High-Speed, High-Efficiency Power Design Using GaN

Opening the Door to Next-Generation Power Design with CoolGaN™

Breaking through silicon limitations—redesigning efficiency and performance with GaN

The landscape of power conversion technology is shifting.
GaN (gallium nitride) technology, which satisfies three key requirements—high efficiency, high frequency, and miniaturization—
is emerging as a new standard that transcends the limitations of conventional silicon-based devices.

In this webinar, centered on Infineon's CoolGaN™ technology,
we will provide a comprehensive overview of GaN fundamentals through practical design implementation, addressing key topics engineers want to understand.
 

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💡 Webinar Highlights

📘 1. Why is GaN Technology Gaining Attention?
     – Structural differences from silicon
     – The secret behind low on-resistance, fast switching, and high-frequency operation

🔍 2. GaN Performance Advantages Compared to Silicon
     – Technology innovation through key parameter comparison
     – Impact on energy efficiency improvement and heat reduction

💡 3. Introduction to Infineon CoolGaN™ Product Portfolio
     – Various voltage/current/package options
     – Recommended product combinations by major application

🧰 4. Practical Design Guide: Learning GaN Design with Demo Boards
     – Power device selection expertise
     – Considerations for gate driver and PCB design
     – Layout tips for high-frequency implementation
 

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👀 Recommended for These Professionals

     ✔️ Power electronics engineers interested in high-efficiency power supply circuit design
     ✔️ Developers considering design migration from Si to GaN-based solutions
     ✔️ Circuit designers working on high-speed switching/high-frequency power conversion
     ✔️ Power system planners with carbon reduction and miniaturization objectives
 

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Transform your power design direction with CoolGaN™.
We invite you to discover the essentials of GaN technology as the new standard in this webinar.
This could be the beginning of design innovation that surpasses silicon efficiency.