Venturing billions of kilometers into the cosmos demands precision that never falters—where GPS vanishes and every degree defines mission success. Our RLG-powered Inertial Navigation Systems (INS) deliver autonomous, ultra-precise attitude control for next-generation spacecraft.
Built on the proven Sagnac effect and featuring zero moving parts, our advanced Ring Laser Gyroscope (RLG) technology achieves sub-arcsecond accuracy with near-zero drift over extended mission durations. Radiation-hardened, compact, and exceptionally robust, it performs reliably in deep space, lunar orbit, and cislunar environments.
Full autonomy: Operates without external signals during blackouts or eclipses
Long-term stability: Precise pointing for instruments, antennas, and docking
Maximum reliability: Wear-free design minimizes failure in harsh conditions
Optimized SWaP: Reduced size, weight, and power for efficient payload integration
Mission efficiency: Faster deployment with fewer redundancies
As deep-space and lunar exploration missions accelerate toward 2026 and beyond, our RLG-powered INS enables true independence and precision far beyond Earth.
Achieve precision beyond the stars — connect with us to integrate advanced spacecraft inertial navigation into your mission.
#RLGInertialNavigationSystem #RingLaserGyroscope #spacecraftnavigationsystem #Deepspacenavigation #Autonomousspacenavigation #Radiation-hardenedINS #High-precisiongyroscope #Aerospaceinertialsystems #Cislunarnavigation #Space-gradeIMUINS
Venturing billions of kilometers into the cosmos demands precision that never falters—where GPS vanishes and every degree defines mission success. Our RLG-powered Inertial Navigation Systems (INS) deliver autonomous, ultra-precise attitude control for next-generation spacecraft.
Built on the proven Sagnac effect and featuring zero moving parts, our advanced Ring Laser Gyroscope (RLG) technology achieves sub-arcsecond accuracy with near-zero drift over extended mission durations. Radiation-hardened, compact, and exceptionally robust, it performs reliably in deep space, lunar orbit, and cislunar environments.
Full autonomy: Operates without external signals during blackouts or eclipses
Long-term stability: Precise pointing for instruments, antennas, and docking
Maximum reliability: Wear-free design minimizes failure in harsh conditions
Optimized SWaP: Reduced size, weight, and power for efficient payload integration
Mission efficiency: Faster deployment with fewer redundancies
As deep-space and lunar exploration missions accelerate toward 2026 and beyond, our RLG-powered INS enables true independence and precision far beyond Earth.
Achieve precision beyond the stars — connect with us to integrate advanced spacecraft inertial navigation into your mission.
#RLGInertialNavigationSystem #RingLaserGyroscope #spacecraftnavigationsystem #Deepspacenavigation #Autonomousspacenavigation #Radiation-hardenedINS #High-precisiongyroscope #Aerospaceinertialsystems #Cislunarnavigation #Space-gradeIMUINS