In February 2021, the Polish federal R&D Centre awarded Dronehub a $1.72M programme grant to build something that didn't exist as a single integrated platform: an autonomous drone-in-a-box that runs while the host vehicle is moving at up to 30 km/h. Twenty-five months later, the programme delivered the world's first ground-infrastructure category of its kind — what's now branded UAV Nomad and runs as the platform behind convoy overwatch, mobile command air cover, and contested-corridor logistics.
This post explains what the grant actually funded, what NCBR's federal technical-feasibility review actually validates, and how the UAV Nomad platform pairs with the rest of the Dronehub portfolio to close one of the defining operational gaps in modern defense and critical-infrastructure work.
What the grant funded
The drone-in-a-box concept had existed for years before this programme. Stationary docking, autonomous launch, robotic battery swap inside a fixed dock — these were known engineering problems with working solutions. The unsolved problem was the moving-host variant: doing all of the same operations on a dock that's traveling at highway speed.
The $1.72M grant from the Polish R&D Centre (NCBR — Narodowe Centrum Badań i Rozwoju, comparable in role to a national NSF) funded the integration of three subsystems that hadn't been combined as a single platform before:
- Terminal-phase guidance. Standard drone landing assumes a stationary pad. Landing on a moving target requires terminal-phase guidance that matches the vehicle's trajectory continuously — relative velocity zero at touchdown, not absolute velocity zero. Wind, vibration, and suspension dynamics add complexity. The guidance algorithms are the hardest part of the platform.
- In-motion docking mechanism. Once the drone is on the pad, the dock has to capture it mechanically — not with operator intervention, not requiring vehicle deceleration, not in a hard impact. The mechanism design (vibration tolerance, wind robustness, repeatable mate-up across thousands of cycles) is the unforgiving engineering layer underneath the autonomy.
- Robotic battery-swap mechanism. With the drone captured, the robotic swap removes the depleted pack and inserts a charged one. The cycle completes in roughly two minutes — the same envelope as the stationary drone-in-a-box swap. The vehicle continues moving throughout.
Plus the autonomy stack that coordinates the whole loop end-to-end without operator intervention.
What NCBR scrutiny actually validates
The Polish R&D Centre's grant review process is full technical, financial, and operational due diligence before commit. For procurement evaluators on the US federal-innovation side (SBIR/STTR, AFWERX, DIU) the NCBR award is a recognised allied-government technical validation — the same kind of due diligence the buyer's procurement panel would otherwise have to run themselves.
That recognition shortens the federal-procurement diligence cycle materially. The technical-feasibility question is answered. The financial-viability question is answered. The dual-use-potential question is answered. The consortium-capability question is answered. The buyer's panel is no longer screening; it's contracting.
For EU defense industrial partners under EDF or NATO DIANA, the equivalent recognition applies through the EU's mutual-recognition framework on member-state R&D awards. An NCBR award qualifies as a co-funding precedent for follow-on programmes.
From "Mobile Charging Station" to UAV Nomad
The technical name during the programme was "Mobile Charging Station" — accurate, generic, and immediately forgettable. The commercial name is UAV Nomad: a drone-in-a-box that goes with you.
The renaming reflects the deployment frame, not the engineering. Buyers don't shop for charging-station infrastructure. They shop for capabilities — persistent air cover for a moving column, autonomous inspection along a 200-kilometre pipeline corridor, sustained surveillance for a mobile command-post operation. Same platform, sharper positioning.
The platform itself is unchanged: terminal-phase guidance, in-motion docking, robotic battery swap, autonomy stack. The brand decision was downstream.
Where UAV Nomad operationally deploys
Three primary domains, all sharing the constraint that the asset being protected or inspected is itself moving.
Defense. Convoy overwatch — moving columns under continuous own-drone surveillance for the duration of the transit, not just at start and end. Mobile command-post air cover — forward operating positions and field command vehicles get persistent surveillance that moves with them. Contested-corridor logistics — paired with the Airvein hangar grid, UAV Nomad enables sustainment resupply over corridors that ground convoys can't safely transit. Mobile c-UAS pairing — paired with AUDROS, the counter-UAS interception capability follows the protected unit instead of being fixed to a single defense installation.
Critical infrastructure. Linear-corridor inspection where the asset is too long to inspect from a single fixed dock. The dock follows the maintenance vehicle along the pipeline, transmission line, or rail corridor — drone surveys ahead, lands and swaps, surveys the next segment. The inspection corridor moves with the work crew.
