Our Mission
To provide resilient, sustainable, and intelligent solutions for commercial and government clients worldwide, systems built for real world impact, not laboratory demonstration.
Albatross Aerospace designs and develops unmanned aerial systems and deep technology platforms, built by a small, autonomous team, for commercial and government clients who need results, not overhead.
Unmanned platforms spanning HALE, MALE, LUCAS and eVTOL configurations, built for connectivity, observation, logistics, and public safety missions where reliability isn't optional.
R&D extending into superconducting QPUs, heterogeneous Quantum AI systems, advanced materials, active remote sensing, and energy systems, the stack underneath the airframe.
AI assisted design and manufacturing, additive printing, and composite fabrication and prototyping, turning concepts into flight ready hardware faster.
To provide resilient, sustainable, and intelligent solutions for commercial and government clients worldwide, systems built for real world impact, not laboratory demonstration.
Persistent communications coverage deployed into disaster zones where ground infrastructure has failed.
High resolution imaging platforms for environmental monitoring, mapping, and situational awareness.
Long endurance platforms supporting climate, weather, and upper atmosphere research programmes.
Autonomous cargo systems for last mile and remote access delivery, including amphibious operation.
Surveillance and response platforms built to support law enforcement and emergency services.
A full spectrum of unmanned platforms, high and medium altitude endurance through to electric VTOL.
AI driven tools supporting design automation and manufacturing decisions, from concept through to production.
In house additive manufacturing, composite fabrication, and rapid prototyping for flight ready components.
One project explored introducing bionic structure into an airliner. Replacing solid ribs and bulkheads with organic, load path driven geometry cut structural weight and freed up usable space, with every strut sized for strength and stress using AI driven optimisation.
A quadcopter frame went through a full generative design cycle. It started as a conventional design, then went through generative design to form an organic shape optimised for its actual load paths. Once the geometry was settled, we simulated it to confirm strength and stress performance, then 3D printed the result to test it physically. A simpler angle support followed the same path, a good example of how rapid prototyping through additive manufacturing saves cost and lets us test and tailor every mounting point directly.
On the quantum side, we designed and developed a Josephson junction JJFET, which is a tiny superconducting switch built directly into silicon transistors. The microscopic image below shows the junction itself, the working core of a superconducting qubit, along with the chip once mounted on the quantum socket and wired for cryogenic testing.
We also designed a fixed wing, low cost UAV built specifically for rapid manufacturing and scaling using additive printing. For that project we combined machine learning with mechanical, aerospace, and manufacturing knowledge to build an AI system that assists the entire design and development process from end to end.
Albatross Aerospace is a relatively small, loosely structured group of motivated individuals and student researchers, given a very large degree of autonomy to pursue real projects.
What holds it together is a shared drive toward innovation in human centred, autonomous AI systems, and a preference for building over theorising.
Partners, investors, and future teammates. If you think what we're building matters, we'd like to hear from you.