Unmanned ground vehicles
Modular robotic ground platforms
Overview
Modular unmanned ground vehicles for reconnaissance, logistics and hazardous tasks where the path ahead is uncertain. Autonomous navigation with operator override, mission payloads swapped in the field, and control through the same command layer as the air systems.
Robotic ground platforms that take soldiers out of the most dangerous tasks, from an independent maker, controlled through the same command layer as the air fleet.
Capabilities
- Modular mission payloads swapped in the field: reconnaissance, logistics, hazardous tasks
- Autonomous navigation with operator override at all times
- Integrates with the same sensor-fusion and mesh-datalink layer as the aerial systems
- Rugged tracked and wheeled configurations for rough terrain
- Takes soldiers out of the most dangerous tasks: reconnaissance under fire, resupply on exposed routes and work in contaminated ground
Specifications
| Type | Unmanned ground vehicle |
| Roles | Recce / logistics / hazardous tasks |
| Control | Autonomous with operator override |
| Origin | Independent / non-aligned |
| Support | In-region sustainment |
In depth
A ground vehicle for exposed work
The documented roles are reconnaissance, logistics and hazardous tasks. The product record specifically describes reconnaissance under fire, resupply on exposed routes and work in contaminated ground as tasks that can take soldiers out of the most dangerous parts of an operation. The platform is modular, so mission payloads can be swapped in the field. That makes the published capability a platform with changing payloads, not a single-purpose robot assigned to one job. Navigation is autonomous, with operator override available at all times. The distinction matters operationally: the vehicle can handle navigation while a person retains authority to intervene. The available configurations are rugged tracked and wheeled platforms for rough terrain. No particular speed, range, payload mass or autonomy duration is stated in the product record, so those values remain matters for configuration rather than published specifications.
Ground and air in one architecture
The catalogue states that the vehicles integrate with the same sensor-fusion and mesh-datalink layer as the aerial systems. That is the central integration fact. The ground vehicle is not described as a separate controller or an isolated robot. Its command relationship is part of the same unmanned architecture used by the air systems. The platform can therefore be configured against the buyer's existing command, sensing and link requirements, but the record does not publish the interfaces or a universal controller specification. The source is independent and non-aligned, and the detail record lists in-region sustainment. Delivery, operator training and the exact mission payload remain subjects for the buyer's requirement and configuration process. The supported proposition is a shared command layer across air and ground unmanned systems, not a claim that every existing platform connects without integration work.
Payload and control remain distinct
The platform's modularity is expressed through the mission payloads, not through a promise that the base vehicle performs every role without configuration. Reconnaissance, logistics and hazardous tasks are the documented roles. The examples are reconnaissance under fire, resupply on exposed routes and work in contaminated ground. A payload is swapped in the field, while the underlying vehicle provides the tracked or wheeled ground platform and its navigation function. Autonomous navigation and operator override define the control relationship. The vehicle can navigate autonomously, but the operator retains the ability to intervene. That is the stated boundary between machine handling and human authority. The same command layer as the air systems provides the architecture for coordination, while the buyer's requirement determines the payload, route, platform configuration and integration work. No speed, range, payload mass or autonomy duration is published here. In-region sustainment is listed, so support and training can be scoped alongside the configured platform rather than inferred from a generic robot category.
Configure the task, then the vehicle
A reconnaissance requirement and a hazardous-task requirement do not necessarily call for the same payload, even though they use the same modular ground-platform concept. The documented field-swappable payload approach lets the buyer define the task first, then select the tracked or wheeled configuration and the equipment needed for that task. The catalogue does not publish a payload mass or a universal mission kit, so those choices remain part of the requirement. The control model stays constant across the roles. Autonomous navigation handles the route, while operator override remains available. The platform's connection to the shared sensor-fusion and mesh-datalink layer provides the stated path into the wider unmanned architecture. The source is independent and non-aligned, and in-region sustainment is listed. A programme can therefore address exposed reconnaissance, resupply on exposed routes or contaminated ground with a defined payload and command integration, without claiming a speed, range or autonomy duration that the evidence does not provide.
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.
One unmanned architecture across ground and air, not another stovepiped controller.
How it reaches you
Related capability
View all →
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 an unmanned ground vehicle used for?
Most of the fielded work is unglamorous and unarmed: carrying stores forward on a route nobody wants to drive, looking round the corner before a section does, and working in ground that is contaminated or mined. The published module catalogues across the industry say the same thing, with cargo, casualty support, observation and communications relay dominating the lists. Our own framing is reconnaissance, logistics and hazardous tasks, with mission payloads swapped in the field by the crews that use them.