Commercial. Large-area agricultural monitoring (thousand-hectare farms, vineyard estates), forestry survey, orthophoto corridor mapping for highway / rail / transmission build-out projects.
What this means for licensing
For US defense primes building SBIR/STTR proposals on mobile autonomous infrastructure, convoy protection, or contested-logistics programmes — UAV Nomad is the licensable platform that closes the persistent-air-cover gap. The IP includes the mechanical designs, the terminal-approach algorithms, and the robotic swap mechanism.
For EU defense industrial partners under EDF or NATO DIANA topics on mobile autonomous platforms — UAV Nomad qualifies under EDIS sovereign-supply requirements, EDA technical baseline, and the cross-border allied composition that EDF consortium-eligibility rules prefer.
For commercial operators in linear-infrastructure inspection or large-area survey — UAV Nomad licenses as a deployable platform with European manufacturing at Jasionka under NATO-allied supply chain.
The full UAV Nomad case study with technical detail and consortium composition lives on /projects/nomad. For a defense or commercial licensing conversation, open the contact form.
Key facts
The Polish R&D Centre (NCBR / NCBiR — Poland's federal R&D agency, comparable in role to a national NSF) awarded Dronehub a $1.72M programme grant for autonomous mobile-drone infrastructure.
Source · Polish R&D Centre programme award, 2021
The programme delivered the world-first ground infrastructure category: an autonomous docking station that performs drone take-off, landing, and battery swap while moving at up to 30 km/h.
Source · Nomad mobile charging station technical specifications
Nomad reduces a competing stationary drone-in-a-box's persistent-air-cover gap to zero — the platform follows the host vehicle (convoy, mobile command, agricultural rig, inspection truck) instead of waiting at a fixed site.
Source · Nomad operational deployment envelope
The programme duration was 25 months — February 2021 through February 2023 — running under NCBR's federal technical-feasibility review before grant award, which validated the engineering envelope before public funding committed.
Source · Polish R&D Centre grant agreement
Nomad pairs natively with AUDROS counter-UAS, turning any host vehicle into a self-contained mobile c-UAS asset — detection, interception, and response chain all relocates with the protected operation.
Source · Nomad + AUDROS integration architecture
FAQ
- What did the $1.72M actually fund?
- The development of three engineering subsystems that didn't exist as a single integrated platform before the programme. First, terminal-phase guidance — landing a drone on a pad moving at up to 30 km/h, with vibration, wind, and vehicle dynamics. Second, in-motion docking mechanism — capturing the drone mechanically on touchdown without operator intervention. Third, robotic battery-swap mechanism — completing the swap cycle in roughly two minutes while the vehicle continues moving. Plus the autonomy stack that coordinates the whole loop.
- What does NCBR scrutiny actually verify?
- Technical feasibility, dual-use potential, commercial pathway, and consortium capability before the grant commits. NCBR is the federal R&D agency for Poland — comparable in role to a national NSF — and its grant review goes through full technical, financial, and operational due diligence. For procurement evaluators on the US side (SBIR/STTR, AFWERX, DIU), an NCBR award is a recognised allied-government technical validation. The diligence has already happened.
- Why call it Nomad?
- The technical name during the programme was 'Mobile Charging Station' — accurate, generic. The commercial name is Nomad: a drone-in-a-box that goes with you. The renaming reflects the deployment frame — buyers don't shop for charging-station infrastructure, they shop for mobile autonomous capability. Same platform, sharper positioning.
- Where does Nomad deploy operationally?
- Three primary domains. Defense: convoy overwatch, mobile command-post air cover, contested-corridor logistics, mobile c-UAS pairing with AUDROS. Critical infrastructure: linear-corridor inspection where the asset is too long to inspect from a fixed dock. Commercial: large-area agricultural monitoring, forestry survey, orthophoto corridor mapping. The platform doesn't change; the host vehicle and the payload do.
- Is Nomad licensable to US primes and EU defense industrial partners?
- Yes. The mechanical designs, the terminal-approach algorithms, and the robotic battery-swap mechanism are all licensable building blocks. For US primes building convoy-protection programmes under SBIR/STTR, AFWERX, or DIU — the platform transitions directly. For EU defense industrial partners working under EDF or NATO DIANA on mobile autonomous infrastructure — same path. Manufacturing is at Jasionka under NATO-allied supply chain, NDAA Section 848 compatible.



