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PROPULSIVE LANDING

New Shepard Landing System

ACTIVEBlue OriginNew Shepard
Mass
800 kg
Dimensions
Integrated into booster (ring fin + 4 landing legs)
Material
Aluminum-lithium structure, steel landing legs
First Use
Nov 23, 2015
Usage Statistics
22
Successful Uses
95%
Success Rate
How It Works
Drag brakes and ring fin provide aerodynamic deceleration, then the BE-3 hydrogen engine relights for a powered vertical descent. Four deployable landing legs extend before touchdown on a concrete pad near the launch site.
Key Specifications
EngineBE-3 (hydrogen/LOX)
Landing thrust~490 kN
Drag brakes8 segments
First landingNovember 23, 2015
Compatible Vehicles
New Shepard
Details

New Shepard is a rocket built to carry people and experiments to the edge of space and then bring every major piece safely home. The clever part is how it lands: the rocket splits into two halves that each return to the ground their own way.

Quick facts

  • What it is: The dual recovery system of New Shepard, Blue Origin’s fully reusable suborbital rocket. “Suborbital” means it flies to space and falls straight back, rather than circling the Earth.
  • First landing: November 23, 2015 (the NS-2 mission) — the first rocket to fly to space and land its booster upright for reuse, about a month before SpaceX’s first orbital-class booster landing.
  • Booster engine: A single BE-3PM engine burning liquid hydrogen and oxygen, throttleable up to about 490 kN (110,000 lbf) of thrust.
  • Booster size: Roughly 19.2 m (63 ft) tall, 3.8 m (12.5 ft) across, about 35,000 kg at launch.
  • Track record: Around 36-37 successful booster landings as of early 2026; the most-flown booster (NS4) landed about 17 times.
  • Flight length: The whole trip lasts about 10-11 minutes.

How it works

About two minutes into the climb, near 38 km up, the engine shuts off. Moments later the rocket separates into two parts, and each coasts on upward past roughly 100 km — the “Kármán line” often used to mark the edge of space — before falling back home separately.

The crew capsule (the cabin where passengers or payloads ride) coasts to the top of the flight, then falls back and re-enters the air. Parachutes open in sequence until three main parachutes lower it gently; it can land safely even on just one. In the final stretch above the ground, a retro-thrust system at the base — a quick burst of nitrogen gas, the same harmless gas that makes up most of the air we breathe — pushes against the ground to slow the capsule to about 2 mph (3.2 km/h). A crushable ring about 14 cm (5.5 in) thick squashes on impact to soak up the last of the jolt, the way a car’s crumple zone absorbs a bump.

The booster (the propulsion module, meaning the engine-and-fuel section) flips and falls back tail-first. Ring and wedge fins near the top steady it for free, with no fuel needed; movable aft fins and a swiveling engine nozzle steer it toward the pad at speeds above Mach 3 (three times the speed of sound). Drag brakes deploy to roughly halve its falling speed. Close to the ground, onboard computers re-light the BE-3 engine on their own, throttle it down to a near-hover, slow to single-digit mph — about 6 mph (9.7 km/h) on approach and 4.4 mph (7 km/h) at touchdown — unfold four landing legs, and set the rocket down upright on a concrete pad about 3.2 km (2 mi) north of the launch site, ready to be checked and flown again.

Why it matters

New Shepard’s landing system proved that a liquid-fueled rocket stage could fly to space and return for a powered, upright landing in one piece — a cornerstone of the modern reusable-rocket era. Reusing the same hardware with little refurbishment between flights lowers the cost of reaching space and cuts waste, and one booster has flown more than a dozen times. For the capsule, the layered safety net — three parachutes, the nitrogen retro-thrust cushion, the crushable ring, and a launch-escape motor that can fire at any moment — is what makes the vehicle safe enough to carry paying passengers and researchers. Lessons and operational experience here feed forward into Blue Origin’s larger New Glenn orbital rocket and Blue Moon lunar lander.

Trade-offs to keep in mind

Because New Shepard is suborbital, its booster never hits the searing reentry heat an orbiting rocket faces, so a powered landing is easier here — but that also limits how directly the lessons transfer to orbital reuse. Hydrogen fuel burns cleanly into water vapor, yet it is bulky and tricky to store. And precise pad landings require the booster to hold back reserve fuel and carry sturdy fins and motors, adding weight and complexity in exchange for reusability. The speeds quoted are Blue Origin’s figures, and small differences appear across sources.

Notable examples

  • Booster NS2: the first vehicle to land under rocket power from space (Nov 23, 2015); flew 5 times before retiring, and is now headed for display at the Smithsonian.
  • Booster NS4: the most-reused booster, with about 17 flights and landings as of early 2026.
  • Crew Capsule (RSS First Step): carried Jeff Bezos and Wally Funk on NS-16 (July 20, 2021) and the first all-female crew on NS-31 (April 14, 2025).
  • NS-23 (uncrewed, Sept 12, 2022): a booster failure in flight, during which the capsule’s parachutes and launch-escape system carried the payload to a safe landing — proving the abort design works.

Blue Origin announced in January 2026 a multi-year pause of New Shepard flights to focus resources on its Blue Moon lunar lander.

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