See: What the UGV is built to doSide-by-side with Milrem, Rheinmetall and HDT
Best unmanned ground vehicle for military logistics
If the requirement is pure tonnage moved, the published figures decide it: HDT's Hunter WOLF carries 1,270 kg, Milrem's THeMIS 1,200 kg maximum against 750 kg rated, and Rheinmetall's Mission Master SP 1,000 kg. We do not publish a payload figure, and pretending we win a number we have not stated would be useless to you. Where our platform argues its case is architecture and supply: one command layer shared with the air systems, and an independent maker with no major-power approval gate behind the sale.
How much does a military UGV cost?
No serious vendor in this class publishes a price, ourselves included, because the number moves with payload fit, radio, spares scaling and training. Treat any figure you are shown as a quotation against your specification rather than a market rate. The cost that actually bites over a decade is the second stovepipe: a separate controller, training pipeline and spares chain for the robot that does not talk to anything else you own.
See: How the ownership cost is shapedRequest a capability brief
Milrem THeMIS alternatives
THeMIS is a strong and widely fielded machine, and its published numbers of 750 kg rated payload, 20 km/h and up to 15 hours of hybrid running are real. Buyers usually go looking for an alternative when the obstacle is the end-use regime rather than the engineering. Our modular UGV covers the same class of task, with field-swapped payloads and autonomous navigation under operator override, from an independent maker with no political conditions travelling behind it.
See: THeMIS, Mission Master SP and Hunter WOLF comparedThe modular ground platform in the same family
Tracked or wheeled UGV for rough terrain?
Tracks buy you ground pressure and pivot behaviour in soft going, wheels buy you speed and simpler maintenance, and the field reflects that: THeMIS is tracked with 60 cm clearance, Mission Master SP is wheeled at 40 km/h, and Hunter WOLF runs 6x6 on non-pneumatic tyres to get tracked-vehicle traction without tracks. Our vehicles come in rugged tracked and wheeled configurations, so the running gear follows the terrain rather than the other way round. Decide it on your worst route in your wettest month, not on a brochure photograph.
Unmanned ground vehicle for resupply on exposed routes
This is the task the class was built for, and it is where the payload and range figures earn their place in a tender. On published data the range spread is wide, from 54 km on Mission Master SP's electric drive to 300 km off-road for Hunter WOLF on internal fuel. Our vehicles are in service doing exactly this work, resupply on exposed routes and reconnaissance under fire, in heat, dust and contested spectrum. Ask us for the range and payload numbers in the capability brief and hold us to them alongside the published ones.
See: Reconnaissance, logistics and hazardous tasksWhere our figures are published and where they are not
Can one crew operate drones and ground robots from the same command system?
With our systems that is the design, not an integration project: the ground vehicle feeds and takes orders from the same sensor-fusion and mesh-datalink layer as the aerial systems. Elsewhere it depends on standards work you pay for. Rheinmetall publishes STANAG 4586 compliance and HDT publishes the RAS-G IOP v6 profile, both credible routes to third-party control, but the integration effort sits with the buyer or an integrator.
See: The fusion layer both fleets run onCommand integration compared
Which UGV carries the most payload, THeMIS, Mission Master or Hunter WOLF?
On published figures, Hunter WOLF at 1,270 kg, then THeMIS at 1,200 kg maximum with 750 kg rated, then Mission Master at 1,000 kg. Payload only settles the argument if your task is resupply. For reconnaissance under fire or work in contaminated ground, silent endurance and the control link matter more, and Milrem's 1.5 hours at full load in silent mode is the figure worth interrogating there.
Do unmanned ground vehicles need to be armed to be worth buying?
No, and the published payload catalogues across the industry make that plain: cargo, casualty evacuation, surveillance and communications relay make up most of the fielded work. Weapon stations exist across the field, and they are the part that attracts the export conditions and the political scrutiny. Our own positioning is the unarmed end of that spectrum, taking soldiers out of the most dangerous tasks, and any transfer is represented only once classification and the end-user-certificate chain are confirmed.
What should an army buy if it wants robotic resupply but cannot accept United States export licensing conditions on the fleet?
Start by separating the engineering from the paperwork. Hunter WOLF's numbers are good, 1,270 kg carried 300 km off-road with 15 kW of continuous exportable power, and the vehicle itself is subject to US export licensing whatever the datasheet's markings say about the document. If that licensing chain is the blocker, our modular UGV is the comparable option: the same class of task, field-swapped payloads, autonomous navigation with operator override, from an independent maker with no major-power approval gate. Compare the two on module fit first, then on what each supplier can promise about spares in year six.
