Designed for volume before it was designed to fly.
Almost every drone on the market was designed to fly and then adapted to be built. ShadowVu was drawn the other way round. The production line came first and the aircraft was designed to satisfy it. That one decision is the reason the unit economics work, the reason a damaged airframe returns to service the same day, and the reason the supply chain can be made sovereign at all.
Platform characteristics, common to every airframe on the line.
Volume is a design decision, not a factory decision.
Process engineering can improve a line. It cannot rescue a design that was never drawn to be built at rate.
By the time an airframe has been optimised for flight, most of its manufacturing cost is already fixed. Part count, fastener types, tolerance stacks, cure times and assembly sequence are all settled long before anybody draws a production line, and no amount of industrial engineering afterwards recovers them. That is what retrofitting a legacy design to high volume actually means: a line that is expensive to run, difficult to staff and impossible to scale past a few thousand units.
ShadowVu began at the other end. The TAKT interval, the station count, the part count and the number of hands a unit is allowed to touch were set as design constraints before the first airframe existed. The aircraft was then drawn to satisfy those constraints and optimised to fly within them. It is a harder way to start a company and it is the only honest route to volumes measured in millions rather than thousands.
The same discipline decides everything downstream. A design with few parts and no specialist assembly is also a design that can be repaired in a field, sourced from friendly nations and recycled at end of life. Those are not three separate programmes. They are three consequences of one decision taken at the beginning.
- TAKT interval
- Three minutes for a complete unit
- Platform
- One architecture across every airframe
- Tooling
- No duplicate machinery, no separate line per variant
- Labour
- Assembly without specialist trades
- Materials
- No exotic materials in the structure
- Recovery
- Every joint that can be assembled can be opened again
Constraints first, geometry second. Every airframe in the range is drawn inside this envelope.
Three minutes, start to complete unit.
TAKT is the drumbeat of a production line: the interval at which a finished unit is expected to leave it. On the ShadowVu line that interval is three minutes for a complete aircraft, and it is a design output rather than an aspiration written on a wall.
Click-Fit™ is the airframe architecture that makes the interval possible. The structure locates and locks by design, so assembly is a short sequence of positive engagements rather than a skilled fitting operation with cure times and rework. Fewer parts, fewer fixings, fewer decisions per station, and a build that a trained operator completes consistently rather than carefully.
Because every model in the range shares that architecture, one line builds all of them. There is no duplicate machinery, no separate line per variant and no queue behind whichever product is currently favoured.
“We have removed the need for exotic materials. We have removed the need for a lot of complex assembly.”
Two sets of numbers, and which one to plan against.
The figures below are design targets at maximum theoretical build-out. They describe what the architecture would permit at unlimited lines, sites and shifts. They are not current output and they are not a schedule. The operating plan is the line model beneath them, and that is the one to put in a plan.
The three minute assembly time is the only figure in that row which describes the aircraft itself, and it is measured on the build rather than modelled. The three throughput figures do not reconcile with the line model, and we publish both with the distinction attached rather than blending them into a single rate.
Capacity scales by adding identical lines.
One line is 15 operators. Adding capacity means adding another line that is the same as the last one, not redesigning the process, which is what a single common platform with no duplicate machinery buys. This is the model the business is built on.
| Configuration | Output |
|---|---|
| 1 line, single shift | 105,000+ units/yr |
| 3 lines, single shift | 315,000+ units/yr |
| 5 lines, single shift | 500,000+ units/yr |
| 5 lines, three shifts | 1,500,000 units/yr |
A facility of 40,000 to 60,000 sq ft supports the first three to five lines. Several territories are under evaluation and the final location of the first plant is not yet determined. The plant is targeted to be operational at the end of Q2 2026. Current production volumes are not published.
Repaired where it lands, not returned to a depot.
An aircraft that leaves the fleet for a quarter is not an asset, it is a liability with a serial number. The platform was designed so that damage costs a component and an afternoon.
The airframe is field repairable after a thirty foot drop. The structure is designed to take the impact into components that can be replaced, rather than into a monocoque that has to be written off, and the joints that made a three minute build possible are the same joints that let an operator open the aircraft again with ordinary tools.
That changes the arithmetic of a fleet. Where the industry norm is a repair or replacement cycle measured in months, a ShadowVu airframe is back in the air the same day, from a spare parts supply that actually exists because the parts are inexpensive and made in volume. Nobody has to decide whether a mission is worth risking the aircraft.
- Field repairable after a thirty foot drop
- Ordinary tools, no specialist test equipment
- Damage costs a component, not an airframe
- Inexpensive core components, real spares availability
- Maintained remotely by the people who fly it
“I also wanted to make them field maintainable, so that they could be maintained by somebody working remotely with ordinary tools.”
