Constellation Management
Autonomous fleet management for LEO satellite constellations — from ten satellites to ten thousand.
Built for the Mega-Constellation Era
Managing a modern LEO constellation requires orchestrating thousands of autonomous operations daily — collision avoidance maneuvers, orbital maintenance burns, decommissioning sequences, and coordination with other operators. Cryptik's constellation management platform automates these operations with physics-informed AI, scaling from small fleets to mega-constellations with 10,000+ satellites.
Core Capabilities
Simultaneous conjunction assessment for every satellite in your constellation against the full debris catalog. Coordinated maneuver planning prevents secondary conjunctions between constellation members.
Automated orbital slot assignment, station-keeping, and slot recovery after avoidance maneuvers. Ensures uniform coverage and minimizes intra-constellation conjunctions.
Track satellite health, plan replacement launches, and schedule end-of-life deorbit maneuvers to comply with the 5-year post-mission disposal rules.
Continuous virtual replica of your constellation for predictive analytics, scenario planning, and "what-if" analysis of debris events or satellite failures.
Scale Metrics
Frequently Asked Questions
How many satellites constitute a mega-constellation?
No formal threshold defines "mega-constellation" but the term typically applies to constellations with 100+ satellites. Starlink has 5,000+ satellites. OneWeb operates 600+. Planned mega-constellations may reach 10,000-40,000 satellites. Scale drives need for automated management systems that handle conjunction screening across large fleets.
What is orbital slot management?
Orbital slot management assigns and maintains satellite positions within constellation architecture. Slots define target orbital parameters (altitude, inclination, RAAN, argument of latitude) for each satellite. Station-keeping maneuvers correct drift from assigned slots. Slot management ensures uniform coverage and prevents intra-constellation conjunctions.
How often do constellation satellites maneuver?
Station-keeping frequency depends on altitude and coverage requirements. LEO constellations at 500-600km altitude may perform weekly or monthly station-keeping. Collision avoidance maneuvers occur as needed based on conjunction frequency. Large constellations may execute dozens of maneuvers daily across entire fleet.
What is a digital twin for satellite constellations?
A digital twin is a virtual replica of constellation state propagated in real-time. It includes positions, velocities, fuel levels, component health, and environmental conditions. Digital twins enable scenario testing ("what if satellite X fails?"), predictive maintenance, and mission planning without risking actual assets. Updates continuously from telemetry.
How is constellation health monitored?
Health monitoring tracks telemetry from each satellite: power generation, battery state, propellant reserves, communication link quality, attitude control status, and component temperatures. Anomaly detection identifies deviations from normal operations. Predictive analytics forecast component failures enabling proactive replacement before service degradation.
What happens when constellation satellites collide with each other?
Intra-constellation collisions are prevented through slot management and automated conjunction screening. If satellites drift from assigned slots or maneuver for collision avoidance, screening ensures maneuvers don't create secondary conjunctions with constellation members. Multi-event coordination prevents cascading conjunction scenarios within fleet.
How is end-of-life disposal planned for constellations?
End-of-life disposal follows 5-year rule requiring deorbit after mission completion. For LEO constellations, satellites perform deorbit burns lowering perigee into atmosphere. Constellation management systems track fuel reserves, predict deorbit capability, and schedule disposal maneuvers. Failed satellites that can't maneuver must have sufficient drag for natural reentry within 5 years.
Can constellation management be fully automated?
Routine operations including conjunction screening, slot maintenance, and health monitoring can be automated. High-level decisions like collision avoidance maneuver authorization, satellite replacement scheduling, and emergency responses typically require human oversight. Automation handles operational load while humans manage strategic decisions and exceptions.
Learn More
Read our complete guide to constellation management or explore the platform to see how we help constellation operators scale safely.