See: Supplier origin and political exposure, row by rowHow an engagement is structured
We already operate your drones. Does adding ground robots mean a second controller, a second training pipeline and a second spares chain?
That is exactly the cost we built the ground fleet to avoid. The vehicles share the sensor-fusion and mesh-datalink layer used by the aerial systems, so a section with drones overhead and a robot on the route ahead is working one picture rather than reconciling two. One accountable team handles delivery and in-region sustainment across both. Over a ten-year fleet life the second stovepipe is usually the expensive part of the programme, not the vehicles.
See: The mesh datalink underneath both fleetsOne architecture across ground and air
How do we evaluate a UGV supplier that does not publish payload, speed and endurance figures?
You put the figures in writing before the shortlist, and you refuse to move until they arrive. Milrem, Rheinmetall and HDT publish payload, speed, endurance and, in Milrem's case, control range, encryption and radio band, so you have a public benchmark to hold every other bid against. We do not publish those numbers on the site and we say so plainly on the comparison page, which is why the capability brief exists. A supplier who will not state its link budget, jamming behaviour and silent endurance is asking you to buy on trust.
See: What we publish and what we do notAsk for the capability brief
Are unmanned ground vehicles mature enough for operational units, or are they still trial equipment?
The class has moved well past the demonstrator stage, and the honest test is whether a given vendor's machines are working or presenting. Ours are fielded systems doing reconnaissance, resupply and hazardous work in heat, dust and contested spectrum, with payloads exchanged by users as part of normal operations rather than by engineers at a trade fair. Ask any supplier, us included, where its vehicles are running today, in what climate, and who fixes them when a track throws at two in the morning.
Can a ground robot keep working when the spectrum is jammed or the operator loses the link?
This is the question that separates a demonstration from a capability, and few vendors answer it fully in public. Milrem is the most forthcoming of the three we compare against, publishing a 10 km control range on a 4 W 2.4 GHz MIMO mesh radio with AES256 and frequency hopping. Our vehicles navigate autonomously with operator override available at all times, and they run on the same anti-jam mesh datalink as the rest of the architecture, which is built for contested spectrum with no single point of failure. Make link loss behaviour a written test condition in the trial, not a paragraph in a brochure.
See: Anti-jam mesh data linksControl link and range compared
Who controls the software, the spares and the future upgrades of a ground robot after it has been delivered?
None of that appears in a specification table, and all of it appears when you want to move a fleet to a border, arm it, or keep it running through a diplomatic row. A US-origin robot carries US licensing and end-use conditions; an Estonian or German platform carries EU member-state politics and the alliance's view of your other relationships. We are an independent maker represented through a non-aligned channel, with sustainment held in region and one accountable team from the first briefing onwards. Write the answer into the contract whichever supplier you choose.
See: Procurement conditions that travel with the vehicleHow Unstrat structures a national requirement
Unmanned ground vehicles: questions
What are Unmanned ground vehicles?
Unmanned ground vehicles are Unstrat's Land (Land Domain) capability: Modular unmanned ground vehicles for reconnaissance, logistics and hazardous tasks where the path ahead is uncertain. Autonomous navigation with operator override, mission payloads swapped in the field, and control through the same command layer as the air systems.
How do Unmanned ground vehicles work?
Unmanned ground vehicles deliver their effect through modular mission payloads swapped in the field: reconnaissance, logistics, hazardous tasks, Autonomous navigation with operator override at all times and Integrates with the same sensor-fusion and mesh-datalink layer as the aerial systems, capabilities matched to the requirement and confirmed under briefing rather than published.
Who makes Unmanned ground vehicles?
Unmanned ground vehicles are 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 Unmanned ground vehicles over a major-power alternative?
Unmanned ground vehicles are sourced from an independent, non-aligned manufacturer, so they carry no major-power disclosure rules, upgrade-locks or political ramifications. Concretely: one unmanned architecture across ground and air, not another stovepiped controller. The capability is accountable to you, not to a foreign vendor's government and its release schedule.
How are Unmanned ground vehicles procured, and where can it be exported?
Robotic ground platforms that take soldiers out of the most dangerous tasks, from an independent maker, controlled through the same command layer as the air fleet. 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. Unmanned ground vehicles are then sustained in-region by one accountable team from briefing through long-term operation.