Essential Aircraft Recovery Equipment: Tools That Keep Runways Clear and Operations Safe
- ADMIN

- Aug 1
- 7 min read
When an aircraft becomes disabled on a runway or veers off a taxiway, every second counts. Whether it’s due to a mechanical failure, landing gear collapse, or runway excursion, the safe and timely recovery of the aircraft is vital to minimize operational disruptions, ensure safety, and protect valuable assets. This is where aircraft recovery equipment comes into play.
From lifting massive wide-body jets with specialized dollies to stabilizing damaged fuselages using air cushions and tripod jacks, aircraft recovery Ground Support Equipment (GSE) is an unsung hero in aviation operations. These purpose-built tools are designed not just for power and precision but also for safety, adaptability, and minimal damage risk to the aircraft and airport infrastructure.
In this article, we explore the essential components of modern aircraft recovery systems, how they work, and why every airport and operator must be equipped for the unexpected.

What Is Aircraft Recovery GSE?
Aircraft Recovery Ground Support Equipment (GSE) refers to a specialized set of tools and machinery used to recover disabled or immobile aircraft from runways, taxiways, or off-runway areas. Unlike standard GSE designed for day-to-day handling—like tow tractors or tugs—recovery equipment is built for emergency scenarios that require precision, power, and safety under pressure.
These situations may involve collapsed landing gear, nose gear failures, hydraulic leaks, or runway overruns. Recovery GSE allows airport authorities and ground crews to safely lift, stabilize, and relocate aircraft without causing further damage to the airframe, engines, or airport infrastructure.
The equipment ranges from modular recovery dollies and lifting airbags to tripod jacks, towbarless tractors, and mobile recovery trailers. Each tool plays a specific role in enabling fast response and coordinated action when aircraft incidents disrupt operations.
Having the right recovery GSE isn’t just about compliance—it’s a crucial part of ensuring operational resilience, minimizing runway downtime, and protecting multi-million-dollar aircraft assets.
Key Equipment Used in Aircraft Recovery
Aircraft recovery operations rely on a coordinated set of equipment, each engineered to handle specific tasks such as lifting, stabilizing, towing, or transporting a disabled aircraft. These tools are modular, scalable, and capable of handling aircraft of various sizes—from regional turboprops to wide-body jets like the Boeing 777 or Airbus A380.
One of the most critical pieces of recovery GSE is the aircraft recovery dolly, which supports the landing gear or replaces a damaged wheel to allow the aircraft to be safely towed. Recovery dollies come in several configurations, including multi-wheel and heavy-load variants, designed to support loads of up to 90 tons or more.
Air cushions or lift bags are another essential component. These are deployed under the fuselage or wings to gently raise the aircraft without damaging the structure. Their low-profile design and distributed pressure capability make them ideal for soft or uneven terrain recoveries.
For more severe incidents, tripod jacks, lifting beams, and slings are used in combination to stabilize and elevate larger sections of the aircraft. When movement is required, towbarless recovery tractors or flatbed recovery trailers take over, transporting the aircraft or its components to a safe location for further inspection and repair.
Every tool in the aircraft recovery toolkit plays a vital role. Together, they form a comprehensive system designed to respond rapidly and effectively—ensuring aircraft are moved safely and airport operations resume as quickly as possible.

How Recovery Dollies and Air Cushions Work
Two of the most essential and widely used tools in aircraft recovery are recovery dollies and air cushions—each offering unique advantages in lifting and relocating disabled aircraft.
Recovery dollies are heavy-duty rolling platforms designed to support the weight of an aircraft when its landing gear is damaged or collapsed. They are positioned beneath the gear assembly or fuselage and come in various capacities, typically ranging from 10 to 90 tons. High-end versions feature hydraulic lifting systems, steering mechanisms, and modular configurations for wide-body aircraft. Once the aircraft is securely mounted, it can be towed safely using a recovery tractor or towbarless tug. This minimizes the risk of additional structural damage and allows clearance of the runway in a controlled manner.
Air cushions, also known as inflatable lift bags, are used when lifting the aircraft vertically is required—especially in situations where conventional jacks cannot be deployed. These cushions are placed beneath the aircraft and gradually inflated with compressed air. Their wide footprint distributes the lifting force evenly across the aircraft skin, reducing pressure points and structural stress. This makes them ideal for lifting aircraft stuck in soft ground, uneven surfaces, or nose/tail-down positions.
Together, recovery dollies and air cushions provide a flexible and damage-minimizing approach to recovering disabled aircraft. Their use is determined by aircraft type, terrain conditions, and the extent of structural damage.

