is also the most interesting discipline for spectators due to the closeness of action (a few meters) and the possibility to be practiced everywhere (sport ground, stadium, urban place...). Today, classic accuracy is the most practiced (in competition) discipline of skydiving in the world.

Two parachutists perform a dock on a Canopy Relative Work (CReW) jump.

Canopy formation

[edit]

Previously called Canopy Relative Work, or CREW for short, is a skydive where the participants open their parachutes very quickly after leaving the aircraft with the intention of flying in close proximity to each other. The goal is to create various formations by "docking" with other parachutists on the jump. The dock is often accomplished by placing one's feet into the lines of another person's parachute. Formations require at least 2 people, but can have many more.

Due to the close proximity of the canopies, care has to be taken by all participants to ensure the safety of the jump. It is common for a CREW jumper to carry a hook knife to use in case they become entangled in another jumper's lines.

Formation skydiving

[edit]
DC-3 loading; plus 'dirt diving'; 1977

Formation Skydiving (FS) was born in California, US, during the 1960s. The first documented skydiving formation occurred over Arvin, California in March 1964 when Mitch Poteet, Don Henderson, Andy Keech and Lou Paproski successfully formed a 4-man star formation, photographed by Bob Buquor. This discipline was formerly referred to in the skydiving community as Relative Work, often abbreviated to RW, Relly or Rel.[18]

Style

[edit]
Style – Thomas Jeannerot
Style – Thomas Jeannerot 2013

Style can be considered as the sprint of parachuting. This individual discipline is played in free fall. The idea is to take maximum speed and complete a pre-designated series of maneuvers as fast and cleanly as possible (speed can exceed 400 km/h/250 mph). Jumps are filmed using a ground-based camera (with an exceptional lens to record the performance).

Performance is timed (from the start of the manoeuvre until its completion) and then judged in public at the end of the jump. Competition includes 4 qualifying rounds and a final for the top 8. Competitors jump from a height of 2200 m to 2500 m. They rush into an acceleration stage for 15 to 20 seconds and then run their series of manoeuvres benefiting to the maximum of the stored speed. Those series consist of Turns and Back-Loops to achieve in a pre-designated order. The incorrect performance of the manoeuvres gives rise to penalties that are added at run time.

The performance of the athlete is defined in seconds and hundredths of a second. The competitor with the lowest cumulative time is declared the winner.

Notice the complete sequence is performed by leading international experts in just over 6 seconds, penalties included.

Tunnel flying

[edit]

Using a vertical wind tunnel to simulate free fall has become a discipline of its own and is not only used for training but has its own competitions, teams, and figures.

Wingsuit flying

[edit]

'Wingsuit flying' or 'wingsuiting' is the sport of flying through the air using a wingsuit, which adds surface area to the human body to enable a significant increase in lift. The common type of wingsuit creates an extra surface area with fabric between the legs and under the arms.

Other skydiving disciplines

[edit]

Angle flying

[edit]

Angle flying was presented for the first time in 2000 at the World Freestyle Competitions, the European Espace Boogie, and the Eloy Freefly Festival.

The technique consists of flying diagonally with a determinate relation between angle and trajectory speed of the body, to obtain an air stream that allows for control of flight. The aim is to fly in formation at the same level and angle, and to be able to perform different aerial games, such as freestyle, three-dimensional flight formation with grip, or acrobatic free-flying.[19]

Cross-country

[edit]

A cross-country jump is a skydive where the participants open their parachutes immediately after jumping, with the intention of covering as much ground under canopy as possible. The usual distance from jump run to the drop zone can be as much as several miles.

A Technoavia SM92 Finist of Target Skysports lifts skydivers to the jump altitude at Hibaldstow, England.

There are two variations of a cross-country jump:

The more popular one is to plan the exit point upwind of the drop zone. A map and information about the wind direction and velocity at different altitudes are used to determine the exit point. This is usually set at a distance from where all the participants should be able to fly back to the drop zone.

The other variation is to jump out directly above the drop zone and fly downwind as far as possible. This increases the risks of the jump substantially, as the participants must be able to find a suitable landing area before they run out of altitude.

Two-way radios and cell-phones are often used to make sure everyone has landed safely, and, in case of a landing off the drop zone, to find out where the parachutist is so that ground crew can pick them up.

Night jumps

[edit]

Parachuting is not always restricted to daytime hours; experienced skydivers sometimes perform night jumps. For safety reasons, this requires more equipment than a usual daytime jump and in most jurisdictions, it requires both an advanced skydiving license (at least a B-License in the U.S.) and a meeting with the local safety official covering who will be doing what on the load. A lit altimeter (preferably accompanied with an audible altimeter) is a must. Skydivers performing night jumps often take flashlights up with them so that they can check their canopies have properly deployed.

Visibility to other skydivers and other aircraft is also a consideration; FAA regulations require skydivers jumping at night to be wearing a light visible for three miles (4.8 km) in every direction, and to turn it on once they are under canopy. A chem-light (glowstick) is a good idea on a night jump.

Night jumpers should be made aware of the dark zone, when landing at night. Above 30 meters (98 feet) jumpers flying their canopy have a good view of the landing zone normally because of reflected ambient light/moon light. Once they get close to the ground, this ambient light source is lost, because of the low angle of reflection. The lower they get, the darker the ground looks. At about 100 feet and below it may seem that they are landing in a black hole. Suddenly it becomes very dark, and the jumper hits the ground soon after. This ground rush should be explained to, and anticipated by, the first-time night jumper. Recommendations should be made to the jumper to utilize a canopy that is larger than they typically use on a day jump and to attempt to schedule their first night jump as close to a full moon as possible to make it easier to see the ground.

In addition, in order to mitigate problems seeing the target, people on the ground often park their cars with their headlights on around the target circle facing toward the center.

While more dangerous than regular skydiving and more difficult to schedule, two night jumps are required by the USPA for a jumper to obtain their D (expert) license.

A UK parachuting aircraft – the Short Skyvan SC.7

Pond swooping

[edit]

Pond swooping is a form of competitive parachuting wherein canopy pilots attempt to touch down and glide across a small body of water, and onto the shore. Events provide lighthearted competition, rating accuracy, speed, distance and style. Points and peer approval are reduced when a participant "chows", or fails to reach shore and sinks into the water. Swoop ponds are not deep enough to drown in under ordinary circumstances, their main danger being from the concussive force of an incorrectly executed maneuver. In order to gain distance, swoopers increase their speed by executing a "hook turn", wherein both speed and difficulty increase with the angle of the turn. Hook turns are most commonly measured in increments of 90 degrees. As the angle of the turn increases, both horizontal and vertical speed are increased, such that a misjudgement of altitude or imprecise manipulation of the canopy's control structures (front risers, rear risers, and toggles) can lead to a high-speed impact with the pond or Earth. Prevention of injury is the main reason why a pond is used for swooping rather than a grass landing area.

Skysurfing

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Space ball

[edit]

This is when skydivers have a ball that weighs 455–590 grams and release it in free fall. The ball maintains the same fall rate as the skydivers. The skydivers can pass the ball around to each other whilst in free fall. At a predetermined altitude, the "ball master" will catch the ball and hold on to it to ensure it does not impact the ground. Space balls are prohibited at many drop zones, due to risk to persons and property on the ground in the event that the ball is not caught or dropped during/after deployment

Spaceball jump

Stuff jumps

[edit]
A skydiver sits in a rubber raft steadied by three other jumpers.

Thanks to large unpopulated areas to jump over, 'stuff' jumps become possible. These jumps consist of skydivers leaving the aircraft with some object. Rubber raft jumps are popular; where the jumpers sit in a rubber raft. Cars, bicycles, motorcycles, vacuum cleaners, water tanks, and inflatable companions have also been thrown out the back of an aircraft. At a certain altitude, the jumpers break off from the object and deploy their parachutes, leaving it to smash into the ground at terminal velocity.

Swoop and chug

[edit]

A tradition at many drop zones is the swoop and chug. As parachutists land from the last load of the day, other skydivers often hand the landing skydivers a beer that is customarily chugged in the landing area. This is sometimes timed as a friendly competition but is usually an informal, untimed, kick-off for the night's festivities.[20]

Another example of this is "hit and rock", a variant of accuracy landing devised to let people of varying skill levels compete for fun. "Hit and rock" is originally from POPS (Parachutists Over Phorty Society, a society for skydivers over the age of forty). The object is to land as close as possible to the chair, remove the parachute harness, sprint to the chair, sit fully in the chair and rock back and forth at least one time. The contestant is timed from the moment that feet touch the ground until that first rock is completed. This event is considered a race.

Tracking

[edit]

Sit flying

[edit]

This form of skydiving involves the skydivers flying in a feet-to-Earth position. With less surface area being presented to the wind these skydivers can generate more free-fall speed.

Head down flying

[edit]

This form of skydiving involves the skydivers flying in a head to Earth position. Generally, the object is to fly together with other skydivers and perform maneuvers during the free fall, for the sheer enjoyment of it all.

Organizations

[edit]

The Fédération Aéronautique Internationale (FAI), Parachuting Commission (IPC) conducts FAI's parachuting activities, in particular World Records and International Competitions. It sets globally recognised parachuting proficiency levels, international records requirements, international judging competencies and competition rules.

National parachuting associations exist in many countries, many affiliated with the FAI, to promote their sport. In most cases, national representative bodies, as well as local drop zone operators, require that participants carry certification attesting to their training their level of experience in the sport, and their proven competence. Anyone who cannot produce such bona-fides is treated as a student, requiring close supervision.[citation needed]

The sole organization in the United States is the United States Parachute Association (USPA), which issues licenses and ratings, governs skydiving, publishes Parachutist Magazine, and represents skydiving to government agencies. USPA publishes the Skydivers Information Manual (SIM) and many other resources. In Canada, the Canadian Sport Parachuting Association is the lead organization. In South Africa, the sport is managed by the Parachute Association of South Africa, in France by the French Parachuting Federation, and in the United Kingdom by the British Parachute Association. In Brazil, the Centro Nacional de Paraquedismo (CNP) sets in Boituva, where many records have been broken and where it is known for being the second-largest center in the world and the largest in the Southern Hemisphere.[citation needed]

Within the sport, associations promote safety, technical advances, training and certification, competition and other interests of their members. Outside their respective communities, they promote their sport to the public and often intercede with government regulators.

Competitions are organized at regional, national and international levels in most of these disciplines. Some of them offer amateur competition.

Many of the more photogenic/videogenic variants also enjoy sponsored events with prize money for the winners.

The majority of jumpers tend to be non-competitive, enjoying the opportunity to skydive with their friends on weekends and holidays. The atmosphere of their gatherings is relaxed, sociable and welcoming to newcomers.[citation needed] Skydiving events, called "boogies", are arranged at local, national and international scale each year, which attracting both young jumpers and their elders – Parachutists Over Phorty (POPs), Skydivers Over Sixty (SOS) and even older groups.

Drop zones

[edit]
A parachute landing

In parachuting, a drop zone or DZ is most technically the area above and around a location where a parachutist freefalls and expects to land. In common use, it often refers to the totality of a skydiving operation (a business). And the area wherein parachutists land will be referred to as the "landing area". The drop zone is usually situated beside a small airport, often sharing the facility with other general aviation activities. Drop zone staff may include the DZO (drop zone operator or owner), manifest, pilots, instructors, coaches, cameramen, packers, riggers and other general staff.

