Autonomous FOD-clearance robot
Securing the deck, one sweep at a time
Overview
This autonomous foreign-object-debris clearing system is an unmanned platform that sweeps a flight deck clear of the small debris that destroys engines and ends sorties. A single loose bolt, stone or fragment ingested on take-off can cost an engine and ground an aircraft, so decks are walked and checked by hand before flying, a task that ties up people and slows the launch cycle. The robot runs that sweep autonomously, navigating with obstacle avoidance so it works around parked aircraft and deck operations rather than getting in their way, and it can hold to a schedule without pulling a crew off other duties. Clearing the deck becomes a repeatable, recorded routine instead of an ad-hoc inspection that depends on who was available and how tired they were. The manufacturer builds and sustains the platform in-region under one accountable team, so the customer keeps it serviceable close to where it works rather than shipping it away for support.
Foreign-object debris ends sorties and destroys engines, and the manual walk-down that guards against it ties up people and slows the launch cycle; the robot runs that clearance autonomously, one sweep at a time.
Capabilities
- Autonomous foreign-object-debris clearing that holds to a schedule without pulling a crew off other duties
- Autonomous navigation with obstacle avoidance to work around parked aircraft and deck operations
- Built for the flight-deck environment and the small, engine-killing debris that hand searches miss
- A recorded clearance history, turning deck safety into a documented routine
- Sustained in-region by one accountable team, kept serviceable close to where it works
Specifications
| Type | Autonomous FOD-clearing system |
| Environment | Flight decks |
| Origin | Independent / non-aligned |
| Support | In-region sustainment |
Why Unstrat: the difference
Unstrat is the authorised global representative and distributor for this capability. It is already in service with a track record behind it, so you are buying something that has done the job elsewhere, not funding a first attempt. You are not the test bed.
Independent, non-aligned origin, with no political exposure to any major-power ecosystem.
One accountable team from first briefing through delivery and in-region sustainment.
Clearance becomes a repeatable, recorded routine rather than an ad-hoc inspection that depends on who was available and how tired they were.
Independent, non-aligned origin with in-region sustainment, so a capability that touches every launch is not tied to a foreign support line.
How it reaches you
Related capability
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Procurement & sustainment
Classification and the end-user-certificate chain are confirmed before this capability is represented to your market.
Sourced from an independent manufacturer: no major-power disclosure rules or political conditions.
A single team responsible from first briefing through delivery: not a chain of foreign primes to integrate yourself.
Lifecycle support and operator training delivered in-region, building capability that outlasts the initial deployment.
Questions buyers ask
What is a FOD-clearance robot?
An unmanned ground platform that sweeps a flight deck or airfield surface clear of the foreign object debris that destroys engines and ends sorties. The Unmanned Systems Developer's system navigates autonomously with obstacle avoidance and is built for working flight decks rather than for a demonstration apron. Sweeping the deck is a routine that has to survive daily operations, which is a harder test than a one-off trial.
See: Autonomy and deck environmentAgainst FOD-BOT and FODRo II
How much damage does FOD actually cause?
Enough that navies and air forces mobilise large numbers of people to walk the surface before and after flying. SkyAutoNet cites roughly 13.9 billion US dollars of annual global losses from foreign object debris and notes exactly that manning burden. A robot removes the recurring labour and works at night, which is the comparison to run: people-hours against capital.
What size of debris can a FOD robot detect?
We do not publish a detection rate against a stated object size, which is the primary acceptance criterion for FOD systems, and our comparison page says so plainly. Both published competitors do: SkyAutoNet states over 95 per cent detection of debris larger than 3 cm, day and night, and Essential Aero states collection of debris from 0.02 in to 8 in. Set your own threshold and hold every bidder to it, including us.
Can a FOD robot work on a moving flight deck?
