Fiber Optic Gyro

Product Description MFOG-24 Micro-Nano Fiber Optic Gyroscope is a compact high-performance angular rate sensor based on the Sagnac effect. Integrating optical, mechanical, and electronic systems, it detects rotational motion by processing phase differences between counter-propagating light beams. With no moving parts, fast startup, and excellent environmental resistance, it is ideal for modern navigation platforms requiring high reliability. Main Performance Serial number

High Reliability MEMS Gyro Chip for Robotics and Autonomous System High-Precision MEMS Gyroscope for Inertial Measurement Unit Our MEMS gyroscope chip delivers high-precision angular rate sensing for advanced inertial navigation and motion control applications. Designed with aerospace-level reliability and industrial-grade durability, it provides ultra-low noise, low bias instability, and excellent temperature stability for platforms that require long-term accuracy and robust

Navigation Grade MEMS Gyroscope Chip for UAV & Navigation High-Precision MEMS Gyroscope for Inertial Measurement Our MEMS gyroscope chip delivers high-precision angular rate sensing for advanced inertial navigation and motion control applications. Designed with aerospace-level reliability and industrial-grade durability, it provides ultra-low noise, low bias instability, and excellent temperature stability for platforms that require long-term accuracy and robust performance.

MFOG-1703 Fiber Optic Gyroscope The MFOG-1703 is a solid-state micro-nano fiber optic gyroscope that delivers precise angular rate data through advanced internal detection, processing, and closed-loop control of optical phase differences. This robust system integrates an optical path module, detection and control electronics, and a durable mechanical structure. Features standardized interface and form factor for seamless replacement of Fizoptika VG1703 Technical Specification

Navigation Fiber Optic Gyroscope Sensor with Low Bias Instability Based on the Sagnac effect, the MFOG-1703 micro-nano fiber optic gyroscope integrates optical, electronic, and structural subsystems into a highly reliable angular rate sensor. Its solid-state design eliminates mechanical wear, ensuring long service life and stable performance. The product operates over a wide temperature range and withstands strong vibration and shock, making it suitable for demanding

FOG Inertial Sensor for High Accuracy Motion Control The MFOG-1703 micro-nano fiber optic gyroscope is a compact, lightweight angular rate sensor developed using advanced fiber-optic sensing technology. By detecting the phase shift of counter-propagating light waves, it accurately measures angular motion with high stability and low noise. With dimensions of only φ40 × 20 mm and weight ≤40 g, this sensor is ideal for space-constrained platforms. MFOG-1703 provides equivalent

Single-Axis Fiber Optic Gyroscope Sensor Fizoptika VG1703 for Stabilized Platform The MFOG-1703 is a micro-nano fiber optic gyroscope designed as a direct replacement for the Fizoptika VG1703 . This angular rate sensor utilizes the Sagnac effect and integrates optical path assemblies, signal processing circuits, and precision structural components. With no mechanical moving parts, this gyroscope delivers exceptional stability, high shock and vibration resistance, and rapid

Integrated Fiber Optic Gyroscope for IMU and INS The MFOG-1703 micro-nano fiber optic gyroscope is a high-performance angular rate sensor that integrates optical, mechanical, and electronic technologies. Based on the Sagnac effect, it utilizes micro-nano fiber components to detect angular velocity by measuring the phase difference between two counter-propagating light beams. Featuring a compact cylindrical structure with no moving or wearing parts, the MFOG-1703 offers fast

Fiber Optic Gyroscope FOG for Reliable Motion Sensing and Navigation in UAV Designed for demanding environments, the MFOG-24 is rugged , lightweight , and highly resistant to shock and vibration. With no moving parts, it delivers reliable performance and long service life. Applications: Ideal for autonomous vehicles , robotics , and precision navigation systems . Main Performance Parameters Serial Number Project MFOG-24 MFOG-24-AN 1 Range (°/s) ±500 ±300 2 Scale Factor 3600

FOG-Based Inertial Sensors for Autonomous Vehicles and Robotics - Fizoptika VG191AD Utilizing the Sagnac principle , the MFOG-24 provides real-time, precise angular rate measurements. It features integrated optical and electronic modules for fast start-up and outstanding precision. Applications Platform stabilization systems Aerospace navigation systems Surveying instruments Satellite pointing systems Motion control systems Main Performance Parameters Serial No. Parameter