Equipment

[edit]

A parachutist's equipment consists of at least three, usually four components, a container/harness system, a main canopy, a reserve canopy and frequently an automatic activation device (AAD) as well. Other items may include a helmet, goggles, jumpsuit, altimeter, and gloves. An increasing number of skydivers wear cameras, like GoPros, to record their skydives.[citation needed]

Costs in the sport are not trivial. The market is not large enough to permit the steady lowering of prices that is seen with some other equipment like computers. A new container/harness system can cost between US$1,500 and US$3,500,[21] main canopies for the experienced parachutist can cost between $2,000 and US$3,600,[22][23][24] reserve canopies cost between US$1,500 and US$2,500[25] and AADs US$1,000[26] cost. Higher performance and tandem parachutes cost significantly more, whilst large docile student parachutes often cost less.

Most parachuting equipment is ruggedly designed and is enjoyed by several owners before being retired. A rigger is trained to spot signs of damage or misuse. Riggers also keep track of industry product and safety bulletins, and can, therefore, determine if a piece of equipment is up-to-date and serviceable.

Traveling with a parachute

[edit]

When traveling by plane, parachutes' owners may not want to put their parachute in the baggage hold in order to avoid possible deterioration due to possible incorrect handling by airport operators.[27] In such case, a resulting malfunction in a future use of the parachute could be dramatic.

However, almost all parachutes contain an automatic activation device (AAD),[28] thus bringing a parachute to the plane's cabin might cause issues when going through airport security. AADs can contain either void or pyrotechnic load, and the rest of the parachute also consists of several very uncommon metallic parts and cables, all of which could trigger scanners of the security screening.[citation needed]

In order to justify the presence of "suspicious" content inside the parachute (explosive, vacuum, metal pieces, cables), travelers are encouraged to announce that they are traveling with a parachute when they buy their airplane ticket, and to produce the following documents when asked by the airport security's staff:

  • The AAD's explanation card that shows and describes what is seen on X-ray monitors [29][30]
  • Documents from a country, airplane company, or airport officials themselves, that denote the exclusion of such devices from the forbidden items [31][32][33]
  • The parachute's constructor book detailing the anatomy of the whole bag. Similarly to the AAD's card, it can help showing the purpose of all what could raise awareness of the staff

National skydiving associations usually list on their websites a piece of advice concerning this matter.[34][35]

Record free fall parachute jumps

[edit]
Joseph Kittinger starting his record-breaking skydive in 1960. His record was broken only in 2012.

In 1914, while doing demonstrations for the U.S. Army, a parachute pioneer named Tiny Broadwick deployed her chute manually, thus becoming the first person to jump free-fall.[36]

According to the Guinness Book of Records, Eugene Andreev (USSR) holds the official FAI record for the longest free-fall parachute jump after falling for 24,500 metres (80,400 ft) from an altitude of 25,458 metres (83,524 ft) near the city of Saratov, Russia, on 1 November 1962. Although later on jumpers would ascend higher altitudes, Andreev's record was set without the use of a drogue chute during the jump and therefore remains the longest genuine free fall record.[37]

During the late 1950s, Captain Joseph Kittinger of the United States was assigned to the Aerospace Medical Research Laboratories at Wright-Patterson AFB in Dayton, Ohio. For Project Excelsior (meaning "ever upward", a name given to the project by Colonel John Stapp), as part of research into high altitude bailout, he made a series of three parachute jumps wearing a pressurized suit, from a helium balloon with an open gondola.[citation needed]

The first, from 76,400 feet (23,300 m) in November 1959 was a near tragedy when an equipment malfunction caused him to lose consciousness, but the automatic parachute saved him (he went into a flat spin at a rotational velocity of 120 rpm; the g-force at his extremities was calculated to be over 22 times that of gravity, setting another record). Three weeks later he jumped again from 74,700 feet (22,800 m). For that return jump Kittinger was awarded the A. Leo Stevens parachute medal.[citation needed]

On 16 August 1960 he made the final jump from the Excelsior III at 102,800 feet (31,300 m). Towing a small drogue chute for stabilization, he fell for 4 minutes and 36 seconds reaching a maximum speed of 614 mph (988 km/h)[38] before opening his parachute at 14,000 feet (4,300 m). Pressurization for his right glove malfunctioned during the ascent, and his right hand swelled to twice its normal size.[39] He set records for highest balloon ascent, highest parachute jump, longest drogue-fall (4 min), and fastest speed by a human through the atmosphere.[40]

The jumps were made in a "rocking-chair" position, descending on his back, rather than the usual arch familiar to skydivers, because he was wearing a 60-pound (27 kg) "kit" on his behind and his pressure suit naturally formed that shape when inflated, a shape appropriate for sitting in an airplane cockpit. For the series of jumps, Kittinger was decorated with an oak leaf cluster to his Distinguished Flying Cross and awarded the Harmon Trophy by President Dwight Eisenhower.[citation needed]

In 2012, the Red Bull Stratos mission took place. On 14 October 2012, Felix Baumgartner broke the records previously set by Kittinger for the highest free fall, the highest manned helium balloon flight, and the fastest free fall; he jumped from 128,100 feet (39,000 m), reaching 833.9 mph (1342 km/h) - Mach 1.24, faster than the speed of sound.[41] Kittinger was a member of the mission control and helped design the capsule and suit that Baumgartner ascended and jumped in.

On 24 October 2014, Alan Eustace broke the record previously set by Baumgartner for the highest fall. He jumped from a height of 135,908 feet (41,425 m) and fell with a drogue chute for 4+12 minutes.[42]

Other records

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Individual jumps

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  • Don Kellner holds the record for the most parachute jumps up to 2021, with a total of 46,355 jumps. He made his last eight skydives on 1 May 2021 in Hazleton, Pennsylvania, before his death from cancer on the following July 22, aged 85.[43][44]
    • In 1929, U.S. Army Sergeant Ralph W. Bottriell held the world's record for the most parachute jumps with 500. At that number, Bottriell stopped parachuting and became a ground instructor.[45]
  • Cheryl Stearns (U.S.) holds the record for the most parachute descents by a woman, with a total of 20,000 in August 2014, as well as the most parachute jumps made in a 24-hour period by a woman—352 jumps from 8–9 November 1995.
  • Erin Hogan became the world's youngest sky diver as of 2002, when she tandem jumped at age 5. (Beaten in 2003 by age 4 Kiwi)[citation needed]
  • Jay Stokes holds the record for most parachute descents in a single day at 640.[46]
  • The oldest female solo skydiver was Dilys Price. On 13 April 2013 she carried out the oldest solo parachute jump by a woman from Langar Airfield, Nottingham, UK when she was 80 years and 315 days.[47]
  • The oldest female tandem skydiver is Irene O'Shea. She made a tandem parachute jump on 9 December 2018 from an altitude of 4,000 m (13,000 ft) over Adelaide, Australia, at the age of 102 years. Her jump raised money and awareness for the Motor Neuron Disease Association of Southern Australia.[48]
  • The oldest male tandem skydiver, according to Guinness Book of World Records, is Bryson William Verdun Hayes (born 6 April 1916), who achieved the feat on 14 May 2017 at the age of 101 years 38 days.[49][50] Bryson Hayes had earlier become the oldest ever UK sky diver, achieving the feat on 11 April 2016[51] when he was 100 years old.
    • The record was previously held by Armand Gendreau (born 24 June 1913) who made a tandem parachute jump above Notre-Dame-de-Lourdes, Québec, Canada, on 27 June 2014 at the age of 101 years 3 days[52]
    • In July 2017, 102-year-old Kenneth Meyer (born 5 February 1915) became the oldest person to skydive.[53][54] As of December 2018, his achievement is under review by Guinness World Records and Hayes continues to hold the Guinness record for the oldest male tandem skydiver.
  • The oldest solo United States skydiver is Milburn Hart from Seattle, Washington. He was 96 years old when achieved this feat by making a solo jump in February 2005.[55]
  • On 14 October 2012, after seven years of planning, Felix Baumgartner (Austria) achieved the highest jump altitude, the highest freefall and the highest speed in freefall. He also became the first skydiver to break the sound barrier. He started from Roswell, New Mexico, US.[56]
  • Australian stunt parachutist, Captain Vincent Taylor, received the unofficial record for a lowest-level jump in 1929 when he jumped off a bridge over the San Francisco Bay whose center section had been raised to 135 feet (41 meters).[57]

Group jumps

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  • World's record for the most tandem parachute jumps in a 24-hour period is 403. This record was set at Skydive Hibaldstow on 10 July 2015, in memory of Stephen Sutton.[58]
  • World's largest formation in free-fall at night: 1 November 2017 at Skydive Arizona in Eloy, Arizona (64 linked persons in freefall).
  • World's largest formation in free-fall: 8 February 2006 in Udon Thani, Thailand (400 linked persons in freefall).
  • World's largest female-only formation: Jump for the Cause, 181 women from 26 countries who jumped from nine planes at 17,000 feet (5,200 meters), in 2009.[59]
  • World's largest head down formation (vertical formation): 31 July 2015 at Skydive Chicago in Ottawa, Illinois, U.S. (164 linked skydivers in head to Earth attitude):[60]
  • Largest female head down formation (vertical formation): 30 November 2013 at Skydive Arizona in Eloy, Arizona, U.S. (63 linked skydivers in head to Earth attitude).
  • European record: 13 August 2010, Włocławek, Poland. Polish skydivers broke a record when 102 people created a formation in the air during the Big Way Camp Euro 2010. The skydive was their fifteenth attempt at breaking the record.[61]
  • World's largest canopy formation: 100, set on 21 November 2007 in Lake Wales, Florida, U.S.[62]
  • Largest wingsuit formation: 22 September 2012, Perris Valley, California, U.S. (100 wingsuit jumpers).
  • Largest all-blind skydiving formation: 2, with Dan Rossi and John "BJ" Fleming on 13 September 2003.[63]
  • The oldest civilian parachute club in the world is The Irish Parachute Club, founded in 1956 by Freddie Bond and located in Clonbullogue, Co. Offaly, Ireland.[64]
  • The oldest civilian parachute club in the US is The Peninsula Skydivers Skydiving Club, founded in 1962 by Hugh P. Bergeron, located in West Point, Virginia.[65]
  • In September 1980, the world record night dive was performed at Perris, California, US, as the last night world record before it was eliminated as a separate category by the Fédération Aéronautique Internationale. It has since been reinstated in 2017.
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The cadence Blood on the Risers, about parachuting in the military, is sung to the tune Battle Hymn of the Republic, also known as John Brown's Body.[66] The song has been adapted with various versions of the lyrics, one of which uses as its first line "He jumped without a parachute from twenty thousand feet", and includes the line "They scraped him off the tarmac like a lump of strawberry jam", where it has been used as a campfire song by Scouts.[67]