Three month average repair or replacement cycle, with the whole asset written off after a hard landing.
Same day return to service, a replaced component and an airframe that stays in the fleet.
Made in the United Kingdom, on a supply chain we can account for.
Provenance is not a preference for defence and critical infrastructure buyers. It is the condition on which the procurement happens at all.
Eighty five percent of the aircraft is made in house. The remainder is sourced from friendly nations, from partners who have been through the same process, and the programme runs on a defined pathway to remove China from the supply chain entirely.
Vertical integration is what makes that credible. A manufacturer who assembles bought-in modules can only report what a distributor tells them. A manufacturer who makes the majority of the aircraft knows the answer, and can change it when a sub-tier supplier moves.
Partners are selected carefully rather than onboarded quickly. Every one of them completes a written explanation covering the same three questions, and the answers are a condition of the relationship rather than a formality attached to the first order.
It is a slower way to build a supplier base. It is also the only way to stand behind a sovereignty claim when a customer asks the question in a procurement review.
Where the technology is sourced
Origin of the component and of the intellectual property inside it, declared in writing rather than assumed from a distributor listing. A part with a European invoice and a foreign origin is a foreign part.
Where it is manufactured
The physical location of the plant, not the address on the letterhead. For defence and critical infrastructure buyers this is a procurement condition, so it is answered before a partner is accepted rather than during an audit.
How it is manufactured
Process, sub-tier suppliers and the parts of the build that sit outside the partner’s own control. A supply chain is only as sovereign as the layer nobody thought to ask about.
Recycled, recyclable, and repairable for the same reason.
Sustainability and field repairability turn out to be the same engineering problem. Solve one properly and the other stops being a separate initiative.
The airframe is built from recycled and recyclable materials, and the programme is ESG compliant by construction rather than by offset. An aircraft that comes apart with ordinary tools is an aircraft whose materials can be separated at end of life, and a structure with no exotic materials in it is one that a recycler will actually accept.
The disposable airframe, thrown away after a hard landing and replaced from a container, is the industry norm this platform was drawn to replace. Longevity, repairability and recyclability are the same argument told three ways.
“I founded ShadowVu to build drones in a sustainable manner, and I wanted to do this at ultra high volumes.”
A new variant in about two weeks.
Tooling is usually the thing that makes a manufacturer say no. Hard tooling locks a product for years, so a new mission requirement waits for the next product cycle or arrives as a modification nobody can support.
ShadowVu tooling is designed to be adapted. A new variant reaches production in around two weeks, on the same line, with the same operators and the same parts bin wherever the design allows it. Requirements that would elsewhere be declined become a scheduled change, and the capital already committed to the line is not written off to serve them.
Payload and customisation work is run through ShadowVu Labs, in house and with partners, with design rights held alongside design for manufacture so that a variant belongs to the production model from the first drawing.
Six places where the model diverges from the industry norm.
Each of these follows from the same decision. None of them can be adopted individually by a manufacturer whose design was drawn before its production line.
Designed for volume from day one
Legacy designs retrofitted to fit a manufacturing line
Every airframe was drawn for ultra-high volume assembly before it was drawn for flight. That decision cannot be made retroactively, and it is the reason the unit economics work.
Three-minute assembly
Long assembly times, specialist labour
A complete unit reaches TAKT in three minutes on a Click-Fit™ airframe. One common platform across every model means no duplicate machinery and no separate line per variant.
Repaired in the field, not returned
Three-month average repair or replacement cycle
The aircraft is field-repairable after a thirty-foot drop. Inexpensive core components and a real spare parts supply mean a damaged airframe is back in the air the same day instead of leaving the fleet for a quarter.
Sovereign supply chain
High reliance on Chinese products
85% of the aircraft is made in house, on a defined pathway to remove China from the supply chain entirely. For defence and critical infrastructure buyers, provenance is not a preference, it is the procurement condition.
Capital that is not written off
Total asset replacement after damage or loss
Modularity means damage costs a component, not an airframe. Flexible tooling turns a new mission requirement into a production variant in about two weeks.
Built to be recycled
Lack of sustainability, disposable airframes
Recycled and recyclable materials throughout, ESG-compliant by construction rather than by offset. Sustainability and field-repairability turn out to be the same engineering problem.
Get the full picture
Ask us the questions a procurement review will ask.
Where it is made, what is in it, how quickly it comes back after a hard landing and what happens when the requirement changes. We would rather answer those now than at the end of a tender.