We encourage you to attend this webinar as we research the high-performance STSPIN32G4 3-phase motor controller and explain its most critical features. Throughout the webinar, ST evaluation boards and motor control libraries will be used to guide step-by-step installation and tuning of the system.

The following topics will be covered in the webinar:

Very important features of the STSPIN32G4 3-phase motor controller

Unique features and benefits of STSPIN32G4
How to set up a working system with the STSPIN32 evaluation board and our Motor Control SDK

Using the evaluation board with STSPIN32G4
How to integrate the Motor Control SDK and start the project

Agenda

Timing and schedule of the webinar
Introduction to STSPIN32G4

Key features and functions of STSPIN32G4
Starting the project using MCSDK

Project initiation process using the Motor Control SDK
Current regulator adjustment

How to configure and set current regulation
Switching from open loop to closed loop

Transition stages of motor control from open loop to closed loop
Troubleshoot common problems

How to troubleshoot and debug possible problems with STSPIN32G4
Speed governor adjustment

How to set and control engine speed
By attending the webinar, you will fully understand the features of the STSPIN32G4 3-phase motor controller and successfully implement your motor control projects using this powerful controller.

13 June 2023
Tuesday ► 03:00 CEST

Registration link:
https://content.st.com/stspin32g4-sip-for-3-phase-bldc-motor-control-webinar.html?ecmp=tt33350_em_enews_jun2023

Note 1:

About STSPIN32G4

STSPIN32G4 is a highly integrated and flexible motor controller for driving 3 phase brushless motors, it helps designers to choose the most suitable driving mode and reduce PCB space, and overall Bill Of Materials.It's 1 A current capacity (sink and source) power MOSFET' It installs a triple half-bridge gate driver that can drive All three bootstrap diodes are embedded.

Note 2:

What is BLDC Motor?

BLDC (Brushless DC) motor is a type of brushless direct current (DC) motor. In conventional DC motors, rotation direction and speed control are provided by using mechanical contacts called brushes, while brushes are not used in BLDC motors. Instead, an electronically controlled power electronic circuit causes the magnetic field to rotate in the rotor of the motor.

BLDC motors have advantages such as high efficiency, longer life, lower maintenance requirement and high speed-torque performance. They also run quieter and produce less vibration. For this reason, BLDC motors are preferred in various applications, especially in areas such as automotive, industrial machinery, household appliances, robotics and aerospace.

BLDC motors have two main types, with or without magnetic sensors. BLDC motors with magnetic sensors use sensors to detect the rotor position, while sensorless BLDC motors use advanced control algorithms for position feedback. Sensorless BLDC motors may have less complexity and lower cost, but the control difficulty may be slightly higher compared to sensor motors.