See also

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References

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Revisions and contributorsEdit on WikipediaRead on Wikipedia
from Grokipedia
Parachuting, also known as skydiving, is defined as the descent of a to the surface from an in flight while using a or similar device to control and slow the fall through the atmosphere. This activity encompasses both recreational and competitive forms, where participants exit an at altitudes typically between 10,000 and 14,000 feet, experience freefall for 30 to 60 seconds, and then deploy the for a controlled . Governed in the United States by the United States Parachute Association (USPA) in coordination with the (FAA), parachuting requires adherence to strict equipment standards, training protocols, and operational rules to ensure safety. The origins of parachuting trace back to the late 18th century, with early designs inspired by Leonardo da Vinci's 1485 sketches of a pyramid-shaped canopy. The first well-documented occurred in 1783 when Louis-Sébastien Lenormand descended from a tree using an umbrella-like device, coining the term "parachute" from French words meaning "against" and "fall." Practical high-altitude jumps began with André-Jacques Garnerin's descent from a hydrogen balloon in 1797. By the early , aviation advancements enabled jumps from airplanes, with the first such jump in 1912. Military applications during the World Wars drove innovations, transforming parachuting into a tactical method for troop deployment. Post-war developments, including the invention of the ram-air parachute patented by Domina Jalbert in 1961, led to steerable designs that enabled precise control and formation flying. Surplus military equipment and returning veterans spurred the growth of recreational parachuting, with the founding of the National Parachute Riggers-Jumpers, Inc. in 1946, which evolved into the USPA. Today, parachuting is a global sport with approximately 3.88 million jumps in the U.S. in 2024, part of over 5.1 million worldwide. Disciplines include formation skydiving, freeflying, , and canopy piloting. Safety has improved through rigorous training—typically requiring 25 jumps for USPA A-license certification allowing unsupervised solo jumps—and technological advances like automatic activation devices. In 2024, the U.S. recorded 9 fatalities across approximately 3.88 million jumps, yielding a record low rate of 0.23 deaths per 100,000 jumps. The USPA, with approximately 42,000 members as of 2022, continues to promote , equipment certification, and international competitions, ensuring parachuting remains accessible for tandem first-timers and elite athletes alike.

History

Early inventions

The parachute's conceptual origins trace to the late 16th century, when Croatian Faust Vrančić (also known as ) designed the first documented device in 1595. Featured in his 1617 illustrated treatise Machinae Novae, Vrančić's "Homo Volans" (Flying Man) comprised a rectangular frame of willow rods covered in linen cloth, intended to enable safe descent from elevated structures like towers or city walls. Inspired by earlier sketches from , Vrančić reportedly tested a by jumping from a tower in , though no contemporary accounts confirm a successful trial, marking it as a seminal theoretical advancement in aerial safety. Nearly two centuries later, practical experimentation began with French physicist Louis-Sébastien Lenormand, who performed the first recorded parachute jump on December 26, 1783, in . Lenormand descended safely from a approximately 25 feet (7.6 meters) high using a frame supporting two large umbrellas to capture air resistance, proving the viability of controlled falls. He coined the term "" (from the French para meaning "to shield against" and chute meaning "fall") in a 1785 publication describing the device. This low-altitude demonstration paved the way for integration with emerging balloon technology. The advent of hydrogen balloons in the late 18th century enabled higher-altitude tests, culminating in André-Jacques Garnerin's pioneering jumps starting in 1797. On October 22 of that year, Garnerin ascended to about 3,200 feet (975 meters) in a over ' Monceau Park and deployed a 23-foot (7-meter) canopy with a central vent to expel air and mitigate —though the design still caused severe swinging, requiring physical exertion to stabilize. Garnerin's vented umbrella-shaped represented a shift from rigid frames to flexible fabrics, and his subsequent demonstrations, including jumps across , popularized balloon-based descents as public spectacles. His wife, Jeanne-Geneviève Garnerin, later became one of the first women to parachute successfully in 1802. In the mid-19th century, French Giffard's 1852 invention of the steam-powered dirigible advanced balloon controllability, indirectly supporting safer ascents for parachute exhibitions by allowing steered flights up to 17 miles (27 kilometers). This era saw balloon jumps evolve into professional entertainment, with American performer Thomas Baldwin pioneering trapeze acts suspended from ascending in 1885 before transitioning to ; his first U.S. balloon-to-parachute descent occurred on , 1887, from 4,000 feet (1,219 meters) over using a frameless silk design. Fellow aeronaut Charles Leroux, active from the 1880s, refined parachute rigging through over 200 jumps, often from , helping establish descent techniques amid the growing circus-like aerial shows before fixed-wing .

Aviation integration

The adaptation of parachutes for airplane use marked a pivotal shift in aviation safety and marked the transition from balloon-based descents to powered flight integration in the early . In 1911, American aviator Grant Morton achieved the first recorded parachute jump from an , exiting a biplane piloted by Phil Parmelee over Venice Beach, ; Morton carried a parachute folded in his arms and manually deployed it after leaping from approximately 4,000 feet. This experimental jump, though rudimentary and lacking a harness or container, demonstrated the feasibility of aerial parachuting and spurred further development amid growing adoption. World War I accelerated parachute innovations for military aviation, primarily through static-line systems that automatically deployed the canopy upon exit, initially for observation balloon crews and later for aircraft observers. These systems, tested by the U.S. Army's Parachute Section established in 1918 at Wright Field, , addressed the hazards of downed balloons but saw limited aircraft use before the due to bulkiness and skepticism about their reliability in combat. Post-war advancements culminated in Leslie Irvin's 1919 invention of the ripcord mechanism, enabling manual free-fall deployment from a backpack parachute. On April 28, 1919, Irvin conducted the first successful free-fall test jump from a DH-9 at 1,500 feet over McCook Field, , validating the design for pilot escapes and earning U.S. Army adoption of the Type A Irvin parachute. In the 1920s, civilian parachuting proliferated through exhibitions, where pilots and daredevils performed jumps from touring aircraft to captivate audiences at county fairs and air shows, fostering public enthusiasm for . This era also saw the founding of the in 1922 by Leslie Irvin, an exclusive honorary society for aviators worldwide who survived aircraft emergencies via parachute ; members received a gold caterpillar-shaped pin, symbolizing the silk worm's role in parachute fabric, with over 10,000 inductees by the decade's end. Regulatory advancements reinforced integration, as the U.S. Army Air Service issued a 1922 mandate via the requiring all pilots to carry and wear parachutes during flights, standardizing safety protocols and boosting production of reliable designs like the Irvin seat pack.

Post-WWII developments

Following , the availability of surplus military parachutes and aircraft spurred the growth of recreational parachuting . Ex-military paratroopers, seeking to continue outside , utilized this equipment for purposes, leading to organized jumps in the late 1940s and 1950s. In 1946, the National Parachute Jumpers and Riggers organization was established, evolving into the Parachute Club of America (later renamed the Parachute Association, or USPA in 1957), which standardized safety practices and promoted civilian skydiving. This shift marked the transition from military training to a burgeoning , with jump numbers increasing as clubs formed across the country. Internationally, the (FAI) formalized competitive parachuting in the early to regulate records and events. The FAI approved its first parachuting records in , including a women's highest delay jump by French parachutist Monique Laroche from 1,000 meters, highlighting advancements in freefall techniques. That same year, the first FAI World Parachuting Championships were held in , featuring accuracy and style events among European teams, establishing a global framework for sport competitions. Throughout the , freefall records pushed boundaries, with jumpers experimenting with longer delays to demonstrate control, though these were often limited by round canopy designs. Technological innovations in the and transformed parachuting from passive descent to steerable flight. Round parachutes, standard since , gave way to ram-air designs, first patented by Domina Jalbert in 1961 as the , which inflated with air for better maneuverability and landing precision. By the mid-, these rectangular canopies were widely adopted in sport jumping, enabling relative work formations and reducing drift. Concurrently, pioneers in the late experimented with tandem systems, such as Bob Favreau and Mike Barber's dual-harness setups in , allowing novices to jump harnessed to instructors and broadening access to the sport. These developments solidified parachuting's evolution into a controlled, recreational pursuit.

Uses

Recreational skydiving

Recreational skydiving is a pursuit where participants exit an at high altitudes to experience the adrenaline rush of freefall before deploying a for a controlled descent. This non-competitive form of the emphasizes personal thrill and enjoyment rather than tactical or professional objectives. Jumps typically originate from altitudes between 10,000 and 14,000 feet above ground level, providing approximately 45 to 60 seconds of depending on the exact height and conditions. The activity has grown significantly in popularity, with over 5.1 million skydives performed worldwide in alone, reflecting its appeal as an accessible . In the United States, the epicenter of organized skydiving, approximately 3.88 million jumps occur annually, supported by a network of drop zones and training facilities. This surge underscores the sport's safety improvements and broader availability, drawing participants from diverse backgrounds seeking one-time experiences or ongoing hobbies. Beginners usually start with tandem jumps, strapped to a certified instructor who handles all technical aspects, allowing novices to focus on the sensation without prior skills. After one or more tandems, aspiring skydivers enroll in structured training—such as the Parachute Association's Accelerated Freefall program—to learn deployment, stability, and landing techniques, culminating in solo jumps after about 25 total jumps. Variations enhance the recreational aspect, including scenic jumps over landmarks like coastal cliffs or ranges, and holiday-themed events at drop zones, where participants might don costumes for festive descents during events like Halloween or New Year's.

Military applications

Parachuting has been integral to military operations since , enabling rapid deployment of behind enemy lines to seize objectives, disrupt communications, and support ground advances. , such as the U.S. Army's 82nd and 101st Airborne Divisions, pioneered tactics involving mass drops to overwhelm defenders and secure key terrain, as demonstrated during the D-Day invasion on June 6, 1944, when over 13,000 paratroopers were airdropped into despite heavy scattering due to flak and navigational errors, yet succeeded in sowing confusion among German forces and blocking reinforcements. These early tactics revolutionized combat by establishing airborne units as a versatile component of operations, allowing surprise assaults that complemented amphibious landings. A seminal example of airborne infantry tactics was in September 1944, the largest Allied airborne operation of the war, involving over 34,000 paratroopers from British, American, and Polish units dropped across the to capture vital bridges and create a path into . U.S. forces, including the , secured objectives like the Bridge through intense fighting, though the operation ultimately failed due to logistical delays and German counterattacks, highlighting the risks of deep penetration without rapid ground link-up. Post-WWII, these tactics evolved into more precise methods for , emphasizing stealthy insertions over mass drops to conduct raids, reconnaissance, and sabotage in contested environments. Modern airborne infantry, such as those in the and , integrate parachuting with advanced navigation and night operations for expeditionary responses, maintaining relevance in peer conflicts through rapid global deployment capabilities. Specialized equipment like the MC-4 ram-air parachute system enhances precision drops for free-fall operations, allowing steerable glides up to 10 miles from the release point while supporting jumper weights up to 360 pounds with its 370-square-foot canopy. Adopted by U.S. Army since the 1980s, the MC-4 enables high-altitude jumps with minimal visibility to enemy , replacing round canopies for better control in tactical scenarios. Training regimens for airborne personnel begin with static-line jumps using the for mass assaults, where soldiers exit aircraft at low altitudes (around 1,250 feet) in rapid succession to simulate brigade-sized drops, building proficiency in assembly and immediate combat upon landing. Advanced training progresses to high-altitude, low-opening (HALO) and high-altitude, high-opening (HAHO) techniques, involving free-fall from 25,000 feet or higher with oxygen support, oxygen masks, and ram-air canopies; HAHO jumps allow teams to glide 15-20 miles under canopy to avoid detection, comprising up to 50% of free-fall curricula. In recent conflicts, such as the Global War on Terror, have utilized these parachuting tactics for covert insertions, including operations in where teams conducted high-altitude jumps to link with local allies and target positions, demonstrating the enduring value of airborne mobility in rugged terrain. For instance, U.S. Forces employed free-fall techniques during early phases of the campaign to infiltrate remote areas, supporting ground offensives and intelligence gathering with minimal footprint. These applications underscore parachuting's role in enabling surprise and operational tempo against asymmetric threats.

