Toshiba Landing Page

SiC MOSFET & SBD Campaign

View the Presentation
Toshiba Logo
Electronic Devices & Storage Corporation → CONTACT US

3rd-Generation Silicon Carbide (SiC) Technology for High-Voltage Power Systems

Higher efficiency. Lower losses. Better thermal performance.

Toshiba’s 3rd-generation SiC MOSFETs and Schottky Barrier Diodes (SBDs) deliver high efficiency, lower switching losses, and stronger thermal performance across demanding power designs. From EV charging to renewable energy systems, SiC enables cooler, smaller, more efficient power architectures.

Download SiC Slides & Case Studies
SiC Presentation

Why SiC Matters in Modern Power Systems

Higher Efficiency Requirements

High-voltage systems face strict efficiency demands. Switching and conduction losses directly impact thermal design, reliability, and system size.

Increasing Thermal Stress

As power density rises, devices must operate reliably at elevated temperatures. SiC maintains stable characteristics where silicon devices degrade.

Voltage & Fast Switching Demands

Applications operating at 650–1200V require devices that support fast switching while maintaining safe voltage margins and reducing system stress.

Watch the Silicon Carbide (SiC) Technology Presentation

See how Silicon Carbide (SiC) devices improve efficiency, reduce switching losses, and deliver superior thermal behavior in high-voltage designs. This presentation explains key advantages using clear charts and visuals you won’t get from a datasheet alone.

Vector Engine presentation preview

→ Watch full 9.32 presentation after submitting form

Why Watch This Video

A fast, visual explanation of the benefits of SiC technology—why it solves modern power-design challenges, and how Toshiba’s 3rd-generation devices outperform traditional silicon.

Effect of SiC adopton (Si IGBT vs SiC MOSFET)

Lower switching losses and improved thermal margins

How Toshiba SiC Improves System Efficiency

Toshiba’s SiC MOSFETs and SBDs reduce conduction and switching losses, maintain stable thermal behavior, and enable higher switching frequencies. Designers benefit from simplified thermal management and smaller magnetics, providing measurable efficiency gains compared to Si IGBTs.