Research · Travel Trends

What Is the Average Flight Altitude? (2026 Data)

How high airliners cruise, how high each type may go, the flight levels by direction, the altitude in the cabin and live snapshots of the aircraft in cruise.

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Key findings

  1. 35,100 feetThe average flight altitude of instrument-rule (IFR) flights above FL200 over Europe was 35,100 feet (FL351) in 2025.
  2. FL380The most-requested cruise level over Europe rose from FL330 in 1995 to FL380 in 2021.
  3. 43,100 feetA passenger Boeing 747-8 is certified to fly no higher than 43,100 feet.
  4. 51,000 feetLarge business jets are certified to 51,000 feet, 11,900 feet above an Airbus A320.
  5. 6,341 feetOn US domestic flights, the cabin reached an average peak altitude of 6,341 feet.
  6. 1,000 feetIn RVSM airspace, FL290 to FL410, aircraft are kept at least 1,000 feet apart vertically.
  7. 99.2%Over US states at 19:32 UTC on September 27, 2026, 99.2% of eastbound aircraft at FL290-FL410 used odd levels.
  8. 35,371 feetAt 19:32 UTC on September 27, 2026, 4,810 cruising aircraft worldwide averaged 35,371 feet.

A jet at cruise sits about 35,100 feet1 (10,698 m2) above sea level, yet the air its passengers breathe is pressurized to what they would feel at around 6,341 feet3 (1,933 m3). Between those two numbers sit the rules, the aircraft limits and the weather layer that decide how high a flight goes.

Altitude matters because it sets how much fuel a flight burns and how the cabin feels. This page follows it from the average cruise level over Europe to the certified ceiling of each airliner, the flight levels that air traffic control hands out, the cabin altitude inside, the atmosphere that caps it all, and a live snapshot of 4,8104 cruising aircraft that we pulled and measured ourselves.

What is the average commercial flight altitude?

Flights over Europe reached an average cruise level of FL351, about 35,100 feet1, in 2025. The figure is the average of the highest level each flight reached in July, counting only flights that climbed above FL200, so it describes airline jets at cruise rather than light aircraft or short hops.1 That is 559 feet1 above 2018, when the average was FL345.1

Pilots and controllers speak in flight levels, not feet. A flight level is the altitude in hundreds of feet, so FL351 means 35,100 feet and FL410 means 41,000 feet.5 Written that way, the average flight altitude in feet is five digits long, while the flight level is three.

Average achieved cruise altitude over Europe, 2018-2025
Highest flight level reached by each instrument-rule (IFR) flight above FL200 in July, averaged over all such flights in the European network area; flight level x 100 = feet; dashed line: linear trend of 2018-2025 to 2050, our calculation, not a forecast (airliners are capped at FL410 in RVSM airspace and by their certified ceilings)
Unit: feet (flight level x 100)

Projection: linear trend of 2018–2025 yearly values, 95% prediction range. Our calculation, not a forecast.

Source: EUROCONTROL Data Snapshot #60 (June 12, 2026); projection our calculation12travelstatisticsbureau.comDownload PNG
What the data shows
  • The average peaked at 35,400 ft (FL354) in 2021.
  • It held at 35,000 ft from 2022 to 2024.
  • It edged up to 35,100 ft (FL351) in 2025.

The series is flat more than rising. The average peaked at FL354 in 2021, when reduced traffic and fewer flow management measures let flights climb higher, then settled at FL350 from 2022 to 2024.1 The small rise in 2025 may reflect the fleet mix: commuter aircraft and regional jets usually top out lower than narrow-body and wide-body jets, and their share of flights over Europe fell from 17%1 in 2018 to 12%1 in 2025.1 The straight line drawn to 2050 is only arithmetic; fitted from 2022 alone it rises less than half as fast, and no airliner can follow it past its certified ceiling.

Traffic mix over Europe, 2018 and 2025
Share of instrument-rule (IFR) flights in the European network area by aircraft class and by flight type; change in percentage points (our calculation)
Unit: percent of flights; percentage points
Narrow-body and wide-body aircraft69%74%+5 points
Short-haul (regional and domestic) flights64%58%-6 points
Commuter aircraft and regional jets17%12%-5 points
Regional jets alone9%6%-3 points
Source: EUROCONTROL Data Snapshot #60 (June 12, 2026); changes our calculation12travelstatisticsbureau.com

Longer flights and heavier planes came with that shift. The average flight covered 730 miles2 (1,175 km1) inside the European network area in 2025, up from 652 miles2 in 2018; flights that start or end outside the area fly farther in total.1 It passed through 3.71 countries on average, and nearly one in three flights crossed French airspace.1 The total number of flights was still lower in 2023 than before the pandemic, 10.2 million6 against 11.0 million6 in 2018.6

Average flight distance over Europe, 2018-2025
Distance flown inside the European network area per instrument-rule (IFR) flight, all flights, yearly; miles converted from kilometers (our calculation); dashed line: linear trend of 2018-2025 to 2050, our calculation, not a forecast
Unit: miles (1 mi = 1.609 km)

Projection: linear trend of 2018–2025 yearly values, 95% prediction range. Our calculation, not a forecast.

Source: EUROCONTROL Data Snapshot #60 (June 12, 2026); conversion and projection our calculation12travelstatisticsbureau.comDownload PNG
What the data shows
  • The average flight fell to 610 mi in 2020.
  • It rose every year after that, to 730 mi in 2025.

The planes themselves got bigger. The average maximum takeoff weight reached 90.9 tonnes1 (200,400 lb2) in 2025, 4.5 tonnes1 more than in 2018.1 The Boeing 737-800 and the Airbus A320, both with maximum takeoff weights of 70 to 80 tonnes, were the two most common types every year from 2018 to 2025, and in 2025 the heavier A321neo, at 97 tonnes1, became the fourth most common type for the first time.1

Average maximum takeoff weight per flight over Europe, 2018-2025
Average maximum takeoff weight (MTOW) of instrument-rule (IFR) flights in the European network area, yearly; thousand pounds converted from tonnes (our calculation); dashed line: linear trend of 2018-2025 to 2050, our calculation, not a forecast
Unit: thousand pounds (1 tonne = 2,204.62 lb)

Projection: linear trend of 2018–2025 yearly values, 95% prediction range. Our calculation, not a forecast.

