Validation burden
Aircraft, energy, communications, risk and operations are assessed in fragmented workflows.
Locust sells route qualification, aircraft integration and infrastructure design for civil RPAS. Urban logistics is the first demanding reference market; the immediate product is evidence that shortens a customer’s proceed-or-stop decision.
The commercial opportunity is broader than delivering parcels. Reusable aircraft models, test scenarios, integrations and evidence workflows can serve developers and operators across multiple missions.
Aircraft, energy, communications, risk and operations are assessed in fragmented workflows.
Autonomous behavior needs reproducible evidence across nominal, degraded and contingency scenarios.
Operators need route-level economics and public-value evidence before committing capital or infrastructure.
The company becomes more valuable when it proves repeatable customer outcomes, not when it adds more unsupported market slides.
Convert a named route problem into a paid decision product.
Replace representative specifications with bench, HIL and aircraft data.
Prove that the system improves an actual customer decision and operating metric.
The current Cambridge digital twin models deterministic fleet operations, representative aircraft dynamics, energy, risk-aware routing, restricted zones, weather, degraded communications, emergency behavior, noise and unit economics. None of these models has yet been calibrated with Locust flight data.12
Open operations model ↗Five aircraft references, three fleets, three demand levels, three tariffs and two seeds; 810 cost evaluations across staffing assumptions.12
Routing, reserves, charging, no-fly constraints and contingency behavior.
HIL integration, calibrated models, uncertainty bounds and relevant-environment evidence.
Customers can buy each layer independently or progress from a low-cost simulation engagement into aircraft and infrastructure deployment.
Paid digital twin, scenario, safety, economics and deployment-planning work.
Aircraft, payload, autonomy, communications and HIL integration for the mission.
Hubs, charging, connectivity, control systems and operational monitoring.
Scenario re-runs, evidence updates, operational monitoring, optimization and support.
ATI’s SME Programme supports industrial research, offers grants up to £1.5 million and requires at least half of eligible project costs to go to MSMEs.3
Integrated models, scenario provenance, evidence-generation workflows, aircraft integrations and accumulated calibration datasets. The IP plan is being formalised for the ATI consortium.
A paid route and aircraft qualification programme for a civil-RPAS developer or operator, delivered with reusable models and test workflows rather than one-off analysis.
It creates demanding constraints across payload, energy, routing, public acceptance and economics. The underlying capability transfers to inspection, response and infrastructure missions.
Physical validation, customer willingness to pay, regulator acceptance and scalable acquisition. These are explicit milestones, not hidden assumptions.
The current plan combines ATI-style industrial-research funding, consortium match and equity for team and commercial development. Amount and round terms remain to be confirmed.
Failure to calibrate models, obtain end-user pull, integrate representative hardware or demonstrate that evidence meaningfully reduces customer validation cost.