Can A Commercial Plane Land Without Engines? | How It Still Lands

Yes, a jetliner can glide and land after total thrust loss if it has enough height, speed, and a reachable runway or landing area.

A commercial plane does not stay in the air because the engines “hold it up.” The wings do that. The engines add thrust, which keeps the aircraft moving fast enough for the wings to keep making lift. If both engines quit, the plane does not drop like a rock. It turns into a glider, and the crew’s job shifts in a split second: protect airspeed, judge distance, and get the aircraft to a place where it can touch down under control.

That’s why the real answer is a bit more nuanced than a plain yes. A commercial plane can land without engines, but not from just any spot, at just any height, or with just any weather. The aircraft still needs enough energy to reach a runway, a clear stretch of water, or another landing area. The crew also needs working flight controls and enough time to manage the descent.

Can A Commercial Plane Land Without Engines? What Makes It Possible

The big idea is simple: lift and thrust are not the same thing. A jet can lose thrust and still keep flying for a while. As long as it has forward speed, the wings keep making lift. That forward speed comes from trading altitude for distance. In plain terms, the plane glides downhill through the air rather than driving itself ahead.

Commercial aircraft are not as slippery as sailplanes, yet they can still travel a long way in a glide. At high altitude, that can mean dozens of miles. The exact distance depends on the aircraft type, weight, wind, drag, and whether the pilots hold the best glide speed. The FAA’s material on glide ratio lays out the same core idea: maximum glide distance comes from flying at the speed that gives the best lift-to-drag ratio.

Why A Jet Can Still Fly After Total Thrust Loss

Once the engines stop, the plane still has three things going for it: momentum, altitude, and wing area. Momentum buys time right away. Altitude buys distance. Wing area lets the aircraft turn that distance into a controlled descent instead of a steep fall.

This is why engine failure right after takeoff is so dangerous, while engine failure at cruise altitude is a different kind of problem. Near the ground, there may not be enough height to sort things out. High in the sky, crews have far more room to work the checklists, try a restart, talk to air traffic control, and set up a landing.

Why Landing Is Still Hard

Gliding is one thing. Finishing the flight cleanly is another. A normal jet landing uses engine thrust to fine-tune the approach. Too high? Add drag or adjust path. Too low? Add power. With no engines, that last option is gone. If the crew gets low too early, there may be no recovery.

That changes the whole rhythm of the approach. Pilots usually plan to stay a bit high, then use flaps, gear, speed brakes, and turns to bleed off energy. It’s a one-shot setup. Too much drag too soon can leave the aircraft short of the runway. Too little drag can make the touchdown long and fast.

What Pilots Do In The First Minutes

The first minute after both engines quit is about control, not heroics. Crews train to settle the aircraft at the right speed, confirm what failed, and start the memory items and checklists. The FAA’s forced-landing guidance follows the same logic: keep the airplane flying, then work the problem, then commit to the landing plan.

• Hold the target glide speed so the wings keep working at their best range.
• Pick the nearest usable landing site while there is still room to maneuver.
• Run the restart steps if the aircraft type and the failure pattern make that possible.
• Manage drag carefully so the plane arrives high enough to finish the approach.
• Prepare the cabin and touchdown configuration as time allows.

If one engine restarts, the picture changes right away. Even partial thrust can turn a forced landing into a standard diversion. If neither engine comes back, the crew leans on glide performance, judgment, and disciplined flying.

What Decides Whether The Landing Works

Not every engine-out event ends the same way. A few variables shape the odds more than anything else.