Source: EUROCONTROL Data Snapshot #60 (June 12, 2026); conversion and projection our calculation12travelstatisticsbureau.comDownload PNG
What the data shows
  • The lowest average, 188.1k lb, came in 2021.
  • The 2025 average, 200.4k lb, was the highest of the series.

More seats came with the weight. Passenger flights averaged 184 seats1 in 2025, one more than in 2024 and 111 more than in 2018; the count leaves out military, cargo and business flights.1 Jets operate most efficiently at higher altitudes.6

Average seats per flight over Europe, 2018-2025
Seats per instrument-rule (IFR) passenger flight in the European network area, yearly; military, cargo, business aviation and other segments left out; dashed line: linear trend of 2018-2025 to 2050, our calculation, not a forecast
Unit: seats per flight

Projection: linear trend of 2018–2025 yearly values, 95% prediction range. Our calculation, not a forecast.

Source: EUROCONTROL Data Snapshot #60 (June 12, 2026); projection our calculation12travelstatisticsbureau.comDownload PNG
What the data shows
  • Seats per flight dipped to 172 in 2020.
  • They have risen every year since, to 184 in 2025.

Airlines have been asking for higher levels for a long time. In September 1995 only 6%7 of flights over Europe asked to cruise above FL350; by September 2021 that share was 40%7, a rise of 34 percentage points2. The most-requested level climbed from FL330 to FL380, 5,000 feet7 higher.7

Requested cruise levels over Europe, September 1995, 2000 and 2021
Cruise levels written in flight plans (requests, not levels actually flown), all flights in the European network area in September: share requesting a level above FL350, share requesting exactly FL350, and the most-requested level; not published = no value given for that year
Unit: percent of flights; flight level (feet)
19956%not publishedFL330 (33,000 ft)
2000not published13%not published
202140%not publishedFL380 (38,000 ft)
Source: EUROCONTROL Data Snapshot, 9 November 20217travelstatisticsbureau.com

Two changes pushed the requests up. In the early 2000s, better altimeters let the upper airspace switch from 2,000-foot to 1,000-foot vertical spacing, which opened six new flight levels up to FL400 and spread traffic that had crowded onto FL350. Then airlines bought newer jets built to cruise efficiently higher up.7 By 2021, demand was growing even at FL410 and FL430, especially over the North Atlantic.7

How high each of those jets is allowed to go is written into its certificate.

How high can each airliner fly?

Every airliner has a certified maximum operating altitude, the ceiling it may never exceed. It is a limit, not the height where the plane normally cruises. An Airbus A320 is certified to 39,100 feet8, a Boeing 737 Next Generation or 737 MAX to 41,000 feet9, and the Boeing 787-8 and 787-9 to 43,100 feet10. The stretched 787-10 stops lower, at 41,100 feet10.

Large business jets sit in a class of their own: the Gulfstream G650, G700 and G800 and the Bombardier Global 5000 and 6000 families are all certified to 51,000 feet11 (15,545 m11), 11,900 feet2 above the A320.12

Certified maximum operating altitude by aircraft type
Maximum operating altitude in each aircraft's type-certificate data sheet (standard aircraft, without optional modifications); a ceiling, not the usual cruise level; ranked
Unit: feet, pressure altitude
  1. Gulfstream G650 / G700 / G80051,000 ft
  2. Bombardier Global 5000 / 6000 / 650051,000 ft
  3. Boeing 747-40045,100 ft
  4. Boeing 747-8 (passenger)43,100 ft
  5. Boeing 787-8 / 787-943,100 ft
  6. Boeing 767 (all models)43,100 ft
  7. Boeing 787-1041,100 ft
  8. Boeing 737 NG and MAX41,000 ft
  9. Embraer E170 / E17541,000 ft
  10. Airbus A320 and A32139,100 ft
Source: European Union Aviation Safety Agency type-certificate data sheets EASA.A.064 (Issue 62), IM.A.120 (Issue 30), IM.A.115 (Issue 30), IM.A.035 (Issue 11), IM.A.196 (Issue 19), IM.A.001 (Issue 13), IM.A.169 (Issue 17), IM.A.009 (Issue 14)11121310149158travelstatisticsbureau.comDownload PNG
What the data shows
  • Business jets top the list at 51,000 ft.
  • The Boeing 747-400 is the highest airliner at 45,100 ft.
  • The A320 and A321 ceiling, 39,100 ft, is 6,000 ft below the 747-400.

The ceilings sit well above the average cruise level. Even the lowest one on the chart, 39,100 feet8, leaves about 4,000 feet2 of headroom over the 2025 European average, and the 747-400 has about 10,000 feet2. In busy airspace, the most efficient levels are not always available, so flights often cruise below what their aircraft could reach.16

The A320 family shows how a ceiling can change within one model. The standard A320 is certified to 39,100 feet8, or 39,800 feet8 with an optional modification; only the ACJ320neo, the corporate-jet version, has an optional modification that extends the envelope to 41,000 feet8. The smaller A318 starts higher, at 39,800 feet8.

Airbus A320 family: certified ceiling by model and modification
Maximum operating altitude, standard and with optional design modifications (modification numbers as in the data sheet); some modifications apply to certain sub-models only
Unit: feet, pressure altitude
A31839,800 ft41,100 ft (mod 39195)A318-111 and -112 only
A31939,100 ft41,100 ft (mod 28162)A319-112, -115, -132 and -133 only
A32039,100 ft39,800 ft (mod 30748); 41,000 ft (mod 162744)mod 30748: A320 models with it; mod 162744: ACJ320neo corporate jet (A320-251N, -271N, -272N) only
A32139,100 ft39,800 ft (mod 30748)A321 models with the modification
Source: European Union Aviation Safety Agency, TCDS EASA.A.064, Issue 62 (June 26, 2026)8travelstatisticsbureau.com

How high can a Boeing 747 fly?

No official series gives the average flight altitude of a Boeing 747; what its data sheet gives is a ceiling, and there is no single one: it depends on the model. The passenger 747-8 is certified to 43,100 feet13 (13,137 m13). The 747-400 and every earlier model, from the 747-100 to the 747SP, are certified 2,000 feet2 higher, to 45,100 feet13, the highest airliner ceiling on this page.13 The freighter 747-8F stops at 42,100 feet13, 3,000 feet2 below the 747-400. Like other airliners, a 747 normally cruises below its ceiling.

