ANELLO GNSS INS- High-Precision Navigation & Localization System with Optical Gyroscope

Service Details

The ANELLO GNSS INS is a next-generation navigation and localization solution designed for GNSS-challenged and GNSS-denied environments. Powered by ANELLO's proprietary SiPhOG™ optical gyroscope technology, this system delivers centimeter-level accuracy and low-drift performance even during extended GNSS outages. It is engineered for automotive, trucking, robotics, autonomy, and heavy equipment control applications, where reliability, safety, and precision are critical. With its dual 184-channel, dual-band GNSS receivers supporting GPS, GLONASS, Galileo, BeiDou, and QZSS, the ANELLO GNSS INS ensures robust positioning in multipath and harsh environments. The system integrates a high-accuracy z-axis optical gyroscope with a 6-axis MEMS IMU, providing reference-grade 100 Hz position, velocity, and attitude outputs. Key highlights include: <0.5°/hr unaided heading drift with optical gyroscope stability RTK accuracy up to 0.02 m CEP with <1 min initialization using RTCM3 corrections 60s GNSS outage resilience with <1.0 m RMS drift (with aiding) Velocity accuracy of 0.01 m/s RMS and attitude accuracy of 0.02° RMS Automotive-grade safety with ASIL-D rated CPU, ASIL-B microcontroller, and PXROS RTOS Time synchronization via PPS In/Out and full PTP hardware support Rugged IP68 housing resistant to dust, water, salt spray, and chemicals Interfaces: Automotive Ethernet and dual RS-232 ports for flexible integration Low power consumption of only 4W, supporting 8–30 VDC input The ANELLO GNSS INS is built for high-volume, cost-sensitive deployments without compromising on performance. Its modular GNSS engine allows customization for diverse applications, while built-in test (BIT) diagnostics and fault detection ensure operational reliability. Whether deployed in autonomous vehicles, advanced driver-assistance systems (ADAS), robotics, or precision heavy equipment, the ANELLO GNSS INS guarantees uninterrupted, high-accuracy navigation in the most demanding conditions.