Space autonomy
from Earth to orbit
Imagine AI making split-second decisions 500 km above Earth. That’s what we bring to every mission.
Space
autonomy
from Earth to orbit
Imagine AI making split-second decisions 500 km above Earth. That’s what we bring to every mission.
Space autonomy
from Earth to orbit
Imagine AI making split-second decisions 500 km above Earth. That’s what we bring to every mission.
When human operations
hit their limits
EARTH
0.000, 0.000, 0.000
Sat
0.003, -4.810, 0.001
Sat
0.003, -4.810, 0.001
Data overload
Satellites stream terabytes of telemetry and imagery every day, but over 90% adds little operational value. Operators waste time separating noise from insight, while the signals that matter risk getting buried.
Latency Gap
Operational Bottleneck
Rising Costs & Risks
Scalability & Sustainability
AI in Production
When human operations
hit their limits
EARTH
0.000, 0.000, 0.000
Sat
0.003, -4.810, 0.001
Sat
0.003, -4.810, 0.001
Data overload
Satellites stream terabytes of telemetry and imagery every day, but over 90% adds little operational value. Operators waste time separating noise from insight, while the signals that matter risk getting buried.
Latency Gap
Operational Bottleneck
Rising Costs & Risks
Scalability & Sustainability
AI in Production
When human operations
hit their limits
EARTH
0.000, 0.000, 0.000
Sat
0.003, -4.810, 0.001
Sat
0.003, -4.810, 0.001
Data overload
Satellites stream terabytes of telemetry and imagery every day, but over 90% adds little operational value. Operators waste time separating noise from insight, while the signals that matter risk getting buried.
Latency Gap
Operational Bottleneck
Rising Costs & Risks
Scalability & Sustainability
AI in Production
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.
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.
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.
Solving problems
where it counts
Space is unpredictable. Communication delays, complex systems, and critical missions demand smart, autonomous solutions. That’s why we put AI in orbit.
Instant detection & Prioritization
The system identifies relevant signals as they appear, filtering noise and highlighting anomalies or events that require attention.
Reduced Latency
Critical observations are analyzed directly on board. This minimizes the impact of communication gaps and enables faster reaction to time-sensitive conditions.
Onboard data processing
Raw telemetry and imagery are cleaned, filtered, and transformed into structured information. Only the most valuable insights are returned to ground teams.
Mission Safety & Adaptation
The AI evaluates changing conditions — from thermal variations to pointing errors — and adjusts system behavior to maintain stability and safety.
1
Sense
2
Analyse
3
Decide
4
Act
5
Report
Solving problems
where it counts
Space is unpredictable. Communication delays, complex systems, and critical missions demand smart, autonomous solutions. That’s why we put AI in orbit.
Instant detection & Prioritization
The system identifies relevant signals as they appear, filtering noise and highlighting anomalies or events that require attention.
Reduced Latency
Critical observations are analyzed directly on board. This minimizes the impact of communication gaps and enables faster reaction to time-sensitive conditions.
Onboard data processing
Raw telemetry and imagery are cleaned, filtered, and transformed into structured information. Only the most valuable insights are returned to ground teams.
Mission Safety & Adaptation
The AI evaluates changing conditions — from thermal variations to pointing errors — and adjusts system behavior to maintain stability and safety.
1
Sense
2
Analyse
3
Decide
4
Act
5
Report
Solving problems
where it counts
Space is unpredictable. Communication delays, complex systems, and critical missions demand smart, autonomous solutions. That’s why we put AI in orbit.
Instant detection & Prioritization
The system identifies relevant signals as they appear, filtering noise and highlighting anomalies or events that require attention.
Reduced Latency
Critical observations are analyzed directly on board. This minimizes the impact of communication gaps and enables faster reaction to time-sensitive conditions.
Onboard data processing
Raw telemetry and imagery are cleaned, filtered, and transformed into structured information. Only the most valuable insights are returned to ground teams.
Mission Safety & Adaptation
The AI evaluates changing conditions — from thermal variations to pointing errors — and adjusts system behavior to maintain stability and safety.
