The part number **10VF-H60-R** typically refers to a specific series of **Vibration Motors** (often categorized under eccentric rotating mass or linear resonant actuators) or specific **Connectors/Passive components** depending on the manufacturer (such as Nidec, Copal, or generic electronic hardware suppliers). Based on standard electronic nomenclature, this part is most commonly associated with **micro-vibration motors** used in haptic feedback devices. --- ### Technical Specifications Below is a breakdown of the typical technical attributes associated with this component class: | Parameter | Typical Value | Unit | | :--- | :--- | :--- | | **Rated Voltage** | 3.0V - 10.0V | DC | | **Operating Current** | 60 - 100 | mA | | **Rotation Speed** | 8,000 - 12,000 | RPM | | **Operating Temp** | -20 to +60 | °C | | **Mounting Type** | Through-hole or SMD | - | --- ### Component Breakdown The alphanumeric code can be decoded as follows: * **10V**: Often denotes the voltage rating (e.g., 10 Volts) or the physical diameter/size (10mm). * **F**: Usually indicates the functional type (e.g., "Flat" type motor or "F" for flexible PCB connection). * **H60**: Typically refers to the height/thickness (6.0mm) or a specific torque/speed characteristic. * **R**: Generally stands for **RoHS Compliant** or **Reel** packaging. --- ### Common Applications These parts are engineered for small-scale electronics requiring physical user alerts: 1. **Mobile Devices**: For silent alerts and haptic touch feedback. 2. **Wearables**: Integrated into smartwatches for notifications. 3. **Industrial Handhelds**: Used in scanners to confirm successful data entry. 4. **Medical Equipment**: Portable monitors that require discreet vibration alarms. ### Implementation Example (Basic DC Drive) To drive a component like the 10VF-H60-R, a simple transistor switch circuit is recommended to protect the microcontroller: ```cpp // Basic Arduino code to trigger a vibration motor int motorPin = 9; // PWM pin void setup() { pinMode(motorPin, OUTPUT); } void loop() { analogWrite(motorPin, 150); // Set vibration intensity (0-255) delay(500); // Vibrate for 500ms analogWrite(motorPin, 0); // Stop delay(1000); } ``` ---