Boeing 747 certified ceiling by model
Maximum operating altitude in the type-certificate data sheet; passenger and freighter models labelled; meters for the 747-8F are our conversion (the data sheet's meter figure repeats the 747-8 value)
Unit: feet and meters, pressure altitude
747-100, -200, -300, 747SPpassenger and freighter45,100 ft13,750 m
747-400passenger45,100 ft13,750 m
747-400Ffreighter45,100 ft13,750 m
747-8passenger43,100 ft13,137 m
747-8Ffreighter42,100 ft12,832 m
Source: European Union Aviation Safety Agency, TCDS IM.A.196, Issue 19 (December 17, 2024); 747-8F meters our conversion132travelstatisticsbureau.com

A ceiling says what a plane can do. Which level it actually gets depends on the rules of the sky.

The rules that set cruise altitude

Above FL290, much traffic flies in Reduced Vertical Separation Minimum airspace, or RVSM. There, between FL290 and FL410, controllers keep aircraft at least 1,000 feet17 apart vertically.17 Eastbound flights, on a magnetic course of 0 to 179 degrees, take the odd levels (FL290, FL310 up to FL410); westbound flights, on 180 to 359 degrees, take the even ones (FL300 up to FL400). Each direction therefore gets a level every 2,000 feet5, and the two directions interleave.5

The table lists all 13 levels and how many aircraft were cruising on each one in our live snapshot. Seven are odd and six are even. The three busiest levels, FL350, FL360 and FL370, held 1,9022 of the 4,8104 cruising aircraft at that one instant, 39.5%2 of the total.

The 13 cruise levels of RVSM airspace, FL290-FL410
Flight levels by direction under the RVSM rule (magnetic course 0-179 degrees = eastbound, 180-359 = westbound) and the number of cruising aircraft on each level worldwide in one live snapshot (one instant, 19:32 UTC on September 27, 2026; altitude rounded to the nearest 1,000 ft; our calculation)
Unit: flight level; feet; aircraft (count)
FL29029,000 fteastbound (odd)58
FL30030,000 ftwestbound (even)136
FL31031,000 fteastbound (odd)113
FL32032,000 ftwestbound (even)171
FL33033,000 fteastbound (odd)319
FL34034,000 ftwestbound (even)426
FL35035,000 fteastbound (odd)617
FL36036,000 ftwestbound (even)651
FL37037,000 fteastbound (odd)634
FL38038,000 ftwestbound (even)401
FL39039,000 fteastbound (odd)315
FL40040,000 ftwestbound (even)175
FL41041,000 fteastbound (odd)212
Source: 14 CFR 91.179(b)(4) and Part 91 Appendix G; aircraft counts: OpenSky Network live state vectors, one snapshot at 19:32 UTC on September 27, 2026; our calculation51742travelstatisticsbureau.com

Below FL290 the same east-odd, west-even idea applies with different steps. Under 18,000 feet, instrument flights use odd or even thousands of feet (such as 5,000 or 6,000 feet), and visual flights add 500 feet (such as 5,500 or 6,500 feet).18 From 18,000 feet up to FL290, instrument flights use odd levels such as FL190, FL210 and FL230 eastbound and even levels such as FL180, FL200 and FL220 westbound.5 Jets pass through these levels on the climb, and shorter flights often cruise there.

Cruise levels from FL200 to FL280 and the aircraft on them
Flight levels below RVSM airspace by direction under the instrument-flight rule for 18,000 ft to FL290, and the cruising aircraft on each level in the same live snapshot (one instant, 19:32 UTC on September 27, 2026; FL200 counts only aircraft at or above 20,000 ft; our calculation)
Unit: flight level; feet; aircraft (count)
FL20020,000 ftwestbound (even)29
FL21021,000 fteastbound (odd)26
FL22022,000 ftwestbound (even)27
FL23023,000 fteastbound (odd)37
FL24024,000 ftwestbound (even)49
FL25025,000 fteastbound (odd)44
FL26026,000 ftwestbound (even)27
FL27027,000 fteastbound (odd)51
FL28028,000 ftwestbound (even)70
Source: 14 CFR 91.179(b)(2); aircraft counts: OpenSky Network live state vectors, one snapshot at 19:32 UTC on September 27, 2026; our calculation542travelstatisticsbureau.com

Only 3602 cruising aircraft sat on the nine levels from FL200 to FL280, fewer than on FL350 alone. Where RVSM does not apply above FL290, the spacing doubles: each direction gets a level every 4,000 feet5, starting at FL290 eastbound and FL310 westbound.5 That leaves 72 levels between FL290 and FL410 instead of 13, which is why the switch to RVSM added capacity.

Vertical spacing by airspace regime
Derived from the level lists: level gap = gap between adjacent levels (both directions), one-way gap = spacing between levels in one direction, and levels available from FL290 to FL410 (our count from the rule; the 1,000 ft RVSM minimum is stated in Appendix G)
Unit: feet; number of flight levels
Instrument flight below FL29018,000 ft to FL2901,000 ft2,000 ftnot applicable
RVSM airspaceFL290 to FL4101,000 ft2,000 ft13
Non-RVSM airspaceFL290 and above2,000 ft4,000 ft7
Source: 14 CFR 91.179(b)(2)-(4) and Part 91 Appendix G; derived from the level lists (our calculation)5172travelstatisticsbureau.com

Do pilots actually follow the direction rule? The rule above is the US one, so we checked it over the United States only, in the same live snapshot, one instant at 19:32 UTC on September 27, 2026. We kept aircraft over US states flying clearly east or west (true track 20 to 160 or 200 to 340 degrees, to allow for the gap between true and magnetic north) and sitting within 150 feet of a round level. Between FL290 and FL410, 7102 of 7162 eastbound aircraft, 99.2%2, were on odd levels, and 99.0%2 of westbound aircraft sat on even ones.4

Direction of flight and odd or even level over the United States
Cruising aircraft over US states within 150 ft of a round flight level, by direction (true track 20-160 degrees = eastbound, 200-340 = westbound) and band; one snapshot, one instant, 19:32 UTC on September 27, 2026; our calculation
Unit: aircraft (count); percent of aircraft in the row
FL290-FL410Eastbound716710699.2%
FL290-FL410Westbound68676791.0%
FL200-FL280Eastbound105941189.5%
FL200-FL280Westbound11621141.7%
Source: OpenSky Network live state vectors, one snapshot at 19:32 UTC on September 27, 2026; our calculation42travelstatisticsbureau.com

The rules decide where the plane flies. Inside it, passengers experience a very different altitude.