That is the distinction that matters in this category. Both published competitors describe airport runways, taxiways and aprons: long, flat, uncontested surfaces on a predictable schedule. The Unmanned Systems Developer's system is specified for flight decks, which are short, crowded, moving and full of people and aircraft doing something more important than debris clearance. Insist on a trial during actual deck or flight-line operations rather than on an empty apron.
See: A carrier deck is not a runwayBuilt for the flight deck
Autonomous FOD clearance for a military airfield rather than a civil airport
Essential Aero publishes a strong civil and airside package: up to 6 hours per charge, 2.5 m/s, inclines to 26.5 degrees, ultrasound and LiDAR avoidance and a cloud fleet layer. For a military customer the deciding factors shift to deconfliction with operations, the data path and the support chain. The Unmanned Systems Developer's system comes from a non-aligned supplier with in-region sustainment and is specified for decks, though we publish fewer figures and a serious tender should force us to state them.
Where does FOD detection data go, and can it stay on our network?
For a civil airport the vendor cloud is convenience; for a naval deck it is a sortie-rate signal leaving the ship. Essential Aero routes data to its own cloud ecosystem for analytics and reporting, and SkyAutoNet transmits over 5G or LTE to a control station. Require an on-premises option in writing rather than assuming one. A non-aligned supplier with in-region sustainment makes a national data path straightforward to contract for.
How do we compare a FOD robot against the cost of manned FOD walks?
Convert both to annual cost. Ask any supplier for sweep time per 1,000 square metres and availability rate, then price the personnel hours your current routine consumes, including the sorties delayed while it happens. Robots also work at night and on a schedule nobody resents. If a supplier will not give you sweep rate and availability, you cannot run the comparison and should say so in the evaluation.
What obstacle avoidance does a deck robot need?
Enough to deconflict with aircraft, crew and moving equipment, which is a different problem from avoiding a light fitting on an empty runway. Our system navigates autonomously with obstacle avoidance built for the deck environment; we do not publish the sensor set, while Essential Aero publishes ultrasound and LiDAR and SkyAutoNet publishes multiple cameras and LiDAR. Ask for the sensor list and then watch the robot work alongside people.
See: Obstacle avoidance sensors comparedAutonomous navigation on the platform
Can a FOD robot be controlled through the same system as our other unmanned platforms?
It should be, if you intend to run more than one type. The Unmanned Systems Developer's unmanned ground platforms are controlled through the same command layer as the air systems, which avoids adding another stovepiped console to an operations room that already has too many. Both published competitors offer their own fleet layers instead: a browser control hub in one case, a control station over 5G or LTE in the other.
See: One command layer across air and groundFleet management row in the comparison
Our deck crews spend hours a week on FOD walks before flying. What would a robot realistically change?
It moves a recurring manning burden into a capital item and a maintenance routine, and it can sweep at night when the deck is quiet. The honest caveat is that a deck robot must deconflict with live operations, so the gain depends on whether it can work while other things are happening rather than only in the gaps. Trial it during your busiest week, not your quietest.
What acceptance criteria should a navy write into a FOD robot contract?
Detection rate against a stated object size, sweep time per 1,000 square metres, availability rate over a month of real operations, endurance and recharge time, and the data path with a named on-premises option. Both published competitors give most of the technical figures, and SkyAutoNet's over 95 per cent detection above 3 cm is a reasonable threshold to start from. Write them as acceptance criteria rather than as evaluation preferences.
How does a FOD robot cope with weather, temperature and a wet deck?
Ask for the envelope and then test at the edge of it. Essential Aero publishes −20 °C to +40 °C and all-weather waterproof operation; SkyAutoNet publishes day, night and all-weather detection without a temperature range. We do not publish an operating temperature for the deck system, and that is a gap a tender should close. A deck in a Gulf summer and a deck in a North Atlantic winter are different machines' problems.
We operate both an airfield and a naval deck. Do we need two different systems?