MFOG Fiber Optic Gyroscope for Accurate Measurement in Dynamic Environments The MFOG-24 features a solid-state design that integrates optical fibers, electronics, and mechanical components to measure angular rates with exceptional precision. This innovative design eliminates mechanical wear, ensuring maintenance-free operation and long-term reliability. Applications Airborne navigation systems Marine navigation equipment Vehicle attitude control systems Industrial automation

Single Axis Open-loop Fiber Optic Gyro MFOG-24 with 1.5° Bias Stability The MFOG-24 leverages micro-nano fiber optics for ultra-precise angular rate measurement. Despite its miniaturized form factor, it provides high stability and quick initialization. Applications Autonomous drones Navigation systems Navigation-grade inertial systems Inertial measurement units (IMU) Main Performance Parameters Serial No. Project MFOG-24 MFOG-24-AN 1 Range (°/s) ±500 ±300 2 Scale factor 3600

Fizoptika VG191AD FOG Fiber Optic Gyroscope for Inertial Navigation Product Overview The MFOG-24 Micro-Nano Fiber Optic Gyroscope is a cutting-edge angular rate sensor based on the Sagnac effect , featuring an ultra-compact cylindrical design (Φ24 * 39 mm). With no moving parts, this gyroscope ensures long-term reliability, rapid start-up, and high accuracy. Applications Attitude control in UAVs (Unmanned Aerial Vehicles) Robotic navigation systems Vehicle motion tracking

Fiber-Optic Azimuth True-North Finder for Geotechnical Survey The Fiber Optic Gyroscope (FOG) North Finder is a precision instrument used to determine true north quickly and accurately without relying on GPS or magnetic fields. It measures the Earth's rotation angular velocity through high-precision fiber optic gyroscopes and calculates azimuth information for navigation and orientation applications. Suitable for land vehicles, ships, and defense systems requiring reliable

High Stability Inertial Sensor MEMS Gyro Chip for OEM IMU Integration Our MEMS gyroscope chip delivers high-precision angular rate sensing for advanced inertial navigation and motion control applications. Designed with aerospace-level reliability and industrial-grade durability, it provides ultra-low noise, low bias instability, and excellent temperature stability for platforms that require long-term accuracy and robust performance. Engineered for UAVs, autonomous robots, and

MEMS Gyroscope Chip for Inertial Measurement Unit Our MEMS gyroscope chip delivers high-precision angular rate sensing for advanced inertial navigation and motion control applications. Designed with aerospace-level reliability and industrial-grade durability, it provides ultra-low noise, low bias instability, and excellent temperature stability for platforms that require long-term accuracy and robust performance. Engineered for UAVs, autonomous robots, and industrial

High Stability MEMS Gyroscope Chip for MEMS IMU & Inertial Navigation Systems MEMS Gyro Chips Fiber Optic Gyro PCB for High Precision Navigation The decoupling capacitors for pins VCP, VREF, VBUF, and VREG should be placed as close to the pins as possible, and the equivalent resistance of the traces should be minimized. The other ends of the decoupling capacitors for VREF, VBUF, and VREG are connected to the nearest AVSS_LN and then to signal ground via a magnetic bead. The

16-Array Advanced Anti-Jamming Antenna for Satellite Ground Station Calibration Model: FPD24005-66-GNSS-12V. This advanced anti-jamming antenna protects platforms from both unintentional interference and malicious attacks, significantly enhancing PNT (Positioning, Navigation, and Timing) information security. Product Features Advanced anti-deception capabilities Jamming power detection for convenient calibration and system testing Supports secondary development with spectrum

1.5W Power Consumption Optical Gyroscope RS422 Output Angular Speed Sensor Based on the Sagnac effect, this gyroscope utilizes cutting-edge micro-nano fiber devices to achieve high-precision measurement. It detects angular velocity by monitoring the phase difference between counter-propagating light beams, processing this information through sophisticated electronics for precise feedback in control or measurement systems. Designed for reliability, the gyroscope features a

Low Bias Angular Rate Sensor Fiber Gyroscope Meter The MFOG-1703 Micro-Nano Fiber Optic Gyroscope is an advanced angular rate sensor that seamlessly integrates optical, mechanical, and electronic technologies for precise measurement applications. Key Features Simple structure with no moving or wear parts Fast startup and compact design (φ40*20mm) Lightweight construction for versatile applications Ideal for attitude control and carrier measurement systems Technical Components