Cabin altitude: the height passengers feel

An airliner's cabin is pressurized, so the air inside matches a much lower altitude than the one outside. The US design rule for transport aircraft sets the limit: under normal operation, the cabin pressure altitude may not exceed 8,000 feet19 (2,438 m3).19

Measured on real flights, the cabin sits below that limit on average but not always. Altimeters carried on 2073 US domestic flights recorded an average peak cabin altitude of 6,341 feet3. Peaks were highest on the Airbus A319, at 7,584 feet3, and lowest on small turboprops.

Peak cabin altitude by aircraft type on US domestic flights
Mean peak cabin altitude measured in flight, US domestic flights measured 2005-2011, aircraft types with 6 or more flights measured (flights in brackets); ranked
Unit: feet, cabin pressure altitude
  1. Airbus A319 (9)7,584 ft
  2. Airbus A320 (7)7,310 ft
  3. Boeing 737 (81)7,250 ft
  4. Boeing 767 (10)6,372 ft
  5. MD-80 (18)6,310 ft
  6. Boeing 757 (42)6,045 ft
  7. Embraer ERJ 145/170 (6)5,177 ft
  8. Bombardier CRJ (18)4,672 ft
  9. Bombardier Q200/400/800 (8)4,219 ft
Source: Hampson et al., Aviation, Space, and Environmental Medicine, 2013, Table I3travelstatisticsbureau.comDownload PNG
What the data shows
  • The Airbus A319 cabin peaked highest, at 7,584 ft.
  • Boeing 737 cabins averaged 7,250 ft over 81 flights.
  • The Q-series turboprops peaked at 4,219 ft, 3,365 ft below the A319.

Aircraft class explains much of the spread. Large jets averaged 6,819 feet3, regional jets 4,798 feet3 and turboprops 2,949 feet3. Large jets also flew much longer trips, an average of 1,371 miles3 against 151 miles3 for turboprops, and cabin altitude rose with flight distance.3

Peak cabin altitude and flight distance by aircraft class
US domestic flights measured with a cabin altimeter, 2005-2011; mean and standard deviation (SD) of the peak cabin altitude, mean flight distance, and flights whose cabin went above 8,000 ft
Unit: flights (count); feet; miles (see columns)
All flights2076,341 ft1,813 ft1,189 mi20 (9.7%)
Large commercial jets1706,819 ft1,265 ft1,371 mi19 (11.2%)
Regional jets244,798 ft2,262 ft468 mi1 (4.2%)
Turboprops132,949 ft1,905 ft151 mi0
Source: Hampson et al., Aviation, Space, and Environmental Medicine, 2013, Table I3travelstatisticsbureau.com

Short hops and long trips

Distance is the cleanest dividing line. On flights of 750 miles or less, the peak cabin altitude averaged 5,160 feet3; on longer flights it averaged 7,085 feet3. Cabin altitude rose with distance up to 750 miles and then leveled off.3 The study did not record how high the planes themselves flew, and no US series publishes the average domestic flight altitude, so these figures describe what passengers feel on US trips, not the height of the aircraft.

Cabins have also crept higher over time. A 1988 study of 2043 commercial flights found an average peak cabin altitude of 5,673 feet3, 668 feet2 below the 2005-2011 figure.3 About 10%3 of flights in the newer study went above the 8,000-foot limit, peaking at no more than 8,549 feet3, and 183 of those 203 flights were on Boeing 737s.

Peak cabin altitude by flight distance and over time
US domestic flights measured 2005-2011; mean and standard deviation (SD) of the peak cabin altitude in each group; the 1988 study measured 204 commercial flights
Unit: flights (count); feet (see columns)
Flights of 750 miles or less (2005-2011)805,160 ft2,290 ft
Flights over 750 miles (2005-2011)1277,085 ft801 ft
All flights, 2005-2011 study2076,341 ft1,813 ft
All flights, 1988 study2045,673 ft2,057 ft
Source: Hampson et al., Aviation, Space, and Environmental Medicine, 2013 (including the 1988 comparison it reports)3travelstatisticsbureau.com

The 8,000-foot figure is only the first of several cabin limits. If the pressurization system fails, the design rule caps what occupants may be exposed to, and a warning must reach the crew once the cabin passes 10,000 feet19.19

Cabin pressure altitude limits for transport aircraft
Design limits for pressurized cabins of transport-category airplanes (airports at 8,000 ft or higher have their own provision)
Unit: feet, cabin pressure altitude
Normal operation8,000 ftany time
Crew warning must trigger above10,000 fton reaching it
After a probable pressurization failure (aircraft certified above 25,000 ft)15,000 ftany time
After a decompression not shown to be extremely improbable25,000 ftmore than 2 minutes
After a decompression not shown to be extremely improbable40,000 ftany duration
Source: 14 CFR 25.84119travelstatisticsbureau.com

From the cabin back outside, to the ceiling that no rule sets: the atmosphere itself.

Why planes don't fly much higher

Airliners cruise in the upper part of the troposphere, the lowest layer of the atmosphere, where almost all weather happens.20 Its top, the tropopause, is not flat. It lies about 11 to 12 miles (18 to 20 km20) up at the equator, 5.5 miles (9 km) at 50 degrees north or south, and just under 4 miles (6 km) over the poles.20 In feet, that is roughly 62,300 feet2 at the equator but only about 29,500 feet2 at 50 degrees, the latitude of Frankfurt or Vancouver, so over northern Europe and Canada a jet at FL350 can cruise at or above the tropopause.

Height of the tropopause by latitude
Top of the troposphere; equator = midpoint of the 59,000-65,600 ft range (18-20 km); 50 degrees (9 km) and poles (6 km) converted from kilometers (our calculation)
Unit: feet above the surface
  1. Equator62,300 ft
  2. 50 degrees north or south29,500 ft
  3. Poles19,700 ft
Source: National Oceanic and Atmospheric Administration, Layers of the Atmosphere; conversions our calculation202travelstatisticsbureau.comDownload PNG
What the data shows
  • The tropopause over the equator, 62,300 ft, is about 3.2 times its height over the poles.
  • At 50 degrees it sits near 29,500 ft, 32,800 ft lower than over the equator.

