Ensure long-term accuracy in IPM motor encoders with these 10 best practices. Discover essential strategies, from vibration mitigation to software updates, for reliable motor performance in demanding applications
Calibrating sin/cos encoders in high-speed IPM motors faces challenges like EMI, vibration, and temperature effects. This blog delves into these hurdles and offers solutions for accurate, reliable encoder signal calibration in demanding EV applications
Discover the five main causes of sin/cos encoder signal errors in IPM motors used in EVs. Learn how misalignment, EMI, temperature extremes, vibration, and cable damage affect performance and ways to ensure reliable motor control.
This guide explains why orthogonality is important, how to test for it, and practical methods to ensure it during encoder calibration.
"Explore essential shielding techniques to protect encoders from EMI in IPM motors. Learn about shielded cables, metallic enclosures, ferrite beads, and grounding practices to ensure reliable motor control in high-power EV systems."
Explore how calibrating Sin/Cos encoders in IPM motors is like tuning a guitar. This blog connects technical calibration with real-world examples, simplifying complex concepts for a deeper understanding of precision engineering
Explore the transformative power of FoC with flux weakening and trapezoidal control in motor technology, driving PMSM and Induction Motors towards unprecedented efficiency and control.
In the EV workshop, an engineer measures motor output as his colleague connects MCUs. Their teamwork epitomizes the expertise taught at EVProSchool, where students become masters of electric vehicle technology.
Engineering Excellence" explores the vital steps in developing motor controllers, focusing on system requirements, software development, and control strategies like FoC and Sine Control. It highlights collaboration among engineers to advance motor technology, emphasizing efficiency and precision.
Dive into EVProSchool's guide on FoC in EV motors: from selecting precise sensors, identifying motor specs, to crafting algorithms. Achieve mastery over electric motor control for optimal performance and efficiency.
Discover electric motor PID control systems with EVProSchool. Learn how feedback loops, error correction, and control signals ensure motor efficiency and performance. Master technical concepts with our expert guides for professional advancement.
NTC sensors decrease in resistance with rising temperatures, ideal for precision temperature monitoring. PTC sensors, conversely, increase resistance as temperatures climb, serving as effective overcurrent protectors. Both play crucial roles in diverse applications, ensuring thermal efficiency.