Emergency and scientific

Parachuting serves critical roles in emergency response and scientific endeavors, particularly for rapid deployment in hazardous environments and in extreme conditions. One prominent emergency application is the U.S. Forest Service program, established in the late 1930s and operational since 1940, which deploys highly trained firefighters via parachute to remote sites for swift initial attack and suppression. The program's inaugural fire jump occurred on July 12, 1940, when Rufus Robinson and Earl Cooley parachuted into the Idaho Panhandle National Forests to combat a small blaze, marking the first use of aerial insertion for wildland . Today, smokejumpers carry specialized gear weighing up to 110 pounds, including chainsaws, Pulaskis, and fire shelters, enabling them to establish containment lines in rugged terrain inaccessible by ground crews, thereby reducing escalation and protecting ecosystems and communities. In space exploration, parachutes have been essential for recovery, exemplified by their use in NASA's Apollo missions from 1969 to 1972. The Apollo command module's recovery system featured two parachutes for stabilization post-reentry, followed by three large main parachutes—each with a diameter of about 83 feet—that decelerated the capsule to a speed of approximately 32 feet per second (22 mph) in the . This configuration was rigorously tested in drop tests from and balloons starting in the early 1960s, ensuring safe returns for crews after lunar voyages, such as Apollo 11's historic on July 24, 1969. The system's reliability contributed to the success of all six lunar landing missions, preventing structural damage and enabling swift post-mission recovery by naval vessels. Scientific applications of parachuting encompass instrumented descents for atmospheric and the delivery of monitoring devices in ecological studies. Radiosondes, instrument packages attached to , have been used since the mid-20th century to profile upper-air conditions; released from weather balloons, they transmit , , pressure, and wind data during freefall and controlled parachute descent, providing essential inputs for meteorological forecasting and climate modeling. High-altitude human jumps, such as the 2012 Stratos mission where descended from 128,100 feet, incorporated sensors to gather real-time atmospheric density, , and pressure data across the , advancing understanding of extreme environment dynamics and informing future designs. In wildlife , parachutes facilitate the aerial deployment of tracking collars and cameras to remote habitats, allowing non-invasive monitoring of animal movements and populations in areas like dense forests or tundras without requiring on-foot access that could disturb species. Post-2010 advancements include recovery systems for unmanned aerial (UAVs), enhancing safety for scientific and emergency operations. These ballistic systems, such as those developed by AVSS, automatically deploy via or triggers upon detecting failures like loss of control or low altitude, reducing descent speeds to under 20 feet per second and complying with FAA and EASA standards for operations over . For example, the ParaZero systems have been integrated into commercial drones for applications like environmental , where safe recovery prevents and equipment damage in remote or urban settings.

Equipment

Parachute components

A parachute, the core of the skydiving system, comprises the canopy, suspension lines, and deployment mechanisms designed to safely decelerate the jumper from freefall to a controlled landing. The canopy serves as the primary aerodynamic surface, while supporting elements ensure reliable inflation and stability. Modern parachutes in recreational skydiving are almost exclusively ram-air designs, which feature a rectangular shape and provide steerability through trailing edge controls known as toggles. These differ significantly from traditional round parachutes, which are non-steerable, hemispherical canopies that descend more passively and are now seldom used in sport contexts due to limited maneuverability. Ram-air canopies inflate into an profile via ram air entering open cells at the , enabling forward flight speeds of 20-30 mph and glide ratios up to 3:1. Canopies are typically constructed from zero-porosity (ZP) nylon fabric, a ripstop material that minimizes air permeability to maintain internal pressure and structural integrity during flight, often lasting thousands of jumps with proper care. Suspension lines, which connect the harness to the canopy, are made from high-strength, low-stretch synthetic fibers such as Spectra () or to reduce and improve control precision. Deployment sliders, rectangular fabric grommeted devices that travel along the suspension lines, regulate the canopy's opening sequence by initially bunching the fabric to limit air capture, thereby mitigating opening shock forces that could otherwise reach several Gs. Sport parachutes are sized in square feet of canopy area to match the jumper's exit weight—total mass including gear—for optimal wing loading, expressed as pounds per square foot. Typical main canopies range from 150 to 250 square feet, with beginners often using larger sizes around 200-250 square feet for wing loadings of 0.8-1.0 pounds per square foot to ensure forgiving handling and slower descent rates of 15-20 feet per second, while experienced jumpers may select smaller ones down to 150 square feet or less for higher performance. Manufacturers provide weight-specific guidelines, and the United States Parachute Association recommends adhering to these, with minimum sizes scaled by experience level to prevent overly aggressive canopies. Reserve parachutes function as emergency backups, packed independently in a separate container to avoid interference with the main system. They are typically ram-air designs similar to mains but optimized for rapid, reliable deployment, similar in size to the main canopy while supporting the same weight limits for comparable descent performance. regulations mandate that reserves be inspected and repacked by a certified at least every 180 days, ensuring airtight seals and line continuity.

Rigging and harness

In skydiving, the system, also known as the , securely houses both the main and reserve parachutes, while the harness distributes the load across the jumper's body during freefall and canopy flight. The standard configuration is the piggyback rig, introduced in the , which stacks the reserve parachute directly above the main parachute on the jumper's back for streamlined deployment and emergency access. This design revolutionized sport parachuting by allowing dual-canopy systems in a compact form, with the main canopy deployed via a pilot chute and the reserve accessed through a dedicated handle. The harness is the adjustable framework that integrates with the , typically featuring padded straps, a chest strap, and main lift webs that connect to the risers for canopy attachment. Proper fit is critical to prevent shifting or discomfort, with straps tightened to a snug but walkable tension—allowing minimal gap between padding and skin—to ensure stability during maneuvers like sit-flying. Chest straps are adjusted to sit just below the after securing the straps, locking the rig in place and distributing forces evenly across the to avoid points or slippage under dynamic loads. Main lift webs should align vertically from shoulders to hips, with sizing verified against the jumper's measurements (within ±2 inches in height and ±15 pounds in weight) to maintain handle and overall . Manufacturers recommend professional fitting by a certified rigger for used , using the rig's to confirm compatibility. Many modern rigs incorporate an (AAD), such as the CYPRES, which monitors descent rate and altitude to deploy the reserve parachute autonomously in low-altitude, high-speed scenarios. The CYPRES Expert mode activates at approximately 750 feet above ground level (AGL) if the descent exceeds 78 mph (35 m/s), providing a critical for unconscious or incapacitated jumpers. These devices are mounted within the and wired to the reserve pin, with user-selectable altitude adjustments available in increments up to about 900 feet higher for specialized jumps. Parachute packing and maintenance are governed by strict standards to ensure reliability, with reserve canopies required to be repacked by a Federal Aviation Administration (FAA)-certificated parachute rigger at least every 180 days. This interval applies to all sport skydiving reserves under U.S. regulations (14 CFR §105.43), and the rigger must record the date, place, and type of packing on an attached data card sealed with their identifying mark. Main parachutes must be inspected and repacked within 180 days before use under 14 CFR §105.43, though this may be performed by the jumper, a supervised packer, or a rigger, and are typically done every 120-180 days based on usage and manufacturer guidelines to maintain airworthiness. Certified riggers, who hold FAA ratings such as senior or master, undergo rigorous training and must demonstrate proficiency in assembly, inspection, and repair per the Parachute Rigger Handbook.

Auxiliary gear

Auxiliary gear in parachuting encompasses essential accessories that enhance safety, performance, and documentation during jumps, beyond the primary parachute system. These items include altimeters for altitude monitoring, protective head and eye gear, specialized clothing for aerodynamic control, and electronic devices for tracking and recording. Such equipment is recommended by organizations like the Parachute Association (USPA) to mitigate risks in high-altitude environments. Altimeters provide critical altitude awareness to skydivers, preventing deployment delays or low-altitude hazards. Visual altimeters, typically wrist-mounted digital displays, allow jumpers to monitor in real-time during freefall and canopy flight. Audible altimeters, often worn on the or , emit beeps or voice alerts at preset altitudes, such as 3,000 feet for deployment preparation, aiding focus in noisy conditions like high-speed dives where dual units are advised. Modern models combine both features, using LED visuals for peripheral cues alongside audio signals, improving reaction times without diverting attention from the jump. Helmets and goggles form the primary protective barrier for the head and eyes against , , and potential impacts. Skydiving helmets are constructed from impact-resistant materials like ABS plastic with internal padding, such as expanded foam, to absorb shocks during landings or collisions, though they offer limited defense against traumatic injuries from high-velocity falls. Full-face variants integrate visors for added protection and can accommodate visual altimeters for users with hearing impairments. , made from shatterproof lenses, seal tightly against the face to shield eyes from 120-200 mph and prevent drying or irritation, often featuring coatings and ventilation for clarity. Compliance with standards like the European EN166 for ensures durability under extreme conditions. Jumpsuits are tailored garments that optimize and body control in freefall, influencing fall rate, stability, and maneuverability. Constructed from or similar lightweight, stretchable fabrics, they feature reinforced knees, grips on arms and legs for formations, and adjustable flaps to modulate drag—smaller suits for faster falls in head-down positions, larger ones for slower relative work. These suits reduce unwanted spin and enhance precision in disciplines like freefly or wingsuit precursors, with custom fits accounting for body size to balance speed and control. GPS trackers and cameras enable jump analysis, navigation, and recording for training or competition. GPS devices, often integrated with altimeters, log altitude, speed, groundspeed, and flight paths in real-time, providing audible feedback on glide ratios to refine landing accuracy and track performance metrics post-jump. Compact units like data loggers attach to the helmet or rig, offering 3D replays and long battery life for multiple jumps. Cameras, such as action models mounted on helmets, capture high-definition footage of freefall and deployments at and 120 fps, aiding debriefs while USPA recommends visual altimeters compatible with filming setups.

