As silicon carbide has matured as a technology and been adopted in countless power conversion designs, questions still arise relative to maximizing its performance. This white paper offers answers to common questions associated to SiC design considerations, such as:
- Why does SiC add so much value to systems?
- Is SiC as reliable as silicon? Are they tested the same way?
- How do I ruggedize the design for thermals, EMI, and short circuit protection?
- How do I select gate drivers for optimum power conversion and control?
- Why is the switching frequency limited to 65 kHz in your totem-pole reference design even using SiC compared to Si?
- How do I optimize the system for improved efficiencies, max power density and lowest system cost?
- How do I choose the right SiC MOSFET? Are the datasheets/parameters and models the same as silicon?
- What is the maximum temperature I can run a SiC MOSFET at without having reliability concerns?
- How can I calculate conduction losses over temperature?
- How do I optimize for switching frequency?
This paper addresses the current SiC landscape and advantages, designing with losses, switching frequency, the effects and considerations of inductances, gate driving, noise, and applications enabled by SiC.
SiC Makes for Smarter Semi Fab/Process Power Supplies
Semiconductor device fabrication processes have several distinct and intricate steps. Power supplies used in semiconductor fab equipment are essential for every task at the front and back end of the process.
Dynamic Characterization and Measurement Methods for SiC MOSFETs
Learn how Wolfspeed’s SiC MOSFET clamped inductive load (CIL) test system can help you accurately model your design.
How Wolfspeed’s SiC Technology Benefits Grid-Tie Applications
This white paper highlights Wolfspeed’s wide SiC portfolio suited for many different applications, available web-based tools to quickly help customers evaluate parts for their systems.