Autoro AESC V4 Single Drive ESC 50V for ESK8 E-Bike Scooter Robot

LED INDICATOR STATUS ·Blue:Deviceis powerd up. ·Green Dim:SW Running>>Software (Firmware) installed and running. ·Green Bright: Device is driving the motor. ·Red: Fault codesomething is wrong! Read out the fault code in VESC-Tool. FEATURES ·Controlled by the STM32F4 microcontroller, frequency up to 1 6 8 MHz. ·Sensored and sensorless FOC with auto-detection ofallmotor parameters ·Brushless, brushed DC motors and IPM motors are supported. ·Robust starting torque performance in both sensorless and sensored modes. ·Support four control modes: Duty-cycle Control, Speed Control, Current Control and Position Control. ·Real-time data logging and monitoring. ·Adjustable protection against: ▶Low input voltage limit. ▶High input voltage limit. ▶High motor current limit. ▶High input current limit. ▶High regenerative braking current limit(separate limits for motor and input). ▶High ERPM limit(separate limits for each direction). ·Overtemperature protection. ·Support motor temperature detection and compatible with motor temperature sensors including: NTC 10K at 25℃, NTC 100K at 25℃, PTC 1K at 100℃, KTY83/122, etc. ·The compact controller design fits in any confined space. AESC V4&AESC V6.7 have the same size: 55mm*45mm*17mm (2.17in*1.77in*0.67inch)

• Versatile Compact Design: The Autoro AESC ESC delivers in a compact form factor. It's expertly designed for low-voltage electric vehicle applications like ESK8, e-bikes, scooters, motorcycles, and robotics
• VESC-Based Programmable ESC: Leverages the power of a customizable firmware platform to deliver adaptable control for multiple brushless and brushed DC motor applications
• FOC Technology & Multi-Motor Support: Multi-motor FOC controller featuring automatic parameter identification
• Reliable Startup & Flexible Control: Delivers consistent performance from startup in both sensorless and sensored modes. Offers multiple control options including Duty Cycle, Speed, Torque, and Position Control to suit various applications
• Ongoing System Diagnostics: Continuously monitor core system status to facilitate necessary parameter adjustments. This enables optimized energy usage and proactively prevents potential instability