Training

Initial programs

Initial programs for first-time parachutists emphasize supervised, low-risk entry methods to build foundational skills under professional guidance, adhering to standards set by organizations like the United States Parachute Association (USPA). These programs prioritize safety through structured training that minimizes independent decision-making during the initial jumps, allowing novices to experience freefall and canopy control with minimal exposure to hazards. All entry-level programs begin with ground school, typically lasting 4-8 hours, where participants learn essential techniques such as proper aircraft exits, maintaining an arched body position for stability, and emergency procedures including malfunction responses and reserve deployment. The arch position involves thrusting the hips forward, arching the back, keeping knees shoulder-width apart with legs slightly extended, and holding arms relaxed at a 90-degree angle or less to ensure aerodynamic stability during exit and any brief freefall. Emergency training covers scenarios like hard pulls or pilot-chute hesitations, instructing students to attempt deployment twice or for up to 5 seconds before initiating cutaway procedures above a 1,000-foot hard deck. Tandem jumps represent the most accessible option for novices, involving a harnessed directly to a certified instructor who controls the entire flight. This method requires only about 20-30 minutes of preparatory briefing rather than extended ground school, focusing on basic roles like maintaining a neutral body position. Upon exiting the at altitudes of 10,000-13,000 feet, the pair experiences a controlled freefall of 30-50 seconds, after which the instructor deploys and pilots the shared ram-air to a safe landing; the may assist with minor steering if guided. setups use specialized equipment rated for two occupants, with the instructor serving as to ensure compliance with deployment and emergency protocols. Static line jumps provide an alternative for students seeking quicker progression to solo canopy control, with deployment activated mechanically from the ground rather than by the jumper. Following ground school, the student exits the aircraft solo at around 3,500 feet, attached to a static line—a cable or cord tethered to the plane—that immediately extracts the pilot chute upon full extension, resulting in essentially no freefall as the main canopy opens within seconds. This method allows the student to focus on maintaining the arch and altitude awareness during the brief exit phase, then independently steering and landing the canopy under radio supervision from ground instructors. USPA requires all static line jumps to be conducted by a qualified instructor until the student demonstrates proficiency. Instructor-Assisted Deployment (IAD) closely resembles training but incorporates hands-on instructor intervention for deployment, offering a hybrid approach for building confidence. After completing ground school, the student exits the solo and falls briefly—typically 3-5 seconds—while a USPA-certified IAD instructor, positioned nearby or from the door, throws the pilot chute to initiate canopy opening at approximately 3,500 feet. Unlike , the student is unattached to the instructor, emphasizing individual stability in the arch position post-exit and self-reliant canopy piloting thereafter, with debriefs reinforcing emergency checks like verifying the pilot chute throw. This program enables same-day first jumps and serves as a bridge to unsupervised freefall training.

Progression methods

The primary method for progressing from student to licensed skydiver in recreational parachuting is the Accelerated Freefall (AFF) program, endorsed by the United States Parachute Association (USPA). In AFF, students exit the with one or two USPA-certified AFF instructors who provide hands-on guidance during the initial freefall phase but release early to allow the student to practice maneuvers independently while remaining nearby for monitoring and intervention if needed. This approach enables rapid skill acquisition in body position, altitude awareness, and basic freefall control, typically starting from jump altitudes of 10,000 to 14,000 feet. The AFF curriculum is structured into eight progressive categories (A through H) within the USPA Integrated Student Program, each building on the previous through targeted ground training, supervised jumps, and debriefs. Categories A and B involve two instructors for basic stability and simple turns, emphasizing arch position and altitude checks during a 30- to 50-second freefall. From Category C onward, a single instructor accompanies the , introducing dives, forward movement, and tracking while reducing physical contact to foster independence. Categories D through F focus on solo jumps with radio communication for landing guidance, incorporating group formations and emergency procedures. By Categories G and H, students perform unassisted solos, demonstrating advanced freefall skills like docks and break-offs, with radio use minimized to build full . Successful completion of all categories requires demonstrating proficiency in freefall and canopy control on each jump. Upon finishing the AFF categories, students continue with solo jumps under supervision to meet A-license requirements, which include a minimum of 25 total freefall jumps, at least five with a self-timed delay of five seconds or more to simulate real deployment timing, and five clear solo jumps without radio assistance to verify independent accuracy. These jumps must also include verified canopy control, such as accurate landings within a designated area, and passage of a USPA-written on rules and safety. This progression culminates in the issuance of the USPA A license, allowing unsupervised jumping and personal packing. To refine freefall stability and controlled turns beyond basic AFF proficiency, many skydivers attend specialized skill camps led by USPA Coaches, often incorporating sessions for in leg-driven maneuvers like slides and rotations. These camps, typically spanning several days, focus on conceptual body flight techniques to prepare for group jumping or competitions, emphasizing precise heading maintenance and efficient freefall transitions.

Certification processes

In the , the United States Parachute Association (USPA) administers a progressive licensing system for skydivers, consisting of four classes: A, B, C, and D , each denoting increasing levels of skill, experience, and operational autonomy. The A requires a minimum of 25 jumps, including specific proficiency demonstrations such as controlled , canopy control, and emergency procedures, along with a written examination scoring at least 75%; it allows unsupervised jumps from any standard altitude, personal packing of the main , and participation in formation and water jumps, but prohibits night jumps. The B builds on this with at least 50 jumps, incorporating 30 minutes of , accuracy landings within 33 feet of a target on 10 jumps, and a hop-and-pop jump, permitting night jumps and eligibility for the USPA Coach rating. The C demands 200 jumps, including advanced maneuvers like night and water jumps, enabling full solo privileges including international travel recognition and eligibility for certain ratings. Finally, the D , requiring 500 jumps including 3 hours of , completion of at least two advanced requirements such as a night jump or water jump, and verified proficiency in complex scenarios via a written scoring at least 75%, signifies expert status with unrestricted autonomy, including the ability to supervise students and participate in advanced competitions. Internationally, the (FAI) oversees the International Skydiving Certificates of Proficiency, a standardized system of A, B, C, and D levels issued by national aero clubs to certify parachutists' experience for global recognition, particularly in competitions. These non-renewable certificates, documented in a booklet with certification stickers, indicate lifelong proficiency levels: the A certificate confirms basic competence after initial training, while higher levels (B through D) require progressively more jumps and skills, such as demonstrated accuracy and , to qualify for FAI-sanctioned events like world championships in disciplines including formation skydiving and freestyle. FAI classifications ensure eligibility for international records and Category 1 competitions, where participants must hold at least a C-level certificate for advanced events, promoting uniform safety and skill standards across member nations. Beyond basic licenses, USPA offers instructional ratings for coaches and instructors, which require substantial experience and evaluation to teach others. The USPA Coach rating, an entry-level instructional credential, necessitates a B license, at least 100 jumps, and completion of the Coach Certification Course, including a written exam and practical demonstrations; it authorizes on non-instructional jumps, such as providing feedback on freefall and landings. Higher instructor ratings vary by type; the Accelerated Freefall (AFF) Instructor rating requires a USPA C license, a current or previously held Coach rating (for at least 12 months or with 500 jumps), 6 hours of , and successful completion of the AFF Instructor Certification Course with oral and practical exams. The Tandem Instructor rating demands a USPA D license, at least 500 jumps (including 100 on ram-air canopies in the last 12 months), three years of experience, a current , and successful completion of the Tandem Instructor Certification Course with oral and practical exams. These ratings emphasize teaching proficiency, with examiners verifying skills through supervised jumps and scenario-based assessments to ensure safe instruction. USPA licenses remain valid as long as the holder maintains active membership, with no additional renewal beyond annual dues, though jump (e.g., one jump every 60 days for A-license holders) is recommended for . Instructional ratings, however, require annual renewal through verification of ongoing requirements, including a written , attendance at a renewal , and documentation of recent instructional activity or jumps to confirm in emergency procedures and regulations. FAI certificates do not expire but may need reaffirmation via national bodies for competition participation, ensuring parachutists stay updated on evolving international standards.

Deployment Process

Freefall phase

The freefall phase in parachuting commences immediately upon exiting the and lasts until the parachute deployment sequence begins. Skydivers utilize specific exit techniques to initiate this phase effectively, particularly in group jumps where maintaining formation is essential. Common methods include the dive exit, where jumpers lean forward and dive headfirst to gain speed and separation; the belly exit, involving a horizontal presentation to the relative wind for stable group flying; and the sit exit, adopted for vertical orientations in formations to facilitate quicker vertical descent rates. These techniques ensure controlled separation from the aircraft and positioning relative to other jumpers. Upon exit, achieving stability is paramount to prevent uncontrolled tumbling, which could lead to disorientation or unsafe deployment. Skydivers adopt an arched body position—characterized by a slight backward curve in the back, hips thrust forward, arms and legs extended outward, and head up—to present the largest surface area to the oncoming wind, thereby countering rotational forces and establishing a neutral, belly-to-earth orientation. This arch promotes rapid stabilization within seconds of exit. Once stable, the skydiver accelerates due to until reaching , the point where air resistance balances gravitational force, typically around 120 miles per hour (193 kilometers per hour) for a belly-to-earth position in standard atmospheric conditions. The duration of freefall varies based on exit altitude, body position, and equipment, but from a typical jump altitude of 13,000 feet (approximately 4,000 meters), it generally spans 45 to 60 seconds for solo or tandem skydivers in a stable belly position before reaching deployment altitude. This timeframe allows for maneuvers while descending roughly 1,000 feet per 5-6 seconds after is achieved. Factors such as weight, altitude, and wind can slightly alter this, but the period emphasizes controlled flight relative to the wind. In group skydiving, known as relative work (RW), the freefall phase enables collaborative formations where jumpers maneuver to grip each other's limbs or use specialized grippers on harnesses to connect and build geometric patterns, such as stars or diamonds, while maintaining synchronized fall rates. These grips must be secure yet releasable to allow for transitions between formations, typically completed within the limited freefall window to maximize points in competitive settings or achieve aesthetic goals in recreational jumps. RW demands precise body control and communication through visual cues to avoid collisions and ensure safe breakoff before deployment.

Opening sequence

The opening sequence of a parachute in skydiving begins with the extraction of the pilot chute, a small auxiliary parachute designed to initiate deployment. In a hand-deployed system, typical for experienced skydivers, the jumper throws the pilot chute into the airstream during freefall, where it inflates and generates drag. This drag pulls a pin from the , releasing the deployment bag that holds the folded main canopy. The pilot chute is connected to the bag via a , which extracts the bag from the as the pilot chute continues to catch air. In training scenarios, a attached to the performs this extraction automatically upon exit, ensuring consistent deployment for novices. Once extracted, the main canopy, often a ram-air design with airfoil-shaped cells, begins to inflate as relative wind rushes into the open . Air fills the cells progressively from the center outward, transforming the collapsed fabric into a pressurized capable of generating lift and drag for controlled descent; this inflation typically completes within 3 to 5 seconds under normal conditions. To mitigate the sudden deceleration known as opening shock, a —a rectangular fabric device threaded onto the suspension lines—restrains the canopy's rapid expansion. The slider holds the lines close together initially, deflecting and distributing forces evenly until the canopy fully inflates, limiting peak accelerations to approximately 3 to 5 G. As inflation progresses, the slider descends the lines and stows on the risers, allowing full canopy performance. Despite these mechanisms, malfunctions can occur during the opening sequence, requiring immediate intervention. Common issues include line twists, where suspension lines tangle and cause the canopy to spin uncontrollably, potentially leading to entanglement if not addressed; severe cases demand a cutaway of the main canopy followed by reserve deployment. Another frequent partial malfunction is a bag lock, in which the container opens and lines extend but the canopy remains trapped inside the deployment , preventing inflation—jumpers are trained to cut away promptly in such scenarios to avoid total failure. The United States Parachute Association recommends evaluating any partial malfunction within seconds and initiating emergency procedures if the canopy does not fully deploy correctly.