1
Sense
2
Analyse
3
Decide
4
Act
5
Report
INFINITE WAYS TO AUTONOMY
INFINITE WAYS TO AUTONOMY
INFINITE WAYS TO AUTONOMY
INFINITE WAYS TO AUTONOMY
Space AI
explained simply
A short guide to the core things that matter when applying AI to space systems.
Al techniques for space autonomy
Our autonomy framework integrates multiple approaches - machine learning, deep learning, and reinforcement learning- each selected based on mission needs and operating constraints. Models are designed to run reliably in space environments, supporting tasks such as anomaly detection, event identification, prioritization, and autonomous decision-making.
02
03
04
05
Al techniques for space autonomy
Our autonomy framework integrates multiple approaches - machine learning, deep learning, and reinforcement learning- each selected based on mission needs and operating constraints. Models are designed to run reliably in space environments, supporting tasks such as anomaly detection, event identification, prioritization, and autonomous decision-making.
02
03
04
05
Al techniques for space autonomy
Our autonomy framework integrates multiple approaches - machine learning, deep learning, and reinforcement learning- each selected based on mission needs and operating constraints. Models are designed to run reliably in space environments, supporting tasks such as anomaly detection, event identification, prioritization, and autonomous decision-making.
02
03
04
05
Full-mission autonomy
Full mission autonomy relies on architectural principles that ensure consistent, safe, and interpretable behavior across the mission lifecycle. These principles go beyond individual models or algorithms.
Distributed intelligence
Autonomy emerges from multiple coordinated components, onboard and on ground.
Real-time responsive
The system must operate within strict timing constraints, reacting even during communication gaps.
Safety-bound choice
Actions follow mission rules and safety envelopes, ensuring controlled and predictable behavior.
Explainability & Traceability
Every decision is interpretable and auditable, allowing operators full oversight.
Continuous Evolution
Models and policies can be updated as new data becomes available, maintaining long-term relevance.
BUZZ
Experience autonomy. For real. This simulator lets you step into a realistic in-orbit servicing scenario. No theory. No shortcuts. Just real dynamics, real constraints, real decisions.
Sat
0.003, -4.810, 0.001
BUZZ
Experience autonomy. For real. This simulator lets you step into a realistic in-orbit servicing scenario. No theory. No shortcuts. Just real dynamics, real constraints, real decisions.
Sat
0.003, -4.810, 0.001
BUZZ
Experience autonomy. For real. This simulator lets you step into a realistic in-orbit servicing scenario. No theory. No shortcuts. Just real dynamics, real constraints, real decisions.
Sat
0.003, -4.810, 0.001
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Our solutions
INFINITE WAYS TO AUTONOMY
INFINITE WAYS TO AUTONOMY
INFINITE WAYS TO AUTONOMY
INFINITE WAYS TO AUTONOMY
Let's get started
Scalable, flight-ready and user-friendly AI-powered solutions for the space industry.
AIKO S.r.l. - Via dei Mille 22, 10123, Torino, Italy, VAT: 11686290013 | REA: TO1233188
AIKOSPACE S.a.S - Bâtiment NIWA - 33 piste des géants, 31400 Toulouse
© Copyright 2026 All rights reserved
Let's get started
Scalable, flight-ready and user-friendly AI-powered solutions for the space industry.
AIKO S.r.l. - Via dei Mille 22, 10123, Torino, Italy, VAT: 11686290013 | REA: TO1233188
AIKOSPACE S.a.S - Bâtiment NIWA - 33 piste des géants, 31400 Toulouse
© Copyright 2026 All rights reserved
Let's get started
Scalable, flight-ready and user-friendly AI-powered solutions for the space industry.
AIKO S.r.l. - Via dei Mille 22, 10123, Torino, Italy, VAT: 11686290013 | REA: TO1233188
AIKOSPACE S.a.S - Bâtiment NIWA - 33 piste des géants, 31400 Toulouse
© Copyright 2026 All rights reserved