The air gets colder with height all the way up the troposphere, from an average of about 62°F20 at the surface to -60°F20 (-51°C20) at the tropopause.20 Above it, in the stratosphere, temperature rises with height again.20 The retired supersonic Concorde cruised between 55,000 and 60,000 feet21 at twice the speed of sound.21

From a certification sheet and a weather layer to a picture of the whole sky at one moment.

Checking the numbers ourselves: a live worldwide snapshot

At 19:32 UTC on September 27, 2026, we pulled every aircraft position then tracked by a crowdsourced network of ground receivers that pick up the position broadcasts aircraft send out: 12,4724 aircraft in all.22 We kept those in level cruise, at 20,000 feet or higher and climbing or descending no faster than about 200 feet a minute, and left out one high-altitude balloon. That left 4,8104 aircraft at that one instant.

Their mean cruise altitude was 35,371 feet2 (10,781 m2) and the median 36,000 feet2, within 271 feet2 and 900 feet2 of the 2025 European average.4 More than half, 53.5%2, were between 35,000 and 39,999 feet.

Cruising aircraft by altitude band, worldwide snapshot
Aircraft in level cruise at 20,000 ft or higher, one instant, 19:32 UTC on September 27, 2026; 4,810 aircraft, standard deviation 4,404 ft, range 20,000-47,025 ft; in band order; our calculation
Unit: percent of cruising aircraft
  1. 20,000-24,999 ft3.6%
  2. 25,000-29,999 ft5.3%
  3. 30,000-34,999 ft25.3%
  4. 35,000-39,999 ft53.5%
  5. 40,000-44,999 ft10.3%
  6. 45,000 ft and above1.9%
Source: OpenSky Network live state vectors, one snapshot at 19:32 UTC on September 27, 2026; our calculation42travelstatisticsbureau.comDownload PNG
What the data shows
  • 53.5% of cruising aircraft were at 35,000-39,999 ft.
  • Only 1.9% were at 45,000 ft or higher.
  • Together, 30,000-39,999 ft held 78.8% of aircraft.

The official figure and the snapshot measure different things, so the table sets them side by side with their scope. The European figure is a July average of each flight's highest level;1 the snapshot is one instant, weighted toward areas with many receivers, such as the US and Europe. Counting every aircraft above 20,000 feet, including those still climbing or descending, pulls the snapshot down to 33,835 feet2.

Cruise altitude: official European figure and our snapshot
Each estimate with what it measures and how many flights it covers
Unit: feet; aircraft or flights (count)
IFR flights over Europe, 2025highest level reached per flight, July, flights above FL200July flights above FL200 (count not published)35,100 ft
Snapshot mean, level cruiseone instant (19:32 UTC, Sep 27, 2026), worldwide, 20,000 ft or higher4,81035,371 ft
Snapshot median, level cruiseone instant (19:32 UTC, Sep 27, 2026), worldwide, 20,000 ft or higher4,81036,000 ft
Snapshot mean, all aircraft above 20,000 ftsame instant; includes aircraft climbing or descending6,27933,835 ft
Source: EUROCONTROL Data Snapshot #60; OpenSky Network live state vectors, one snapshot at 19:32 UTC on September 27, 2026; our calculation142travelstatisticsbureau.com

In the same single snapshot, aircraft cruising at 150-299 knots over the ground averaged 25,357 feet2; those at 500-699 knots averaged 36,505 feet2, 11,148 feet2 higher. We left out 362 aircraft broadcasting impossible ground speeds (under 150 or 700 knots and more) for this comparison only; their altitudes stay in every other figure. Ground speed includes the wind, so a jet with a strong tailwind can land in a faster band. The snapshot is weighted toward areas with many receivers, so the bands describe the aircraft it caught, not the world fleet.

Cruise altitude by ground speed, worldwide snapshot
Mean altitude of aircraft in level cruise at 20,000 ft or higher by ground speed band; one snapshot, one instant, 19:32 UTC on September 27, 2026 (aircraft in brackets); receiver-weighted sample; 36 aircraft broadcasting impossible ground speeds (under 150 or 700+ kt) left out; in speed order; our calculation
Unit: feet, barometric altitude
  1. 150-299 knots (150)25,357 ft
  2. 300-399 knots (437)34,140 ft
  3. 400-449 knots (1,619)35,356 ft
  4. 450-499 knots (1,978)36,093 ft
  5. 500-699 knots (590)36,505 ft
Source: OpenSky Network live state vectors, one snapshot at 19:32 UTC on September 27, 2026; our calculation42travelstatisticsbureau.comDownload PNG
What the data shows
  • Aircraft at 150-299 knots cruised at 25,357 ft.
  • Those at 500-699 knots cruised at 36,505 ft.
  • The fastest band flew 11,148 ft higher than the slowest.

By latitude, the same instant gives these means. Aircraft within 15 degrees of the equator cruised at 35,803 feet2, those between 30 and 45 degrees, the busiest band with 2,9142 aircraft, at 35,214 feet2, and the 392 aircraft more than 60 degrees from the equator at 35,818 feet2. Receivers see aircraft only within line of sight and are sparse near the equator and in the far north; there they catch high aircraft from farther away than low ones, so these bands describe the aircraft the snapshot caught and should not be read as a comparison of places.22

Cruise altitude by latitude, worldwide snapshot
Mean altitude of aircraft in level cruise at 20,000 ft or higher by distance from the equator (north or south); one snapshot, one instant, 19:32 UTC on September 27, 2026 (aircraft in brackets); receiver coverage is thin at low and high latitudes, where high aircraft are picked up more easily, so bands are not comparable; in latitude order; our calculation
Unit: feet, barometric altitude
  1. 0-15 degrees (136)35,803 ft
  2. 15-30 degrees (614)35,664 ft
  3. 30-45 degrees (2,914)35,214 ft
  4. 45-60 degrees (1,103)35,553 ft
  5. 60-90 degrees (39)35,818 ft
Source: OpenSky Network live state vectors, one snapshot at 19:32 UTC on September 27, 2026; our calculation42travelstatisticsbureau.comDownload PNG
What the data shows
  • Near the equator, the 136 aircraft caught cruised at 35,803 ft.
  • At 30-45 degrees, the busiest band, 2,914 aircraft cruised at 35,214 ft.