Factor	Why It Matters	What It Can Change
Altitude At Failure	More height gives more glide distance and more time	Opens access to airports that would be out of reach from low level
Airspeed	Too slow risks loss of lift; too fast wastes range	Changes how far the aircraft can travel
Wind	Headwind cuts ground distance; tailwind stretches it	Can make one runway possible and another impossible
Aircraft Weight	Weight shifts handling and target speeds	Changes descent rate, runway need, and flare feel
Drag Configuration	Flaps, gear, and speed brakes burn energy fast	Shapes whether the plane arrives high, low, or just right
Terrain And Obstacles	Mountains, buildings, and water narrow the choices	Limits the approach path and touchdown area
Weather	Rain, low cloud, icing, and gusts raise workload	Makes the setup harder and may block visual cues
Runway Length	An engine-out landing may arrive fast	Affects stopping margin after touchdown

That table is why there is no one-size-fits-all answer. A twin-engine jet at 35,000 feet over flat country has a very different set of options than the same jet at 2,000 feet over a dense city. Both can glide. Only one may have a clean path to a runway.

Which Systems Still Work When The Engines Quit

People often assume that a plane with no engines also loses all control. That is not how transport aircraft are built. Airliners carry layers of backup for flight controls, instruments, and basic electrical power. Those backups are not there to run the whole aircraft as if nothing happened. They are there to keep the jet controllable long enough to land.

Ram Air Turbine, Batteries, And Backup Hydraulics

Many jetliners have a ram air turbine, often shortened to RAT. It is a small turbine that drops into the airflow and spins in the airstream. That spinning motion can feed hydraulic pressure, electrical power, or both, depending on the aircraft design. Airbus notes that when both engine generators are lost, the RAT can power the emergency electrical network on several aircraft families in its Safety First note on emergency electrical configuration.

Batteries also buy time. They keep core instruments and radios alive during the handoff to backup sources. Some aircraft can also use the auxiliary power unit in certain conditions. So while the cockpit gets busier, it does not go dark in the way people picture from movies.

What Backup Power Cannot Do

Backup systems do not erase the emergency. They are limited. Pilots may lose normal automation, extra cockpit displays, cabin systems, and the fine control that comes with full hydraulic and electrical supply. The aircraft remains flyable, but it may feel more manual, heavier, and less forgiving.

That matters near landing. A crew with only partial systems may have fewer flap settings, more drag penalties, and a faster touchdown speed. The airplane can still be brought down safely, though the margin gets tighter.

System	What Usually Remains	What The Crew May Lose
Flight Controls	Basic control through backup hydraulics or RAT-fed power	Normal feel, some automation, full-rate response
Electrical Power	Core instruments, radios, and selected displays	Cabin loads, nonessential screens, full redundancy
Approach Setup	Limited flap or gear options on some types	Normal landing profile and extra drag choices
Engines	Restart chance if the cause allows it	Thrust for go-around or path correction

Can A Commercial Plane Land Without Engines Over Water Or Cities

Yes, though the landing site may not be a runway. If there is no airport within glide range, the crew may have to pick the least bad option. Over water, that can mean ditching. Over land, it can mean a straight stretch, an open field, or another flat surface with enough room. None of those options are pleasant. They are still better than stalling or arriving out of control.

This is where altitude and location matter most. A plane over the ocean after losing both engines may still have enough glide range to make shore, or it may not. A plane over a city can reach an airport if one is close enough and the glide path fits. If not, the crew has to make a fast call based on what lies ahead, not what would be ideal.

What Real Engine-Out Landings Teach Us

Real events drive home one plain truth: airliners can be flown without engine thrust, but the win comes from energy management. Crews that protect speed, stay disciplined, and avoid rushed drag changes give themselves the best shot. The aircraft’s design helps a lot, yet design alone does not land the plane. Flying skill still does the heavy lifting.

That’s also why pilots train for engine failures in simulators again and again. They practice the ugly versions too: no restart, poor weather, short runway, partial instruments. The point is not to make the event easy. It never is. The point is to make the next move automatic when seconds matter.

What The Simple Answer Misses

If someone asks whether a commercial plane can land without engines, the clean reply is yes. The fuller reply is better: yes, a jet can glide and land, but the result hangs on height, distance, wind, drag, and the crew’s handling of a narrow energy budget. That is why some engine-out flights end on a runway, some in water, and some with hard landings that still save lives.

So the engines are not what make landing possible. They make landing easier, more flexible, and far more forgiving. Take them away, and the airplane does not stop being an airplane. It just becomes one with fewer choices and no spare moves.