Possibly not, but do not assume one platform covers both, because the constraints differ more than the task suggests. Airfield work rewards endurance, speed and gradient handling across long surfaces; deck work rewards deconfliction, tight manoeuvre and tolerance of a crowded, moving environment. Run one trial per environment and let the results decide, rather than buying a single fleet on a brochure claim of universality.
See: Operating environment row in the comparisonModular ground platforms for other tasks
Who sustains a FOD robot once the warranty ends, and does that depend on a foreign supplier?
Sustainment is where a small autonomous platform quietly becomes unavailable: a failed drive unit, a discontinued sensor and a long shipping route. Our model is in-region sustainment by the team that delivers the system, from a non-aligned origin, so support decisions do not route through an export process. Ask every supplier for spares lead time in weeks and for the repair scope your own technicians are permitted to perform.
Is FOD clearance a safety purchase or a readiness purchase, and how should we justify the budget?
Both, but the readiness argument is the one that survives a budget committee. Debris that reaches an intake costs an engine and a sortie, and the manning currently spent on FOD walks is manning not spent elsewhere. Frame the case as sorties protected and hours returned, supported by your own incident record, rather than as an autonomy project. Then hold the supplier to availability figures that keep that case true in year three.
Autonomous FOD-clearance robot: questions
What is Autonomous FOD-clearance robot?
Autonomous FOD-clearance robot is Unstrat's Sea (Maritime Domain) capability: This autonomous foreign-object-debris clearing system is an unmanned platform that sweeps a flight deck clear of the small debris that destroys engines and ends sorties. A single loose bolt, stone or fragment ingested on take-off can cost an engine and ground an aircraft, so decks are walked and checked by hand before flying, a task that ties up people and slows the launch cycle. The robot runs that sweep autonomously, navigating with obstacle avoidance so it works around parked aircraft and deck operations rather than getting in their way, and it can hold to a schedule without pulling a crew off other duties. Clearing the deck becomes a repeatable, recorded routine instead of an ad-hoc inspection that depends on who was available and how tired they were. The manufacturer builds and sustains the platform in-region under one accountable team, so the customer keeps it serviceable close to where it works rather than shipping it away for support.
How does Autonomous FOD-clearance robot work?
Autonomous FOD-clearance robot delivers its effect through autonomous foreign-object-debris clearing that holds to a schedule without pulling a crew off other duties, Autonomous navigation with obstacle avoidance to work around parked aircraft and deck operations and Built for the flight-deck environment and the small, engine-killing debris that hand searches miss, capabilities matched to the requirement and confirmed under briefing rather than published.
Who makes Autonomous FOD-clearance robot?
Autonomous FOD-clearance robot is built by The Unmanned Systems Developer, whose focus is counter-uas, loitering munitions & unmanned aircraft. Unstrat represents The Unmanned Systems Developer to government and enterprise buyers worldwide as an independent, non-aligned prime vendor.
Why choose Autonomous FOD-clearance robot over a major-power alternative?
Autonomous FOD-clearance robot is sourced from an independent, non-aligned manufacturer, so it carries no major-power disclosure rules, upgrade-locks or political ramifications. Concretely: clearance becomes a repeatable, recorded routine rather than an ad-hoc inspection that depends on who was available and how tired they were and Independent, non-aligned origin with in-region sustainment, so a capability that touches every launch is not tied to a foreign support line. The capability is accountable to you, not to a foreign vendor's government and its release schedule.
How is Autonomous FOD-clearance robot procured, and where can it be exported?
Foreign-object debris ends sorties and destroys engines, and the manual walk-down that guards against it ties up people and slows the launch cycle; the robot runs that clearance autonomously, one sweep at a time. Every engagement begins with a briefing, and export eligibility is confirmed per market under briefing rather than published. Where controlled capabilities are involved, the classification and end-user-certificate chain is confirmed first. Autonomous FOD-clearance robot is then sustained in-region by one accountable team from briefing through long-term operation.