Cruise altitude over each US state

One instant leaves too few aircraft over each state for a map, so we pulled the same worldwide feed 1623 times on September 27, 2026: at 19:32 UTC and then about every 15 minutes from 20:17 to 23:47 UTC, US afternoon and evening. With the same cruise filter, and leaving out balloons, gliders and anything slower than 150 knots, the snapshots caught 31,4532 positions of aircraft cruising over US states and Puerto Rico, 8,0612 different aircraft.23 The mean over all of them was 34,749 feet2.

The map shades a state only where at least 300 positions were caught and the 95% confidence interval of its mean reaches less than one legend step either side of the mean (at most plus or minus 726 feet2); 362 states pass. The highest mean was over Wyoming, 36,370 feet2, and the lowest over Pennsylvania, 33,061 feet2. The ground receivers behind the feed see aircraft only within line of sight, about 100 to 500 km, and are unevenly spread, so in remote areas low aircraft are more easily missed than high ones.22 A few hours of one afternoon are also not a full day or season, so the map describes those hours only.

Cruise altitude over each US state, 16 live snapshots
Mean altitude of aircraft in level cruise at 20,000 ft or higher over each US state and Puerto Rico; our calculation from 16 snapshots, September 27, 2026, 19:32-23:47 UTC (31,453 positions); balloons, gliders and aircraft under 150 knots left out; shaded only where at least 300 positions and the 95% confidence interval reaches less than one legend step either side of the mean (at most ±726 ft); receiver coverage is uneven, so low aircraft are under-counted in remote areas
Unit: feet, barometric altitude
Alabama: 34,300 ftAlaska: no dataArizona: 34,363 ftArkansas: 35,096 ftCalifornia: 33,225 ftColorado: 35,411 ftConnecticut: no dataDelaware: no dataDistrict of Columbia: no dataFlorida: 34,119 ftGeorgia: 35,097 ftHawaii: no dataIdaho: 35,639 ftIllinois: 34,828 ftIndiana: 33,488 ftIowa: 35,279 ftKansas: 35,691 ftKentucky: 34,774 ftLouisiana: 34,589 ftMaine: no dataMaryland: no dataMassachusetts: no dataMichigan: 34,455 ftMinnesota: 34,989 ftMississippi: 35,080 ftMissouri: 35,423 ftMontana: no dataNebraska: 36,107 ftNevada: 35,852 ftNew Hampshire: no dataNew Jersey: no dataNew Mexico: 35,300 ftNew York: 33,468 ftNorth Carolina: 34,847 ftNorth Dakota: no dataOhio: 34,266 ftOklahoma: 34,661 ftOregon: 35,483 ftPennsylvania: 33,061 ftRhode Island: no dataSouth Carolina: 34,935 ftSouth Dakota: 35,831 ftTennessee: 34,801 ftTexas: 33,928 ftUtah: 35,681 ftVermont: no dataVirginia: 34,225 ftWashington: no dataWest Virginia: 33,837 ftWisconsin: 34,127 ftWyoming: 36,370 ftMDVTNHMANJCTDERIDCTX33,928 ftCA33,225 ftNM35,300 ftAZ34,363 ftNV35,852 ftCO35,411 ftWY36,370 ftOR35,483 ftUT35,681 ftMN34,989 ftID35,639 ftKS35,691 ftNE36,107 ftSD35,831 ftOK34,661 ftMO35,423 ftGA35,097 ftFL34,119 ftMI34,455 ftIL34,828 ftIA35,279 ftWI34,127 ftAR35,096 ftAL34,300 ftNC34,847 ftNY33,468 ftMS35,080 ftLA34,589 ftPA33,061 ftTN34,801 ftOH34,266 ftVA34,225 ftKY34,774 ftIN33,488 ftSC34,935 ftMTAKNDWAMEHI
Source: OpenSky Network live state vectors, repeated snapshots on September 27, 2026 (times in UTC); our calculation232travelstatisticsbureau.comDownload PNG
What the data shows
  • Wyoming had the highest mean, 36,370 ft.
  • Pennsylvania had the lowest, 33,061 ft.

Across the 16 snapshots, the mean cruise altitude over the United States stayed between 34,591 feet2 and 34,948 feet2, while the number of aircraft cruising over US states and Puerto Rico at one instant ranged from 1,7692 to 2,0562.23

Mean cruise altitude over the United States, snapshot by snapshot
Mean altitude of aircraft in level cruise at 20,000 ft or higher over US states and Puerto Rico in each snapshot, September 27, 2026, time in UTC; first gap 45 minutes, then 15; each snapshot mean is only about ±220 ft (95%), so the differences are mostly sampling noise; our calculation
Unit: feet, barometric altitude
Source: OpenSky Network live state vectors, repeated snapshots on September 27, 2026 (times in UTC); our calculation232travelstatisticsbureau.comDownload PNG
What the data shows
  • The highest snapshot mean, 34,948 ft, came at 20:47 UTC.
  • The US mean moved within 357 ft all afternoon.

What altitude means for your flight

For the average flight over Europe, the numbers add up to a clear picture. It climbs to about 35,100 feet1, several thousand feet below a ceiling of 39,100 feet8 or 41,000 feet9 on the most common jets, and it holds a level chosen by direction: odd levels eastbound, even levels westbound, 1,000 feet17 from the traffic above and below.

For your body, the cabin matters more than the plane. On a long domestic flight the cabin sits around 7,085 feet3, close to the 8,000-foot19 design limit, while a short regional hop stays far lower. The cabin figures come from US domestic trips; no figure on this page isolates the average altitude of an international flight, although the European average covers many flights that cross borders.

For the planet, altitude is a fuel question. The extra flight levels opened in European upper airspace save more than 300,000 tonnes7 of fuel a year by one estimate, almost 1 million tonnes7 of CO2.

FAQ

At what height does a flight fly?

Usually between 30,000 and 40,000 feet: in our worldwide snapshot at 19:32 UTC on September 27, 2026, 78.8% of cruising aircraft were at 30,000 to 39,999 feet, and over Europe the average flight reached FL351, about 35,100 feet, in 2025.1 4

How high is a passenger jet allowed to fly?