Landing techniques

Once the parachute is fully deployed and inflated, skydivers transition to controlled descent under canopy, where precise techniques are essential for and accuracy. These techniques involve maneuvering the canopy to manage speed and direction, preparing for , and absorbing impact to minimize injury risk. The primary goal is a soft, controlled into the wind, prioritizing over precision in non-competitive scenarios. under canopy is primarily achieved using the brake toggles, which are handles attached to the steering lines connected to the rear of the parachute. Pulling down on one toggle deflects the trailing edge of the canopy on that side, creating drag that induces a turn while maintaining forward . This allows skydivers to navigate toward the intended area, with typical forward speeds under a standard rectangular canopy ranging from 20 to 25 , enabling glide ratios of about 3:1 (three feet forward for every foot of descent). To achieve a , skydivers perform a by simultaneously pulling both toggles downward to approximately waist or chest level, which stalls the canopy by increasing its and generating additional lift. This maneuver significantly reduces the descent rate from around 15-20 feet per second to near zero, slowing forward speed and allowing the skydiver to stand up the if executed correctly at 5-10 feet above ground. A well-timed is critical, as premature or insufficient flaring can result in a hard impact, while over-flaring may cause the canopy to collapse. Upon touchdown, the (PLF) technique is employed to dissipate the energy of impact across multiple body points, reducing the likelihood of from residual speed or uneven . The skydiver absorbs the initial contact with the balls of the feet, then rolls progressively through the calves, thighs, hip, and finally the shoulder of the same side, keeping the body relaxed and parallel to the ground. This method, standard in and civilian , distributes force over five contact points rather than concentrating it on the legs or ankles. For accuracy-focused landings, such as in or competitions, skydivers begin precise aiming during the leg, typically at 100-200 feet above ground level, adjusting heading and speed to target a specific zone like the drop zone's center or a marked disk. This involves maintaining a straight-in path into the wind, using toggle inputs for minor corrections, and committing to the flare without last-second turns that could compromise stability. In USPA jumps, accuracy is evaluated by within defined radii, such as 65 feet for initial licenses, emphasizing pattern discipline over aggressive maneuvers.

Safety

Primary hazards

Parachuting involves several primary hazards that can compromise safety during various phases of a jump, primarily stemming from environmental conditions, equipment reliability, and operator decisions. These risks are well-documented by organizations and require vigilant management to minimize their impact. Canopy collisions represent a significant threat, occurring when parachutes entangle mid-air, often during the deployment sequence or in the landing pattern. Such collisions typically arise from unpredictable canopy trajectories post-opening or from jumpers converging in crowded , leading to wraps where lines or fabric become intertwined, potentially causing partial collapses and loss of control. According to the Parachute Association (USPA), canopy collisions have accounted for approximately 11% of fatalities in recent years, highlighting their potential severity in both individual and group jumps. Equipment failure is another key hazard, encompassing issues like broken suspension lines, pilot chute hesitations, or deployment mechanism malfunctions that prevent proper canopy inflation. These failures most often trace to factors such as unstable body position during deployment, packing errors, or component wear, though true mechanical defects are infrequent. The USPA reports that equipment-related problems contribute to about 12% of skydiving fatalities over the past two decades, underscoring the importance of pre-jump inspections despite their low overall occurrence rate of roughly 1 in 1,000 jumps for total malfunctions. Winds pose environmental risks, particularly gusts exceeding 15 mph, which can induce canopy drifts, inversions, or that destabilizes flight paths. Strong or variable winds during descent may force parachutes off-course, increasing the likelihood of off-field landings or collisions, especially in thermal-prone areas. USPA guidelines emphasize that gust differentials over 10 mph amplify these dangers, often leading drop zones to impose holds when surface winds approach 20-25 mph. Human factors account for the majority of hazards, with errors such as low turns or hookturns—sharp maneuvers initiated too close to the ground—frequently resulting in loss of altitude awareness and control. These decisions, often made to avoid obstacles or achieve high-performance landings, stem from overconfidence, , or misjudgment of , and represent a leading cause of incidents under canopy. The USPA identifies unintentional low turns as a primary human-error category, comprising up to 22% of recent fatal events, while intentional variants add further risk in performance-oriented jumps.

Prevention measures

Prevention measures in parachuting encompass a series of standardized protocols designed to mitigate risks during all phases of a jump, emphasizing preparation, coordination, and trained responses to potential issues. These measures are primarily outlined in guidelines from the United States Parachute Association (USPA) and the , which promote systematic checks and adherence to safety standards to prevent equipment failures, navigational errors, and mid-air collisions. Pre-jump checks form the foundational layer of reduction, beginning with thorough gear inspections to ensure all components are airworthy and properly configured. Each skydiver is responsible for inspecting their at three critical stages: before donning the harness, prior to boarding the , and immediately before exiting. These inspections include verifying harness strap routing at the leg and chest points, canopy releases, reserve (RSL) connections, functionality, and the integrity of the main container, with particular attention to areas prone to wear such as line attachments and slider components. USPA recommends mutual gear checks between licensed jumpers to catch oversights, enhancing reliability through peer verification. Weather briefings complement these inspections by evaluating conditions like wind speeds, , and , which must meet specific limits—such as surface winds not exceeding 14 mph for students—to avoid drift beyond the drop zone or unstable landings. Pilots and load organizers conduct these briefings, incorporating data and coordinating with for safe operations. Spotting ensures accurate targeting of the drop zone by pilots, minimizing the risk of off-site landings that could lead to injuries or entanglements. Pilots follow USPA's Skydiving Operations Manual, which details procedures for aligning the on jump run, typically along a predetermined heading to release skydivers directly over the intended landing area. This involves using visual references, GPS coordinates, or VOR to maintain precision, with jumpmasters confirming the spot before exit to account for wind drift or terrain factors. Accurate spotting reduces horizontal separation errors, allowing canopies to open within safe boundaries of the drop zone. Traffic rules govern management during freefall and canopy phases to prevent collisions, utilizing structured slot systems for group jumps and mandatory spacing protocols. In formation skydiving, jumpers occupy designated slots relative to a base jumper, with exits sequenced to maintain vertical separation—typically a minimum of two seconds between groups, reducible to one second for experienced teams—to avoid . Under canopy, the "low person has the right-of-way" rule dictates that higher canopies yield by turning right, while formations cease docking no lower than 2,500 feet above ground level (AGL) to provide ample time for breakoff maneuvers. Breakoff involves a 180-degree turn and flat tracking away from the group starting at 1,500 feet AGL for small teams or 2,000 feet for larger ones, ensuring clear paths during deployment. These rules extend to specialized jumps, such as requiring wingsuit users to maintain 500 feet of vertical and horizontal separation from non-wingsuit groups. Emergency procedures equip skydivers with rehearsed responses to malfunctions, focusing on cutaway drills and reserve activation to enable safe recovery. Training emphasizes altitude awareness, with jumpers checking altimeters every 5 seconds during freefall and adhering to a "cutaway hard deck" of 1,000 feet AGL below which reserves must not be deployed after jettisoning the main. For total malfunctions—such as of the main pilot chute after two throws—skydivers immediately deploy the reserve by pulling the while looking over the right to monitor deployment. Partial malfunctions prompt a cutaway of the main canopy first, followed by reserve activation if above the hard deck; drills simulate this sequence during equipment repacks to build . Reserve systems incorporate automatic activation devices (AADs) set to deploy at low altitudes (e.g., 750 feet AGL) if the skydiver is falling too fast, serving as a final safeguard. These procedures are mandated in USPA's Basic Safety Requirements and practiced regularly to address hazards like line twists or bag lockups.

Injury statistics

Parachuting, particularly sport skydiving, maintains a low fatality rate compared to other adventure activities, with the Parachute Association (USPA) reporting an average of approximately 0.3 fatalities per 100,000 jumps during the 2010s and 2020s. For instance, in 2023, the rate was 0.27 per 100,000 jumps across 3.65 million USPA-affiliated skydives, while 2024 saw a record low of 0.23 per 100,000 jumps with nine fatalities from 3.88 million jumps. Injuries in skydiving are more frequent than fatalities but remain relatively uncommon, affecting about 5.6% of USPA members annually, with the majority resulting from landing impacts. Ankle fractures represent a significant portion, accounting for 30-60% of all parachuting-related injuries and occurring at rates of 1 to 4.5 per 1,000 jumps, often due to improper foot placement or uneven terrain during touchdown. Spinal injuries, including compression fractures, also arise commonly from hard landings, comprising a notable share of major trauma cases in epidemiological reviews of over 2.1 million jumps. Fatality rates have declined substantially over decades, from an estimated 1 in 7,000 jumps in the 1970s—when annual fatalities averaged 42.5—to the current levels below 1 in 400,000 jumps, largely attributable to advancements like automatic activation devices (AADs) that deploy reserve parachutes at low altitudes. This improvement reflects broader safety enhancements amid increasing jump volumes, with fatalities dropping from over 50 annually in the mid-1970s to under 10 in recent years. In contrast, base jumping exhibits a markedly higher risk profile, with fatality rates around 0.04% per jump—or approximately 1 in 2,500 jumps—based on analyses of over 20,000 jumps from key sites, far exceeding skydiving's rates due to factors like low deployment altitudes and fixed-object proximity.

Competitions

Accuracy events

Accuracy events in parachuting competitions emphasize precision canopy control, where competitors aim to land as closely as possible to a designated target after exiting an and deploying their parachutes. These events test a skydiver's ability to navigate conditions and execute controlled descents, typically involving individual and team formats judged on the distance between the landing point—measured from the —and the target's . Scores are recorded in meters to two decimal places, with the lowest cumulative distance determining the winner; a perfect score of 0.00 meters occurs when the heel contacts the dead . In FAI-sanctioned accuracy competitions, jumps occur from an exit altitude of 1,000 meters (approximately 3,280 feet), with competitors in teams of five exiting sequentially to ensure unobstructed approaches. Parachutes are deployed shortly after exit, allowing approximately 3,000 feet of canopy flight for the approach to the target, which consists of a 2-centimeter-diameter dead center disc embedded in a 16-centimeter electronic sensing pad centrally located within a larger 200-square-meter visible area. Wind drift indicators are released prior to each round to assess conditions, and jumps may be re-run if wind speeds exceed 7.5 m/s at ground level, prioritizing and fairness. Competitors must land on their feet, with falls resulting in maximum penalty scores equivalent to landing outside the target. Techniques in accuracy events rely on high-performance landings (HPL), where skydivers use small, high-aspect-ratio ram-air parachutes with wing loadings of 1.0 or higher to achieve steep glide angles of up to 3:1, enabling precise adjustments for crosswinds and final positioning. These canopies allow for controlled braking with toggles and minimal forward speed at , often incorporating a final "" of 90 degrees or less to align with the target without excessive drift. Canopy control, as refined in techniques, is crucial here for maintaining stability during the low-altitude approach. The premier accuracy events are the FAI World Style and Accuracy Landing Championships, first held in 1951 in , , with five European nations competing to determine the closest landings to a central cross in a 25-meter zone. Since then, these biennial championships have evolved, incorporating electronic scoring and expanding to include junior categories, with over 30 nations participating in recent editions like the 38th in 2024. National teams vie for medals in individual and team accuracy, often alongside style events, fostering international standards in precision parachuting. World records in accuracy , ratified by the FAI, highlight sub-centimeter precision, such as the lowest score after 10 rounds of 0.06 meters set on October 27, 2025, demonstrating cumulative accuracy within centimeters over multiple jumps. Other benchmarks include consecutive dead-center s, like two at 0.00 meters followed by 0.02 meters, underscoring the discipline's demand for flawless execution under varying conditions.

