Applications

In the field of high-precision directional measurement, fiber optic gyroscopes and laser gyroscope north finders have long dominated. Although they have considerable accuracy, their large size, high power consumption, and expensive manufacturing costs make it difficult for many applications that are...

In today's era where autonomous systems' collaborative operations are becoming increasingly prevalent, providing stable and unified global navigation reference for distributed robotic clusters has always been a key technical challenge. Recently, the C9000 series high-precision six-axis full-attitude...

MEMS inclinometers must undergo full-temperature testing, as temperature variation—not nonlinearity—constitutes their largest error source. The elastic modulus of sensitive materials, reference voltage, and amplifier gain all drift with temperature. Full-temperature testing allows these...

In differential capacitive accelerometers, the core design is a "sandwich" structure: a movable sensitive mass block in the middle (as a common electrode), and fixed electrodes on the upper and lower sides. When there is no acceleration, the mass block is located in the center, and the upper and low...

  As a vertically integrated original manufacturer of inertial sensing technology, Micro-Magic Inc has built a comprehensive industrial layout covering aerospace, unmanned aerial vehicles (UAVs), oil and gas exploration, marine engineering, and industrial automation. Leveraging self-developed f...

    The classification of inertial sensors is, in essence, determined by the duration for which they can maintain autonomous inertial navigation accuracy in the absence of external corrections (such as GNSS). Different grades correspond to distinct hardware architectures, signal processing...

The anti-vibration design of fiber optic gyroscope is a typical engineering optimization problem that requires collaborative efforts in mechanical structure, optical path design, and signal processing. The current mainstream solution is to physically isolate vibrations, suppress error sources on the...

Inertial sensor original manufacturers—operating under the IDM (Integrated Device Manufacturer) model, which entails in-house R&D and manufacturing—realize a "full-link" advantage. This advantage represents not merely a closed loop in technical methodology, but a profound transformat...

An inertial sensor is a device capable of measuring an object's motion state in space solely by relying on intrinsic physical laws, without depending on any external signals (such as GPS or Wi-Fi). Its core components are accelerometers and gyroscopes; these devices frequently work in tandem, someti...

I. Brief Overview of IMU Underlying Architecture The core hardware of an Inertial Measurement Unit (IMU) consists of accelerometers and gyroscopes, which measure linear acceleration and angular velocity, respectively. Industrial-grade and higher-tier IMUs typically employ MEMS technology, while hig...

In the fields of inertial navigation, motion control, and high-precision attitude measurement, the performance of inertial sensors (gyroscopes and accelerometers) directly determines the upper limit of the entire system's accuracy. For engineers, understanding the practical significance of key para...

In inertial navigation and motion control projects, sensor bias, thermal drift, and noise are the three core error sources affecting system performance. The following section outlines their manifestations, impact on the system, and mitigation strategies from an engineering perspective.   1. Bia...