In the field of drones that pursue high performance and controllable costs, the ER-MG-067 MEMS gyroscope stands out. The core of its market success lies in breaking the traditional perception that price and accuracy cannot be achieved at the same time. How did it achieve this breakthrough?
Double breakthrough in performance and cost:
Adopting a compact 11x11x2mm ceramic sealed package to ensure durability.
Leading core performance indicators: zero bias instability as low as <0.3°/h, angle random walk control at <0.125°/√h, zero bias stability up to 3°/h.
A rare balance between tactical-level accuracy and consumer-level cost is achieved. Compared with traditional tactical-level devices, it has a significant cost advantage; compared with ordinary consumer-level products, its accuracy performance is far ahead.
This "tactical-level performance, affordable threshold" feature makes it an ideal choice for building high-performance drone core systems.
Reliable operation without fear of challenges:
Drones often have to deal with harsh working conditions - severe vibrations and extreme temperatures (-40°C to +85°C) are commonplace.
Designed for reliability, the ER-MG-067 has excellent shock and vibration resistance and can operate stably in the above wide temperature range.
This stable performance in harsh environments is the key cornerstone to ensure the continued safe flight and precise navigation of drones.
Precisely adapted measurement capabilities:
The accuracy and response speed of attitude perception are directly related to the stability of flight control.
The ER-MG-067 provides a wide dynamic measurement range of ±400°/s, which can quickly and accurately capture various flight attitude changes.
This allows drones to maintain excellent flight stability and controllability even when performing high-speed maneuvers or complex flight actions.
Summary:
The ER-MG-067 has successfully set a market benchmark with its breakthrough ultra-high cost-performance, excellent reliability in harsh environments, and precise measurement range that meets needs. Its deep integration with drone attitude perception and stability control systems significantly improves the safety and reliability of intelligent flight equipment.
Application Techniques
1.Integrated method of three-axis MEMS gyroscope
2.Comparative analysis of integrated modes of three-axis MEMS gyroscope
3.MEMS Gyroscope: Error Compensation By Allan Variance Method
4.Basic Knowledge of Bias Stability of MEMS Gyroscope
5.Bandwidth test method of MEMS gyroscope
6.MEMS Gyroscope: Sensitive Structure | Detection Circuit | Integrated Package