Importance of Lifting, Stabilization, and Towing Tools
In any aircraft recovery scenario, success hinges on the seamless integration of lifting, stabilization, and towing tools. These components form the backbone of any recovery operation, ensuring not only the safe movement of the aircraft but also the safety of personnel and equipment involved.
Lifting tools, such as tripod jacks, lifting beams, and belly slings, are deployed when vertical elevation is necessary. Tripod jacks offer height adjustability and stability for lifting aircraft at wing or fuselage points, while lifting beams and slings provide balanced load distribution, particularly for wide-body jets. These tools are indispensable when an aircraft is in a precarious position or when the gear is non-functional.
Stabilization equipment, including wing braces and fuselage cradles, ensures the aircraft remains secure during the lifting and moving phases. Without proper stabilization, there's a risk of shifting weight or structural sagging, which can cause additional damage or compromise the safety of the recovery team. Stabilizing jacks and support stands are often deployed in multiple positions to distribute load and prevent tipping.
Towing and transport tools, like towbarless recovery tractors, skid platforms, and recovery trailers, are critical for moving aircraft to a safe area. These units are engineered to manage massive weights and navigate damaged runways or unpaved surfaces. Flatbed trailers are often used to transport disassembled fuselage sections, while skid platforms can be positioned under aircraft with collapsed gear.
Together, these systems enable precise and controlled aircraft recovery operations—even in complex and high-pressure environments.

Safety, Speed, and Efficiency in Emergency Recovery
In the high-stakes world of aviation, aircraft recovery is not just about moving metal—it’s about restoring operations quickly, safely, and with minimal risk. That’s why every piece of recovery equipment is engineered with a focus on safety, speed, and efficiency.
Safety is the foremost priority. Aircraft recovery operations involve unstable structures, heavy loads, and high-pressure timelines. Equipment such as air cushions, jacks, and lifting platforms come with integrated safety mechanisms—like dead-man switches, load limiters, and locking pins—to protect both personnel and the aircraft itself. Stabilization tools prevent shifting or tipping, while real-time monitoring systems help track tilt, height, and stress loads during recovery.
Speed is crucial in minimizing runway downtime. A disabled aircraft can cause costly delays, diversions, and cancellations. Modular recovery equipment like multi-wheel dollies and towbarless tractors are designed for rapid deployment. With pre-configured systems and minimal setup time, teams can respond to incidents efficiently and clear the runway before operations are severely impacted.
Efficiency ties everything together. Equipment must be easy to transport, adaptable to different aircraft types, and operable by trained crews under pressure. Many modern recovery tools are designed to work in tandem—modular, scalable, and compatible with both narrow- and wide-body aircraft. This allows a single recovery system to be used across multiple fleet types, maximizing investment and reducing training overhead.
By combining these three pillars, airport authorities and ground handling teams ensure that recovery operations are executed with precision and professionalism, regardless of the complexity of the incident.

Final Thoughts: Preparing Airports with the Right Equipment
Aircraft recovery may be a rare operation, but when it’s needed, there is no room for compromise. Every airport—whether international hub or regional gateway—must be prepared with the right mix of recovery tools and trained personnel to respond immediately and effectively.
The cost of being unprepared is high: closed runways, delayed flights, safety hazards, and potential damage to multi-million-dollar assets. But with a properly equipped Aircraft Recovery Kit—including recovery dollies, lifting bags, jacks, tow systems, and stabilizing tools—airports can handle unexpected incidents with confidence.
It’s not just about having the equipment; it’s about having the right equipment for the aircraft types operating at the airport, along with clearly defined recovery procedures and routine drills. Investing in a robust recovery capability is an investment in operational resilience, safety assurance, and airline trust.
As the aviation industry grows and aircraft become larger and more sophisticated, so too must the systems designed to protect them when things go wrong. With the right recovery GSE in place, airports are not only prepared—they’re empowered.
Equipment Name | Purpose |
Plug Tester P/N 236.0000 | Testing over-inflation & thermal relief plugs |
Spring Tester P/N 235.0000 | Brake spring compression testing |
Brake Build-Up Stand (BBS) | Brake assembly/disassembly |
Brake Drain Unit (BDU) | Draining brake fluid |
Bolt Greaser (UGT) | Bolt greasing and lubrication |
Brake Test Stand (BTS NGtronic) | Hydraulic testing of brakes |
Brake Test Stand (NEOtronic Twin Auto) | Hydraulic testing of brakes |
Dynamic Universal Bead Breaker (DUBB) | Tire bead breaking |
LogMove Pump Systems | Hydraulic pressure testing |
Multi-Lock Spring Press | Brake spring handling |
Pre-Cleaning Station | Wheel/rim cleaning |
Rim Tilting Robot (RTR) | Wheel rim handling automation |
Small BeadBreaker (SBB) | Tire bead breaking for small wheels |
stepMatic software | Software integration and automation |
Tire Test System (TTS) | Testing tire integrity |
Universal Assembly/Disassembly Stand (UAS) | Wheel assembly/disassembly |
Universal Loosening Tool (ULT) | Nut loosening |
Wheel Assembly Stand (WAS) | Wheel assembly |
Wheel Inspection Stand (WIS) | Wheel inspection |
WheelLift | Wheel handling and lifting |
Aircraft Recovery Dolly (10/30/50/90) | Lifts aircraft from main gear for towing |
Multi-Wheel Recovery Dolly | Modular lifting for multiple gear points |
Air Cushions / Lift Bags | Lifting aircraft from belly/gear areas |
Tripod Recovery Jacks | Lifting aircraft via wing/fuselage points |
Belly Sling & Lifting Beams | Distributed aircraft belly lift |
Recovery Transport Trailer | Move aircraft/fuselage segments |
Aircraft Skid Platform | Move aircraft without landing gear |
Towbarless Recovery Tractor | Move immobilized aircraft |



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