Its certified maximum operating altitude: for example 39,100 feet for an Airbus A320,8 41,000 feet for a Boeing 7379 and 45,100 feet for a Boeing 747-400.13

Why do eastbound and westbound flights fly at different levels?

So that opposite-direction traffic is always separated: eastbound flights take odd levels and westbound flights even levels, 1,000 feet apart in RVSM airspace.5

How high is the cabin pressurized to?

No higher than 8,000 feet in normal operation; measured flights averaged a peak of about 6,300 feet.3

Is the cabin altitude higher on long flights?

Yes, on the US domestic flights measured: flights over 750 miles peaked at about 7,100 feet in the cabin, against about 5,200 feet on shorter ones.3

Conclusions

  1. Cruise altitude has settled, but demand keeps rising. The average flight over Europe has stayed between 35,000 and 35,400 feet since 2020 and reached 35,100 feet1 in 2025, yet 40%7 of flights already asked for more than FL350 in 2021. In busy airspace the best levels are not always free.16
  2. Airliners cruise well below their ceilings. The gap between the European average and the A320's 39,100 feet8 is about 4,000 feet2; for a 747-400 it is about 10,000 feet2. A certified ceiling tells you what a plane can do, not where you will fly.
  3. The direction rule is visible from the ground. Over US states at one instant, 99.2%2 of eastbound aircraft between FL290 and FL410 sat on odd levels, the pattern the US rule predicts.
  4. Your body lives at about 6,000 to 7,000 feet. The measured cabin averaged 6,341 feet3, with longer flights near 7,085 feet3, and it sits 668 feet2 above the average found in a 1988 study.
  5. Our snapshot mean sits close to the European average. Our worldwide snapshot mean of 35,371 feet2 sits within 271 feet2 of it. The two measure different things, but both point to about 35,000 feet for a typical airliner at cruise.

Methodology

  • Europe: average flight, every year 2018-2025; requested cruise levels September 1995, 2000 and 2021.
  • Aircraft: certified ceilings of the main airliner and business-jet types in force on 2026-11-06.
  • United States: flight-level rules and cabin limits in force on 2026-11-04; cabin altitude measured on 207 domestic flights, 2005-2011 (published 2013).
  • Worldwide: one live snapshot of 4,810 cruising aircraft at 19:32 UTC on 2026-09-27.
  • United States and Puerto Rico: 16 repeated pulls, 19:32-23:47 UTC on 2026-09-27 (first gap 45 minutes, then about 15), for the US-state map and the per-snapshot line.

Definition. Average flight altitude = the altitude an airliner holds in level cruise. The European figure is the average of the maximum flight level reached by each flight in July, flights above FL200 only. Flight level = pressure altitude in hundreds of feet (FL350 = 35,000 ft). Certified ceiling = the maximum operating altitude in the aircraft's type-certificate data sheet. Cabin altitude = the pressure altitude inside the cabin, measured with an altimeter on board. Snapshot cruise = aircraft with barometric altitude of 20,000 ft or more and vertical rate within 1 m/s (about 200 ft a minute).

Data sources. EUROCONTROL Data Snapshots #21 (published 2021), #46 (published 2024, 2023 data), #54 (published 2025, 2024 data) and #60 (published June 2026, 2018-2025 data); 14 CFR 91.159, 91.179, Part 91 Appendix G and 25.841 (eCFR, version of 2026-11-04); EASA type-certificate data sheets EASA.A.064 (Issue 62), IM.A.120 (Issue 30), IM.A.115 (Issue 30), IM.A.035 (Issue 11), IM.A.196 (Issue 19), IM.A.001 (Issue 13), IM.A.169 (Issue 17) and IM.A.009 (Issue 14); Hampson et al. 2013 (Aviation, Space, and Environmental Medicine); NOAA JetStream, Layers of the Atmosphere; Smithsonian National Air and Space Museum (Concorde); OpenSky Network REST API, 16 pulls of all state vectors, 19:32-23:47 UTC on 2026-09-27 (the 19:32 pull alone for the single-snapshot figures; all 16 for the US-state map and the per-snapshot line) (dataset described in Strohmeier et al. 2021, ESSD).

Calculations. Feet to meters x 0.3048; kilometers to feet x 3,280.84; km to miles x 0.621371; tonnes to pounds x 2,204.62. European flight levels are shown in feet as flight level x 100. Snapshot figures are our calculation from the stored pull: altitude bands, flight levels rounded to the nearest 1,000 ft, direction by true track (tracks within 20 degrees of north or south left out; the rule uses magnetic course), latitude and ground-speed bands (speed bands only: 150 to under 700 knots, 36 aircraft with impossible broadcast speeds left out), and US states by position (point in state outline). The US-state map pools the 16 pulls with the same cruise filter, leaving out aircraft under 150 knots and balloons, gliders and ultralights (emitter category); each state's mean has a 95% confidence interval that treats repeat sightings of one aircraft as a cluster, and a state is shaded only with at least 300 positions and an interval reaching less than one legend step either side of the mean. The four yearly European series carry a straight-line (least-squares) trend of 2018-2025 extended to 2050 with a 95% prediction range: our calculation, not a forecast; 2020-2021 traffic was unusual, and cruise altitude is capped by rule (FL410 in RVSM airspace) and by each aircraft's ceiling.

Limitations. No US body publishes an average achieved cruise altitude; the European series covers European airspace only. The single snapshot is one instant; the 16 repeated snapshots cover about four hours of one afternoon. Both are weighted toward areas with many receivers (the US and Europe), and use barometric altitude as broadcast by the aircraft. The cabin study measured 207 US domestic flights, 2005-2011 (published January 2013). Certified ceilings are limits, not typical cruise heights.

