The LandMark™006 is a high-performance six-axis MEMS IMU featuring ultra-low-noise gyroscopes and accelerometers, advanced VELOX™ processing and factory calibration over temperature. Offering up to 10 kHz data rates, 600 Hz bandwidth and less than 20 µs latency, it is ideal for stabilization, navigation, guidance and precision motion sensing applications, including operation in GPS-denied environments.
The LandMark™006 is factory calibrated and environmentally conditioned to deliver stable inertial performance from -50°C to +85°C, helping reduce drift and maintain measurement accuracy across changing operating conditions.
Gladiator’s VELOX™ processing architecture provides high-speed filtered digital output with minimal latency, enabling responsive and reliable motion sensing for demanding navigation, stabilization and control applications.
Each LandMark™006 is calibrated, modeled and conditioned over temperature, shock and vibration to ensure consistent gyroscope and accelerometer performance in real-world operating environments.
By combining precision MEMS gyroscopes and accelerometers, environmental conditioning and robust factory calibration in a compact package, the LandMark™006 helps simplify system integration, reduce development time and lower overall lifecycle costs.
Selecting an Inertial Measurement Unit (IMU) involves much more than comparing gyro ranges or accelerometer ranges. Parameters such as Angular Random Walk (ARW), Velocity Random Walk (VRW), Bias Stability, Bandwidth and Latency often have a greater impact on real-world navigation and stabilization performance than the basic measurement ranges themselves.
The Gladiator Technologies LandMark™006 combines precision MEMS gyroscopes and accelerometers with VELOX™ high-speed processing to provide accurate motion sensing for stabilization, navigation, guidance and autonomous systems operating in demanding environments.
An Inertial Measurement Unit (IMU) combines gyroscopes and accelerometers into a single sensor package.
The gyroscopes measure angular motion, while the accelerometers measure linear acceleration. Together, these measurements allow a system to determine orientation, motion and platform dynamics, even when GPS signals are unavailable or degraded.
This makes IMUs essential for UAVs, robotics, EO/IR stabilization systems, autonomous vehicles and precision navigation applications.
Angular Random Walk (ARW) is a measure of gyroscope noise and is typically expressed in °/√Hr.
Lower ARW values indicate cleaner gyro measurements and allow more accurate angle estimation over time.
For stabilization, navigation and guidance systems, low ARW helps reduce jitter and improve overall system accuracy.
Velocity Random Walk (VRW) is the accelerometer equivalent of ARW.
It represents the noise level of the accelerometer and directly affects velocity and position calculations.
Lower VRW values improve acceleration measurement quality and reduce accumulated navigation errors during extended operation.
Bias Stability describes how much the sensor output drifts while operating under stable conditions.
Low bias drift improves long-term accuracy and reduces accumulated errors in inertial navigation and stabilization systems.
For systems operating without frequent external corrections, bias stability is often one of the most important IMU performance parameters.
Temperature changes can significantly affect inertial sensor performance.
Bias Over Temperature specifies how much the sensor offset changes across the operating temperature range.
The LandMark™006 is factory calibrated and temperature conditioned from -50°C to +85°C, helping maintain stable performance across demanding environmental conditions.
Bandwidth determines how quickly the IMU can respond to changes in motion.
Higher bandwidth allows the system to accurately capture fast rotations, vibration and dynamic maneuvers.
The LandMark™006 supports bandwidths up to 600 Hz using VELOX™ Plus processing.
Data Rate defines how frequently sensor measurements are transmitted.
Higher update rates provide more detailed motion information and improve closed-loop control performance.
With output rates up to 10 kHz, the LandMark™006 supports demanding real-time applications requiring rapid response and precise motion tracking.
Latency is often overlooked when comparing IMUs.
Digital Message Delay represents the time required for measurements to be processed and delivered to the host system.
Lower latency improves control loop stability and reduces response delays in stabilization and guidance systems.
The LandMark™006 delivers message delays below 20 µs when configured with VELOX™ Plus processing.
Alignment describes how accurately the sensing axes are aligned relative to the mechanical reference axes of the IMU.
Low alignment error improves measurement accuracy and simplifies system integration, particularly in precision navigation applications.
Modern aerospace, defense, robotics and autonomous systems depend on more than just sensor range.
The combination of low ARW, low VRW, stable bias performance, high bandwidth, 10 kHz output rates and ultra-low latency allows the LandMark™006 to provide reliable inertial measurements in demanding real-world environments.
By integrating precision MEMS gyroscopes and accelerometers into a compact 17-gram package, the LandMark™006 delivers tactical-grade IMU performance for stabilization, navigation and motion control applications.
For technical assistance, evaluation units or integration support, contact Amironic, the official representative of Gladiator Technologies in Israel.
