Where autonomy becomes practical
We develop AI-powered systems across the key domains that make missions autonomous, in orbit and on the ground. Each capability can be deployed as a ready-to-use product or tailored to fit your mission constraints and architecture.
Flexible by design,
ready for your mission
Our Al capabilities can be deployed as ready-to-use modules or adapted to match your data, constraints, and mission architecture.
Use them out of the box, integrate them into your systems, or co-design custom behaviors when your mission requires more.
1
Ready-to-use capabilities
Maneuvering, onboard processing, payload autonomy, and ground intelligence, deployable immediately.
2
Tailored to your spacecraft
Models, workflows, and interfaces adjusted to your platform, timing, and operational style.
3
Built for interoperability
Works with your onboard computers, ground tools, and existing mission software.
4
Support & Monitoring
We stay involved after deployment, offering improvements, updates, and technical guidance throughout the mission lifecycle.
If it works in a lab, it doesn’t mean
it works in space.
Many teams can train a model. Very few can turn it into a system that survives real missions, real constraints, and real failures.
That gap is where AIKO operates.
OUR SOLUTIONS
Predictive Maintenance & Root-cause Analysis
PROBLEM
Subtle anomalies and their root causes often remain hidden in operational telemetry until they impact the mission.
SOLUTION
Ground Al that identifies anomalies early, highlights deviations, and expand operator awareness with explainable insights.
Telemetry intelligence
Early anomaly detection
Explainable alerts
Autonomous Payload & Operations
PROBLEM
Mission relying on fixed operational schedules or manual tasking are not scalable and can't react fast enough to changing conditions, sensor context, or unexpected events.
SOLUTION
A goal-driven autonomy layer that interprets mission objectives, understands spacecraft and payload context, and executes the right actions in real time, adjusting plans as conditions evolve.
Event-driven autonomy
Goal-based actions
Real-time decisions
Payload orchestration
AI-Powered Onboard Data Processing
PROBLEM
Payloads generate far more data than missions can store or downlink, slowing responses and wasting bandwidth.
SOLUTION
Modular onboard processing that transforms raw sensor data into mission-ready outputs, prioritizing what matters, compressing the rest, and enabling rapid decisions.
Onboard processing
Value extraction
Smart compression
Insight prioritization
AI-Powered Maneuvering
PROBLEM
Maneuvers need to be fast, precise, and reliable, even when conditions shift and ground support is limited.
SOLUTION
Autonomous maneuvering that plans, adapts, and executes across scenarios like collision avoidance, orbit maintenance, inspection, servicing, and deorbiting.
Autonomous maneuvers
Adaptive planning
Multi-scenario execution
trusted by
End-to-end autonomy
delivered
together
Autonomy becomes real only when hardware, software, and mission logic evolve as one.
Co-design within your mission framework
We tailor and integrate our Al capabilities into your existing spacecraft architecture, constraints, and operations. Your mission stays as planned: we make autonomy fit seamlessly inside it.
Co-create new autonomy for new missions
When your roadmap requires capabilities that don't exist yet, we design them together from the ground up.
From concept definition to system architecture to in-orbit logic, we co-develop new autonomy layers shaped around ambitious missions: not just adaptation of existing products.
Hardware + software delivered as one system
Through our partners, we cover the full autonomy chain: onboard computing platforms, accelerators, edge systems, mission tools, and our Al layers.
Everything is validated together so performance, compatibility, and reliability work as a single integrated delivery.
Open to external ecosystem
AIKO solutions integrate natively with each other, and with third-party tools, analytics, and mission systems.
Whether you extend your autonomy with external components or connect specialized modules, the architecture stays modular, interoperable, and future-proof.