Formation skydiving

Formation skydiving is a team-based competitive in parachuting involving the construction and transition between predefined patterns during freefall, emphasizing precision, speed, and coordination among participants. Teams typically consist of four or eight skydivers, accompanied by a videographer who records the jumps for judging. The two main categories are 4-way sequential formations, where smaller teams focus on rapid execution of complex sequences, and 8-way sequential formations, which involve larger groups building more intricate patterns under increased aerodynamic challenges. In competitions governed by organizations like the (FAI), scoring is based on the number of completed formations, known as blocks or randoms, achieved within a fixed per round. For 4-way events, teams have 35 seconds to perform a drawn sequence of five or six formations from a standardized dive pool, earning one point per valid formation as confirmed by video review. 8-way events extend this to 50 seconds, allowing for more formations but requiring greater to maintain stability. Competitions feature up to 10 rounds, with total points determining rankings, and draws are randomized to test adaptability. Large-scale records highlight the discipline's potential for massive group efforts, such as the FAI-sanctioned 108-way head-down diamond formation achieved in 2009 over , , which remains a benchmark for vertical freefall organization involving over 100 skydivers linking grips in a precise geometric pattern. Training emphasizes relative flying techniques, including secure grips for docking and clean breaks to transition between formations, often practiced in vertical wind tunnels to simulate freefall conditions without altitude risks. These facilities allow teams to refine slot positioning, eye contact, and break timing iteratively, accelerating skill development for competitive performance.

Artistic disciplines

Artistic disciplines in parachuting highlight the creative and performative aspects of freefall, where skydivers execute choreographed routines emphasizing , fluidity, and visual appeal. These events, recognized by the (FAI), transform skydiving into a blend of athleticism and artistry, distinct from speed- or formation-based competitions. Competitions typically involve jumps from at altitudes around 13,000 feet, with performers capturing routines via helmet-mounted cameras for judging. Freestyle skydiving features a solo performer and a videographer who together complete a series of dynamic maneuvers, including spins, flips, and multi-orientation transitions, often evoking elements of and . Routines are performed in a 45-second window, focusing on precise control and innovative sequences. In contrast, freeflying involves two performers and a videographer, emphasizing non-horizontal body positions such as head-down, sit-flying, or stand-up orientations to create flowing, aesthetically driven patterns and rotations. These disciplines originated in the , with freestyle gaining formal structure through FAI rules established in 1994. Judging in artistic events assesses both technical and artistic components, with scores derived from complexity, maneuver difficulty, execution accuracy, and overall presentation, including use of , timing, and visual . Panels of FAI-certified judges video , awarding points on a scale that balances innovation with clean performance; for instance, penalties apply for breaks in or safety violations. Many athletes refine these skills in vertical wind tunnels as a safe training alternative before jumps. Major events include the FAI World Championships in Artistic Events, first held in 1997 in following inaugural World Cups in 1996, which continue biennially to crown international champions. Artistic disciplines also integrated into the starting in 1997, featuring freeflying competitions that broadcast performances to global audiences and elevated the sport's profile through coverage.

Advanced Disciplines

Wingsuit flying

is an advanced parachuting discipline that involves wearing a specialized equipped with fabric membranes to enhance aerodynamic lift and enable extended horizontal during freefall. This technique transforms the skydiver's body into a wing-like structure, allowing for controlled flight paths that significantly increase forward distance compared to traditional freefall. Originating as an evolution within skydiving, wingsuit flying typically begins from an at altitudes of 10,000 to 15,000 feet, where participants deploy parachutes for landing after achieving glides of several miles. The modern wingsuit was pioneered in the mid-1990s by French skydiver Patrick de Gayardon, who adapted and refined earlier designs to create a safer and more performant version that emphasized horizontal flight capabilities. De Gayardon's innovations, tested through numerous jumps including proximity flights near mountain walls, revolutionized the sport by enabling unprecedented control and distance in aerial . His work laid the foundation for contemporary wingsuit designs, influencing commercial production and widespread adoption among skydivers by the late 1990s. Wingsuit design incorporates airtight fabric membranes, often referred to as , stretched between the arms and torso, as well as between the legs, to generate lift similar to a . These suits typically achieve glide ratios of approximately 2:1 to 3:1, meaning a pilot can travel two to three horizontal units for every vertical unit descended, depending on the model's and size. Advanced suits feature ram-air inflated sections for added rigidity, with arm wings spanning up to 10 feet when extended, allowing pilots to maintain stable flight without constant adjustments. In flight, wingsuit pilots employ techniques such as body positioning to control pitch, roll, and yaw, often "surfing" air currents like thermals or to extend glide duration or even gain altitude briefly. Forward speeds commonly reach 100-150 mph during dives, while horizontal speeds stabilize around 60-80 mph in level glides, enabling flights lasting several minutes and covering distances up to 5 miles from a standard jump altitude. Pilots must maintain an optimal to avoid excessive sink rates, transitioning to deployment at around 2,500 feet for safe recovery. Despite its exhilarating nature, carries elevated risks, particularly a higher potential for stalls due to the suit's low-speed handling characteristics. Stalls occur when the angle of attack exceeds critical limits, causing a sudden loss of lift and potential tumbling, which is especially hazardous near the ground—such as within 30-50 feet—where recovery time is minimal. Low-altitude stalls have contributed to numerous fatalities, underscoring the need for extensive (typically 200+ skydives minimum) and strict adherence to altitude .

Base jumping

BASE jumping, a high-risk variant of parachuting, involves leaps from stationary objects rather than , distinguishing it from traditional skydiving. The term "BASE" is an representing the four primary categories of fixed launch points: buildings, antennas (such as towers), spans (like bridges), and (natural formations including cliffs). This activity originated in the 1970s and emphasizes rapid deployment due to the low altitudes involved, often requiring jumpers to deploy their parachutes within seconds of exit to avoid ground collision. Due to its inherent dangers and potential disruption to public spaces, is illegal in many jurisdictions without specific permits, particularly in protected areas like national parks. For instance, , federal regulations under 36 CFR 2.17(a)(3) prohibit parachuting in national parks unless authorized by a permit, with violations leading to fines or imprisonment; similar restrictions apply in urban environments and state lands to mitigate safety risks and environmental impact. Permits, when available, often involve rigorous , environmental assessments, and compliance with local laws, though varies globally, and unauthorized jumps remain common despite the legal barriers. Techniques in BASE jumping prioritize quick and controlled descents given the limited freefall time compared to skydiving. Jumpers typically employ short delays—often 1 to 4 seconds—before deploying the pilot chute to ensure safe canopy inflation at low altitudes, with stowed or handheld deployments common for precision. Proximity flying involves navigating close to the or during freefall to maximize the thrill and control , demanding precise body positioning to avoid obstacles. Tracking techniques further enhance horizontal distance and stability; participants use specialized tracking suits that provide lift through inflated fabric sections while allowing and mobility for steering, enabling greater separation from the launch point before canopy opening. Notable records highlight the sport's extremes, such as the highest BASE jump achieved by in 2016 from Mount Cho Oyu at 7,700 meters (25,262 feet), where he used a wingsuit for an extended glide before parachuting. Some BASE jumps incorporate wingsuit adaptations for enhanced proximity flying, though these are distinct from dedicated wingsuit disciplines.

Freestyle variants

Freestyle variants in parachuting encompass specialized freefall techniques that emphasize acrobatic body positions and maneuvers, distinct from formation-based disciplines by prioritizing individual or paired performance over group configurations. These styles evolved from traditional belly flying in the late , incorporating vertical and angled orientations to achieve greater speed, control, and aesthetic flair during descent. Practitioners typically require advanced training to manage increased fall rates—often exceeding 150 mph—and heightened collision risks, with recommendations for audible altimeters and automatic activation devices. Skysurfing represents an early freestyle innovation, where skydivers attach a small, rigid skyboard to their feet to execute surfing-inspired tricks like spins, flips, and slides in freefall. Developed in 1986 by French skydivers Dominique Jacquet and Jean-Pascal Oron, it gained prominence in the 1990s through video footage and competitions, blending aerial with board sports . The technique demands precise balance, as the board alters stability and requires a neutral body position for deployment; canopies must be oversized for reliable openings due to bound feet. Safety protocols include practicing board handling in wind tunnels and limiting jumps to experienced freeflyers to mitigate entanglement hazards. Tracking, a foundational horizontal maneuver, involves adopting a streamlined body position to generate lateral speed and separation from other jumpers during freefall. Performed by arching the , extending legs, and sweeping arms backward on a belly or head-down orientation, it achieves forward velocities of 20-40 mph relative to the air while minimizing altitude loss. This technique, essential for group jumps, originated as a measure but evolved into a element for distance challenges; proper execution relies on core tension to maintain heading without veering. Sit-flying and head-down orientations form core vertical freefly styles, enabling faster descents and dynamic rotations through seated or inverted postures. In sit-flying, the jumper assumes a head-up seated position with knees bent and arms extended for control, achieving fall rates around 140-160 mph and allowing turns via leg pumps or arm gestures. Head-down flying inverts this, with the jumper facing earthward in a streamlined pose using and adjustments for , often reaching 180 mph or more. Both demand proficiency in neutral recovery to avoid , with sit-flying serving as a precursor to head-down for building stability. Post-2000 developments introduced angle flying, a hybrid orientation blending horizontal tracking with vertical freefly for fluid, multi-plane movement. Emerging in the early and surging in popularity by the , it involves pitching the body at 45-60 degrees—head-first or feet-first—using leg drives and torso tilts to navigate complex paths at speeds blending 100-200 mph components. This style facilitates large-scale formations and has influenced artistic events, though it requires extensive tunnel practice for spatial orientation. Complementing freefall advances, swooping ponds emerged as a canopy-focused variant, where pilots execute high-speed dives and turns over shallow water bodies to maximize glide distance in competitions. Performed with ram-air canopies under 90-100 sq ft, swoops reach ground speeds over 60 mph, emphasizing precision braking to skim surfaces without impact; emphasizes site-specific and progressive downsizing.

Organizations and Venues

International bodies

The (FAI), established in 1905, serves as the global governing body for , including parachuting, where it ratifies world records and establishes international standards. Through its International Skydiving Commission (ISC), the FAI develops rules for disciplines such as accuracy landing and formation skydiving, ensuring uniformity across competitions and promoting safety protocols worldwide. At the national level, organizations like the United States Parachute Association (USPA), founded in 1946, license and train approximately 42,000 members while advocating for rigorous safety practices and equipment standards. Similarly, British Skydiving, the governing body for the since 1961, standardizes training programs and safety regulations for its members, collaborating with the FAI on international matters. The (APF), established in 1960, fulfills a comparable role in by setting professional standards for skydiving operations, licensing participants, and emphasizing to enhance sport safety. These national bodies work in tandem with the FAI to harmonize rules and foster global safety advocacy, occasionally providing input on competition oversight through FAI channels.

