Objectives of the service
Businesses with urgent delivery needs such as local businesses that perform and finish jobs within a day, or a production process or a job that is missing a part and cannot continue, often lose time, productivity, and revenue when goods must be collected manually or transported through slow and inflexible traditional delivery options. This is especially problematic when a missing part, tool, or product stops work already in progress. The Bumble Bee service addresses this by providing fast, automated point-to-point delivery for time critical business needs.
The Bumble Bee solution combines software, drones, automated ground stations called DronePorts, and supporting data such as Earth observation and digital elevation models. Orders are received through customer-facing systems or integrations, automatically planned and assigned, and then carried out by drones with human supervision. This is intended to create an efficient delivery option that is faster and more scalable than traditional urgent transport.
The Bumble Bee demonstration project is the first step towards a minimum viable version of such a service in real operating conditions together with pilot customers.
Users and their needs
The Bumble Bee service is currently targeting users in Norway, with initial activity focused on companies and recipients who need urgent business deliveries. The main user communities are:
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Trade professionals who need rapid access to parts and materials
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Business customers such as wholesalers, chains, or distributors that want to offer faster delivery to their professional customers
Main user needs:
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Fast delivery of urgently needed goods to avoid work stoppages
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Reliable and predictable delivery times
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Easy ordering through existing systems
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Safe delivery to the right location
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Lower time loss from collecting goods manually
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A service that fits normal working routines with little friction
Main challenges:
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Providing a reliable and frictionless service
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Getting the right types of permits
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Integrating hardware and software for a seamless solution
Service/ system concept
At a high level, the architecture has three main parts: the central software that plans and manages deliveries, the DronePort that supports launch and recovery, and the drone that performs the transport.
Users request urgent deliveries through a customer’s e-commerce/ordering system or another simple order interface, receive confirmation and expected delivery time, and get status updates and proof that the goods have arrived. The service is designed to give business users faster access to needed items, less waiting, and less time lost collecting goods themselves.
In simple terms, the system works as follows: an order is placed, the software checks the delivery route and destination, selects an available drone, and sends the job to a DronePort, which is an automated ground station. The drone is dispatched, flies to the pick-up location where the goods are loaded, and monitored during flight, then delivers the goods to the planned location. The system then records completion and shares delivery status back to the customer.
Space Added Value
The service uses space-based Earth Observation data to improve delivery planning and operational decision making. In particular, Digital Elevation Models are used to support optimized and legally compliant flight routes by giving a clearer understanding of terrain, heights, and surrounding obstacles. In addition, the data is used to assess the safety and applicability of user defined delivery locations before flying there. This helps identify whether a location appears suitable for delivery operations based on terrain, surroundings, structures, and other observable surface conditions.
GNSS is also a very important technology for the provided service. The technology enables the company to navigate the drones, and for the end user to pinpoint the drop-off location.
The added value of using these space assets is that they enable automated operations, greatly improve planning quality, reduce uncertainty, and support safer and more efficient operations at scale. Compared with current methods used by potential competitors, which may rely more heavily on manual review, prior site visits, or repeated local inspections, the use of Earth Observation data makes it possible to evaluate more locations remotely and consistently. This reduces operational friction and deployment time, improves route quality, and strengthen the basis for automated delivery decisions.
Current Status
The Critical Design Review (CDR) took place in May 2026 and was passed successfully. The company has hired two pilots to continue flying the drones in different configurations and conditions. The DronePort functional design is continuing with a service provider, and the shell of the DronePort will enter manufacturing soon with a supplier. The company is in the process of applying for further BVLOS zones for testing and demonstration purposes from the Norwegian Civil Aviation Administration. A new type of drone, DJI Matrice M400, will be added to the inventory and has been designated as the main drone for testing (and demonstrations if the testing results are satisfactory.) The next activity milestone is the Factory Acceptance Test (FAT) which is expected to take place towards the end of 2026.
