Compare the Airbus A380 and Boeing 767 by size, seats, range, engines, airport needs and simulator handling, with key variant caveats.
The Airbus A380 is a full-length double-deck, four-engine superjumbo built for very high-capacity long-haul routes; the Boeing 767 is a much smaller twin-engine wide-body for medium- and long-haul work. The A380 carries roughly twice as many passengers, while the 767 has lower trip costs and can use far more airports.
In our Aviation & Real-World Flying coverage, we would not treat them as direct rivals. The A380 was designed around congested hub-to-hub routes, whereas the 767 family covers passenger, cargo and military roles across a much broader range of airports.
How much bigger is the Airbus A380 than the Boeing 767?
The A380 is substantially larger in every major dimension, especially wingspan, cabin area and maximum take-off weight. These figures compare the A380-800 with the principal passenger versions of the 767 family:
| Feature | Airbus A380-800 | Boeing 767 family |
|---|---|---|
| Passenger decks | Two full-length decks | One deck |
| Length | About 72.7 m | About 48.5–61.4 m |
| Wingspan | About 79.8 m | About 47.6–51.9 m |
| Maximum take-off weight | Up to about 575 tonnes | Roughly 143–204 tonnes |
| Engines | Four turbofans | Two turbofans |
| Typical airline seating | Often 450–600 passengers | Often 180–260 passengers |
| Normal cruise | Approximately Mach 0.85 | Approximately Mach 0.80 |
| Airport category | ICAO Code F; wake call “Super” | Generally ICAO Code D; wake call “Heavy” |
The 767 figures span several aircraft: the short 767-200, longer 767-300 and stretched 767-400ER. The A380 reached service as the A380-800 only, although engine choices, airline interiors and certified weight options still differ.
Cabin layout also matters. A typical 767 uses seven-abreast economy seating in a 2-3-2 arrangement. The A380 commonly uses 3-4-3 on the main deck and 2-4-2 upstairs, though every airline determines its own seat widths, premium cabins and total capacity.
Which aircraft carries more passengers and flies farther?
The A380 carries far more passengers and has the greater headline range. Its advertised long-range capability is around 8,000 nautical miles, while the longest-ranging passenger 767 versions reach roughly 6,000–6,600 nautical miles under their specified assumptions.
Those are not guaranteed route distances. Payload, reserves, winds, temperature, diversion requirements and cargo all reduce practical range. Our breakdown of 767 range by variant and payload explains why a 767-200ER figure cannot simply be applied to a 767-300, 767-400ER or freighter.
The A380’s range is supported by an enormous fuel load and a more involved distribution system. We cover how the A380’s tanks, engine feeds and trim transfers work separately.
A common comparison error is to put the A380’s certified maximum of 853 passengers beside a normal two- or three-class 767 layout. The 853 figure represents an extremely dense certification limit, not a normal long-haul cabin. Airline layouts provide the useful comparison.
Why did airlines use the A380 and 767 for different jobs?
The A380 suits routes where an airline can fill several hundred seats between large hub airports. When heavily occupied, its size can produce competitive costs per seat, but the airline must accept four-engine fuel consumption, high total trip costs and limited scheduling flexibility.
The 767 needs fewer passengers to make a flight viable. Its smaller capacity helped it serve thinner long-haul routes, regional wide-body sectors and cargo operations. The family also became a successful freighter and tanker platform; the planned A380 freighter never entered production.
Airport compatibility is another decisive difference. An A380 gate requires suitable pavement strength, stand clearance, taxiway separation and passenger-handling equipment. A 767 fits established wide-body infrastructure at many more airports and does not require a Code F stand.
Size alone does not determine runway performance. Weight, engine variant, wind, elevation, temperature and runway condition can change the result substantially; our guide to the variables governing 767 take-off and landing distance gives the practical context. The A380’s airport restrictions often arise from wingspan and ground infrastructure rather than runway length alone.
Four engines do not automatically make the A380 “safer” than the twin-engine 767. Long overwater 767 operations depend on the applicable ETOPS approval, aircraft configuration, maintenance programme and operator authorisation. Both designs were certificated for their intended operations.
How do the A380 and 767 differ in a flight simulator?
The A380 is an automation-heavy Airbus with sidesticks, fly-by-wire control laws, ECAM and fixed thrust-lever detents. The 767 presents a more traditional Boeing workflow with a control column, EICAS, mode-control panel and autothrottles that physically move the thrust levers.
Our comparison of Airbus and Boeing controls and automation explains the underlying design philosophies. The exact implementation still depends on the add-on: a simplified A380 can feel easier than a highly detailed 767 despite the real aircraft’s greater systems complexity.
- Taxiing: the A380 demands much more attention to wingtip and main-gear position. Use the model’s taxi cameras or external views where available, and confirm that the parking stand supports its span.
- Energy management: the 767 generally needs earlier planning for descent and speed reduction. Do not expect either aircraft to lose altitude and speed quickly while remaining in a clean configuration.
- Autothrust technique: A380 thrust levers normally stay in the selected detent while autothrust changes engine power. The 767’s autothrottle moves its levers, so copying Airbus lever technique into the Boeing causes confusion.
- Engine failures: losing one engine removes one quarter of the A380’s installed engines but one half of the 767’s. Use the aircraft-specific checklist rather than transferring procedures between them.
What causes an inaccurate simulator comparison?
The mistake we see most often is comparing two add-ons rather than the two real aircraft. Flight models, systems depth and default loading can differ enough to overwhelm the genuine design differences.
- Using the wrong 767 variant: match the performance data to the -200, -300, -300ER or -400ER actually loaded.
- Loading maximum fuel and payload together: this can exceed maximum take-off weight. Set payload first, then calculate the fuel required for the route and reserves.
- Guessing approach speed from aircraft size: obtain VREF or VAPP from the aircraft’s performance system or documentation for the actual weight and flap setting.
- Ignoring add-on limitations: missing flight-control laws, inaccurate engine thrust or simplified fuel transfer can produce behaviour unlike the real aircraft.
Which aircraft should you choose in a flight simulator?
Choose the A380 for very high-capacity long-haul operations, modern Airbus automation, four-engine system management and the challenge of operating from A380-compatible gates. It rewards careful ground planning as much as competent flying.
Choose the 767 for a classic Boeing wide-body cockpit, passenger or cargo flexibility, a wider choice of suitable airports and routes that do not justify a superjumbo. It is also the more representative choice for learning twin-engine long-haul planning and ETOPS-style operational constraints.