S.U.P.E.R. is an autonomous robotic spacecraft that services, repairs, and refuels satellites already in orbit. No human pilot. No client modifications. No wasted hardware.
Space is littered with stranded assets: satellites that failed early or ran out of propellant. Today there is no standard way to service them. That's a systemic failure we're here to fix.
S.U.P.E.R. is a fully autonomous robotic spacecraft that can rendezvous with, inspect, repair, and refuel satellites already in orbit. No human pilot required.
80 × 80 × 80 cm · ~315 kg fully fueled · CFRP + aluminum honeycomb chassis
From initial detection to safe departure, S.U.P.E.R. executes a fully autonomous end-to-end servicing mission.
Every subsystem aboard S.U.P.E.R. is selected for reliability, performance, and the unforgiving demands of on-orbit operations.
Electric propulsion system using krypton propellant for high specific impulse and precise orbital maneuvering throughout the mission lifecycle.
A precision gripper arm for delicate grasping operations paired with a multi-function Swiss-knife arm for servicing, fastening, and component manipulation.
Fused sensor suite enabling centimeter-accurate pose estimation of uncooperative target satellites for safe autonomous rendezvous and docking.
Radiation-hardened, space-qualified SPARC processor handling all critical flight functions with deterministic real-time performance.
Edge AI accelerator running real-time computer vision and navigation inference workloads with high throughput in a compact, low-power form factor.
Carbon fibre reinforced polymer over an aluminum honeycomb core provides an exceptional stiffness-to-mass ratio, surviving launch loads and thermal cycling.
We're not just designing a module — we're proposing an INDUSTRY STANDARD.
The space economy is scaling rapidly. Thousands of new satellites are launching every year. S.U.P.E.R. is laying the groundwork for a future where orbital infrastructure is maintained, extended, and never wasted.
Inspection and anomaly detection before failure cascades. AI-assisted imaging identifies structural damage, debris impact, and failed components before they become total losses.
Life extension modules, station-keeping support, and refueling through standardized interfaces. Adding years to operational satellite lifespans.
Bounded robotic interventions on accessible external components. Module swaps, panel re-deployment, valve actuation, and refueling, fully autonomous.
A $4B+ on-orbit servicing market projected by 2030, across three customer segments.
GNC simulation, interface spec v0.1, incorporation.
Ground robotics testbed, hardware in the loop, first grant.
12U CubeSat technology demonstrator in LEO.
Four aerospace engineering students from Toronto Metropolitan University, specializing in space systems — and turning a bold idea into an engineering reality.
Interested in partnering or investing? Get in touch — we'd love to talk.
Whether you're a satellite operator, investor, or fellow space enthusiast — we want to hear from you.