Sources

  1. EUROCONTROL. “EUROCONTROL Data Snapshot #60: Flying further, heavier, and higher: What 2025 data reveals about Europe's average flight.” eurocontrol.int, 2026-06-12. eurocontrol.int. Accessed 2026-11-06. Back to text
  2. Travel Statistics Bureau. “Travel Statistics Bureau calculations.” own calculation, 2026. Methodology. Accessed 2026-09-27. Back to text
  3. Hampson NB, Kregenow DA, Mahoney AM, Kirtland SH, Horan KL, Holm JR, Gerbino AJ. “Altitude Exposures During Commercial Flight: A Reappraisal.” Aerospace Medical Association, 2013-01. doi.org. Accessed 2026-09-27. Back to text
  4. OpenSky Network. “OpenSky REST API, all state vectors: snapshot of September 27, 2026, 19:32 UTC.” opensky-network.org, 2026-09-27. opensky-network.org. Accessed 2026-09-27. Back to text
  5. Office of the Federal Register. “14 CFR 91.179 IFR cruising altitude or flight level.” Electronic Code of Federal Regulations, 2026-11-04. ecfr.gov. Accessed 2026-11-06. Back to text
  6. EUROCONTROL. “EUROCONTROL Data Snapshot #46: Further, higher, bigger...” eurocontrol.int, 2024-07-25. eurocontrol.int. Accessed 2026-09-27. Back to text
  7. EUROCONTROL. “EUROCONTROL Data Snapshot: Aircraft keep flying higher, creating extra airspace capacity and burning less fuel.” eurocontrol.int, 2021-11-09. eurocontrol.int. Accessed 2026-09-27. Back to text
  8. European Union Aviation Safety Agency. “Type-Certificate Data Sheet No. EASA.A.064, Airbus A318, A319, A320, A321, Issue 62.” easa.europa.eu, 2026-06-26. easa.europa.eu. Accessed 2026-11-06. Back to text
  9. European Union Aviation Safety Agency. “Type-Certificate Data Sheet No. IM.A.120, Boeing 737, Issue 30.” easa.europa.eu, 2026-10-28. easa.europa.eu. Accessed 2026-11-06. Back to text
  10. European Union Aviation Safety Agency. “Type-Certificate Data Sheet No. EASA.IM.A.115, Boeing 787, Issue 30.” easa.europa.eu, 2025-12-17. easa.europa.eu. Accessed 2026-11-06. Back to text
  11. European Union Aviation Safety Agency. “Type-Certificate Data Sheet No. EASA.IM.A.169, Gulfstream GVI, Issue 17.” easa.europa.eu, 2026-07-14. easa.europa.eu. Accessed 2026-11-06. Back to text
  12. European Union Aviation Safety Agency. “Type-Certificate Data Sheet No. EASA.IM.A.009, BD-700, Issue 14.” easa.europa.eu, 2026-01-23. easa.europa.eu. Accessed 2026-11-06. Back to text
  13. European Union Aviation Safety Agency. “Type-Certificate Data Sheet No. IM.A.196, Boeing 747, Issue 19.” easa.europa.eu, 2024-12-17. easa.europa.eu. Accessed 2026-11-06. Back to text
  14. European Union Aviation Safety Agency. “Type-Certificate Data Sheet No. EASA.IM.A.035, Boeing 767, Issue 11.” easa.europa.eu, 2025-02-04. easa.europa.eu. Accessed 2026-11-06. Back to text
  15. European Union Aviation Safety Agency. “Type-Certificate Data Sheet No. IM.A.001, Embraer ERJ-170, Issue 13.” easa.europa.eu, 2022-01-31. easa.europa.eu. Accessed 2026-11-06. Back to text
  16. EUROCONTROL. “EUROCONTROL Data Snapshot #54: Further, higher, bigger...” eurocontrol.int, 2025-07-31. eurocontrol.int. Accessed 2026-09-27. Back to text
  17. Office of the Federal Register. “14 CFR Part 91 Appendix G: Operations in Reduced Vertical Separation Minimum (RVSM) Airspace.” Electronic Code of Federal Regulations, 2026-11-04. ecfr.gov. Accessed 2026-11-06. Back to text
  18. Office of the Federal Register. “14 CFR 91.159 VFR cruising altitude or flight level.” Electronic Code of Federal Regulations, 2026-11-04. ecfr.gov. Accessed 2026-11-06. Back to text
  19. Office of the Federal Register. “14 CFR 25.841 Pressurized cabins.” Electronic Code of Federal Regulations, 2026-11-04. ecfr.gov. Accessed 2026-11-06. Back to text
  20. National Oceanic and Atmospheric Administration. “Layers of the Atmosphere.” noaa.gov (JetStream), 2026-02-17. noaa.gov. Accessed 2026-11-06. Back to text
  21. Smithsonian National Air and Space Museum. “Concorde, Fox Alpha, Air France.” airandspace.si.edu, 2026. airandspace.si.edu. Accessed 2026-09-27. Back to text
  22. Strohmeier M, Olive X, Luebbe J, Schaefer M, Lenders V. “Crowdsourced air traffic data from the OpenSky Network 2019-2020.” Copernicus Publications, 2021. doi.org. Accessed 2026-09-27. Back to text
  23. OpenSky Network. “OpenSky REST API, all state vectors: repeated snapshots of September 27, 2026, 19:32 to 23:47 UTC.” opensky-network.org, 2026-09-27. opensky-network.org. Accessed 2026-09-27. Back to text

About the author

Capt. Helen Askew
Senior Author, Aviation · Aviation Expert

Helen Askew writes the publication's aviation coverage, from airline reliability rankings to fare and fee analysis. She flew for 21 years as a commercial pilot, the last eight as a captain, and logged more than 12,000 flight hours on wide-body aircraft. From 2001 to 2016 she flew passenger flights on the Airbus A330-200 and Boeing 767-300ER, mostly to Orlando Sanford (SFB), Goa (GOI) and Barbados (BGI). From 2017 to 2022 she flew freight for CargoLogicAir on the Boeing 747-400F, mostly to Hong Kong (HKG), Atlanta (ATL) and Mexico City (MEX). Off the flight deck, Helen served as Head of Flight Safety at Eastern Airways, where she ran the airline's safety-management system, led incident investigations and represented the company in working groups with national and regional aviation regulators. She holds a master's degree in air transport management and is a fellow of AeroPRO, the aeronautical professional society. Her writing draws on primary data (regulator filings, operational performance reports and airline financial disclosures) rather than press releases. She is regularly quoted by trade and consumer media on airline safety, cancellations and passenger rights.

Daniel R. Whitcombe
Reviewed by
Editor-in-Chief, Travel Statistics Bureau · Travel Insurance Expert

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Change log

    • Europe average updated to 2025 (FL351, 35,100 ft)
    • Four 2018-2025 trend charts added
    • 2018 vs 2025 traffic-mix table added
    • Boeing 737 data sheet updated to Issue 30
    • First published