The **VS-G10-R** is an industrial-grade **Single-Axis Gyroscope Module** (often part of a larger sensor suite) commonly used in robotics, stabilization systems, and navigation. It is designed to measure angular velocity around a specific axis. --- ### 1. Technical Specifications The core electronic characteristics of the VS-G10-R are typically categorized as follows: | Parameter | Specification (Typical) | | :--- | :--- | | **Sensor Type** | MEMS (Micro-Electro-Mechanical Systems) | | **Output Type** | Analog / Digital (Depending on interface board) | | **Operating Voltage** | 5V DC (Standard) | | **Measurement Range** | ±100 to ±300 degrees/second | | **Interface** | 3-pin or 4-pin header (VCC, GND, OUT/Signal) | | **Sensitivity** | High precision with low drift | --- ### 2. Key Electronic Components The module consists of several critical internal parts: * **MEMS Sensing Element:** A tiny mechanical structure that vibrates. When the device rotates, Coriolis forces cause a displacement in the vibration, which is measured capacitively. * **Signal Conditioning ASIC:** An internal Integrated Circuit (IC) that converts the tiny capacitive changes from the MEMS element into a measurable voltage or digital signal. * **Low-Pass Filter (LPF):** Electronic filtering components that remove high-frequency noise caused by mechanical vibrations or electromagnetic interference (EMI). * **Voltage Regulator:** Ensures the internal sensor operates at a stable voltage even if the input power supply fluctuates. --- ### 3. Pinout and Connection Most variations of the VS-G10-R follow this standard electronic wiring: ```yaml Pin 1: VCC (+5V Power Supply) Pin 2: GND (Ground) Pin 3: OUT (Analog voltage output representing angular velocity) Pin 4: NC/REF (Optional reference voltage or no connection) ``` --- ### 4. Application Logic The electronic output of the VS-G10-R is usually processed by a microcontroller (like an Arduino or PLC) using the following logic: 1. **Zero-G Voltage:** When stationary, the sensor outputs a specific "null" voltage (e.g., 2.5V). 2. **Clockwise Rotation:** The voltage increases above the null point. 3. **Counter-Clockwise Rotation:** The voltage decreases below the null point. 4. **Integration:** The software integrates the angular velocity over time to determine the actual **angle** of the robot or device.