Drop zones and facilities

Drop zones, commonly referred to as skydiving centers or DZs, are designated facilities—often situated at small airports or private airstrips—equipped for conducting parachute jumps, including aircraft operations, landing areas, and support infrastructure for skydivers. These sites typically utilize aircraft like the , a reliable single-engine plane capable of carrying up to six skydivers plus a pilot to altitudes of 10,000–14,000 feet, making it the most prevalent jump aircraft in the industry due to its affordability, ease of modification for skydiving, and short-field performance. Essential features of drop zones include dedicated packing areas, known as rigging lofts, where certified parachute riggers inspect, repair, and repack main and reserve canopies to meet (FAA) and USPA standards. The manifest system functions as the central administrative hub, handling load organization, jumper reservations, weather briefings, and coordination between pilots, instructors, and to ensure efficient and safe operations. Safety protocols incorporate strict wind limits; the United States Parachute Association (USPA) Basic Safety Requirements specify maximum average ground winds of 14 for solo students with ram-air parachutes and 7 for round canopies, while experienced skydivers may operate in gusts up to 25 under drop zone-specific guidelines. Globally, drop zones number in the thousands, with the hosting over 200 USPA Group Member facilities that adhere to standardized safety and operational protocols. Prominent examples include Skydive Perris at Perris Valley Airport in , a high-volume operation capable of accommodating 30+ loads per day with up to 24 jumpers per flight, featuring advanced amenities like a high-performance landing area and on-site training programs. For training purposes, indoor vertical wind tunnels serve as controlled alternatives to traditional drop zones, generating upward airflow to simulate freefall and enable body-flight practice without involvement. Facilities like iFLY's network of tunnels, with flight chambers up to 16.5 feet in and wind speeds adjustable to 120–160 miles per hour, are widely used for skill-building in stability, turns, and formations, enhancing before actual jumps.

Records

Individual achievements

Individual achievements in parachuting encompass solo milestones that push the boundaries of human , altitude, and repetition, often serving as benchmarks for technological and physiological limits in high-altitude descents. These records highlight pioneering efforts in freefall dynamics, where jumpers test custom suits, stabilization systems, and recovery parachutes under extreme conditions, contributing to advancements in and space re-entry simulations. One of the seminal records is Joseph Kittinger's 1960 Excelsior III jump from 102,800 feet (31,333 meters), which established the benchmark for longest unsupervised freefall at that time, lasting 4 minutes and 36 seconds before parachute deployment. Conducted as part of the U.S. Air Force's to study high-altitude ejection survival, Kittinger's descent reached speeds over 600 mph and demonstrated the viability of multi-stage parachutes for stabilizing falls from near-space altitudes. This achievement remained a for subsequent stratospheric jumps, influencing designs for pressure suits and chutes. Building on such foundations, Felix Baumgartner's 2012 Red Bull Stratos jump from 127,852 feet (38,969 meters) set the record for the highest altitude skydive until 2014, achieving a vertical speed of 843.6 mph (Mach 1.25) during a 4-minute, 20-second freefall. Suspended from a helium balloon over , Baumgartner became the first to break in freefall without a , validating helmet-mounted stabilizers and full-face visors for supersonic conditions. The mission, supported by the (FAI), advanced data on human tolerance to extreme deceleration and atmospheric re-entry profiles. Alan Eustace surpassed Baumgartner's altitude in 2014 with a jump from 135,890 feet (41,419 meters), achieving the current record for longest freefall distance at 123,414 feet (37,617 meters) over 4 minutes and 27 seconds, reaching 822 mph. As a executive and private stratospheric explorer, Eustace's unpressurized suit ascent via balloon and subsequent plunge provided critical insights into untethered high-altitude stability, with FAI certification emphasizing the role of underarm stabilizers in preventing flat spins. This solo endeavor underscored the shift toward civilian-led extreme altitude research. In terms of cumulative experience, Don Kellner holds the Guinness World Record for the most lifetime skydives, amassing 46,355 jumps by his death in 2021, including over 10,000 tandems. A U.S. Parachute Association (USPA) member since 1961, Kellner's dedication exemplified sustained individual pursuit in sport parachuting, with each jump logged to track equipment evolution and safety protocols over decades. The USPA posthumously recognized his final eight jumps as extending the record, highlighting the rarity of such longevity in a high-risk activity. The 2020s have seen emerging potential for individual achievements tied to , with initiatives like the Hera Rising project planning a women's stratospheric skydive from over 132,000 feet planned for 2026, aiming to set new gender-specific altitude . Companies such as Space Perspective are developing platforms for tourist descents, potentially integrating parachute jumps that could challenge existing freefall benchmarks while broadening access to near-space experiences. These developments build on prior by incorporating commercial reusability and broader participant diversity.

Group formations

Group formations in parachuting represent collaborative achievements where multiple skydivers link arms or legs to build intricate structures during freefall or under canopy, often ratified by the (FAI). These records emphasize precision, timing, and teamwork, with categories including large static formations, sequential builds involving multiple reconfiguration blocks, and canopy-linked patterns. The largest FAI-approved freefall formation record is a 400-way achieved on February 8, 2006, in , , held for 4.3 seconds. Events like World Record Camps, organized by FAI national affiliates such as the United States Parachute Association (USPA), facilitate these attempts by coordinating , , and judges to push the boundaries of group skydiving. A milestone in large formation records was the 144-way diamond achieved by a U.S. team in , on August 8, 1988, where 144 skydivers held the grip for 8.8 seconds, surpassing prior benchmarks and demonstrating advanced relative work techniques. This effort built on earlier successes, such as the 72-way set on April 3, 1983, also by a U.S. team, which established a FAI for the largest freefall formation at the time and highlighted the evolution of group stability in the . In canopy formations, early large-scale attempts in the focused on star patterns under , with records progressing from smaller grips to more complex multi-way links, though the era's pinnacle remained modest compared to freefall scales due to canopy flight limitations. Sequential records test endurance and speed in reconfiguring formations, particularly in 8-way where teams complete predefined blocks within 50 seconds per round. The U.S. Army Golden Knights' GKXP8 team set multiple FAI world at the 2024 World Skydiving Championships in , achieving the highest average of 23.9 points over 10 rounds—equating to over 100 completed blocks across the event—and a single-round high of 30 formations, showcasing hybrid military-civilian precision. These feats build on formation skydiving principles, where jumpers transition between blocks like stars and diamonds without losing integrity. World Record Camps, such as those hosted by USPA at venues like Skydive Chicago, are pivotal for group efforts, drawing international participants for multi-day attempts under FAI oversight. For instance, the 2025 Vertical World Record Camp culminated in a 174-way head-down formation, breaking the prior 164-way mark and involving over 250 jumpers in coordinated jumps from multiple aircraft. These camps not only ratify records but also advance training methodologies for safe, large-scale group flying.

Cultural Impact

In media

Parachuting's adrenaline-fueled nature has made it a staple in cinematic portrayals, often symbolizing risk, freedom, and high-stakes action. The 1991 film , directed by , features iconic skydiving sequences that integrate the sport into the narrative of a thrill-seeking gang, with characters leaping from airplanes over scenic landscapes like . , an experienced skydiver, performed dozens of his own jumps for authenticity, combining real footage with stunt work to capture the exhilaration of freefall and canopy control. The Mission: Impossible franchise further amplifies parachuting's dramatic potential through high-altitude, low-opening (HALO) jumps, most notably in Fallout (2018), where protagonist Ethan Hunt executes a nighttime descent from 25,000 feet into a remote location. Tom Cruise, known for his commitment to practical stunts, completed over 100 such jumps during production, enduring extreme cold and low-oxygen conditions to film the sequence in one continuous take from exit to landing. These scenes highlight advanced military-style parachuting techniques, blending tension with technical precision. The franchise continued this trend in Mission: Impossible – The Final Reckoning (2025), featuring Cruise performing stunts including a descent with a parachute set ablaze, executed 16 times for the film. In literature, parachuting appears in works exploring personal transformation and adventure, such as Leora Freedman's Parachuting (2010), a novel that weaves themes inspired by Israeli paratroopers into a young woman's journey of self-discovery amid life's uncertainties in 1970s America. The story uses the of leaping into the unknown—drawing from military parachuting feats like the Entebbe rescue—to delve into themes of and . Video games have incorporated parachuting mechanics to enhance open-world exploration and mission variety, particularly in the Grand Theft Auto (GTA) series. Starting from GTA: San Andreas (2004), players can deploy parachutes for controlled descents from aircraft, with refined physics in later titles like GTA V (2013) allowing steering, smoke trails, and precise landings. These features enable dynamic gameplay, from evading pursuits to accessing hidden areas, simulating real-world canopy flight while adding tactical depth. Documentaries have chronicled parachuting's extremes, with the 2012 Red Bull Stratos project providing riveting coverage of Felix Baumgartner's record-breaking stratospheric freefall from 128,000 feet. The film Mission to the Edge of Space details the mission's preparation, including capsule design and suit engineering, culminating in the jump that tested human limits in vacuum-like conditions before parachute deployment. This coverage not only documented the event's technical achievements but also inspired global interest in high-altitude parachuting.

Notable participants

Leslie Irvin, an American aviator and parachutist, is recognized for making the world's first premeditated free-fall parachute jump on April 28, 1919, from an altitude of approximately 1,500 feet over McCook Field in , using a ripcord-activated he helped design. This jump marked a pivotal advancement in parachute technology, transitioning from static-line deployments to personal control, and Irvin went on to found the Irvin Air Chute Company, which produced parachutes for military use during . Joseph Kittinger, a U.S. pilot, achieved fame through in the late 1950s and early 1960s, culminating in his record-breaking jump from 102,800 feet on August 16, 1960, where he free-fell for over four minutes and reached speeds exceeding 614 mph, enduring extreme conditions to test high-altitude parachute systems for space missions. His efforts contributed to the development of ejection seats and survival gear, and he later served as a consultant for Felix Baumgartner's Red Bull Stratos project. Felix Baumgartner, an Austrian skydiver, executed the Stratos mission on October 14, 2012, jumping from 127,852 feet aboard a balloon over , achieving a maximum vertical speed of 843.6 mph (Mach 1.25), the first supersonic freefall by a human, along with records for exit altitude and distance traveled during freefall. The (FAI) ratified three of these records, highlighting advancements in high-altitude suit design and pressure management. Alan Eustace, a former executive and pilot, surpassed Baumgartner's altitude record on October 24, 2014, with the StratEx mission, leaping from 135,899 feet attached to a balloon-launched platform, free-falling for 4 minutes and 19 seconds at speeds up to 822 mph, and setting three enduring FAI records for exit altitude, freefall distance (approximately 36 miles), and vertical speed without a chute. This unpublicized jump emphasized minimalist , using a self-contained without a capsule for ascent. In the realm of competitive skydiving, Niklas Daniel of the United States holds the title of FAI World Speed Skydiving Champion as of 2024, having achieved a record vertical speed of over 300 mph in official competitions, contributing to U.S. dominance in the discipline through precise body positioning and equipment optimization. For BASE jumping, a high-risk variant of parachuting from fixed objects, Valery Rozov, a Russian extreme athlete, set the then-record for the highest BASE jump in 2013 by leaping from 7,220 meters (23,688 feet) on Changtse in the Everest massif using a wingsuit, though tragically he died in a 2017 BASE accident; his feats advanced wingsuit technology for proximity flying. Lesley Gale, inducted into the International Skydiving Hall of Fame in 2021, was the first woman to complete 10,000 skydives and served as a pioneering organizer for women's events in formation skydiving, earning multiple gold medals at FAI World Championships and promoting gender inclusivity in the sport over her 40-year career.

References

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