From Static Calibration to Extreme Dynamic Simulation
Conventional test tables often struggle to deliver the combination of ultra-high angular rate and arc-second accuracy required for next-generation inertial sensors—where performance must be verified from near-static drift to extreme high-speed maneuvers. The BE-INS3-22D31 delivers ≤±10 arcsec positioning accuracy with ≤±5 arcsec repeatability, combined with a maximum angular rate of ±10000°/s and acceleration of 10000°/s². Rather than a simple positioning device, this system enables realistic simulation of high-speed aerospace dynamics, generating comprehensive performance signatures for gyroscopes, accelerometers, and optical sensors across the full operational spectrum.
Three-Axis Independent Control for Complex Motion Profiles
The BE-INS3-22D31 features independent three-axis control with 360° continuous rotation on the inner axis, ±100° range on the middle axis, and 0–360° range on the outer axis. This configuration supports complex multi-axis motion profiles essential for simulating real-world navigation scenarios—from satellite attitude maneuvers to high-speed aircraft trajectories. The system's exceptional rate accuracy and stability—maintained at 5×10⁻⁵ over 360° averages—ensure consistent, repeatable test conditions critical for reliable sensor validation.
Optical-Grade Platform for Precision Sensor Mounting
The BE-INS3-22D31 features a φ320mm super-hard aluminium alloy mounting table with 10kg payload capacity and φ180mm×200mm maximum load size, providing a stable, precision platform for mounting gyroscopes, accelerometers, and optical sensors. The system's robust construction and approximately 120kg equipment weight ensure stability across extended high-speed test sequences, minimizing vibration and mechanical interference that could compromise measurement integrity.
Enabling High-Speed Test Automation for Production Efficiency
In response to the growing demand for operational efficiency in aerospace sensor manufacturing and validation, the BE-INS3-22D31 offers comprehensive remote control interfaces, seamlessly integrating into existing automated test frameworks. Whether for high-throughput MEMS sensor screening or R&D-grade aerospace navigation system characterization, the system executes unattended test sequences via script-driven automation. This transition elevates high-dynamic sensor validation from manual craftsmanship to a data-driven, auditable, and fully traceable quality foundation—empowering aerospace manufacturers and navigation system developers with quantifiable confidence in their components.
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