1200V SIC POWER SCHOTTKY RECTIFIERS

175°C TJ operation Ultra-low switching loss Switching speeds independent of operating temperature Low total conduction losses High forward surge current capability High package isolation voltage Terminals finish: 100 Pure Tin “-A” is an AEC-Q101 qualified device All SMC parts are traceable

Discrete SiC Schottky Diodes

1200V SIC POWER SCHOTTKY RECTIFIER

175°C TJ operation Ultra-low switching loss Switching speeds independent of operating temperature Low total conduction losses High forward surge current capability High package isolation voltage Terminals finish: 100 Pure Tin “-A” is an AEC-Q101 qualified device All SMC parts are traceable

1200V SIC POWER SCHOTTKY RECTIFIER

175°C TJ operation Ultra-low switching loss Switching speeds independent of operating temperature Low total conduction losses High forward surge current capability High package isolation voltage Terminals finish: 100 Pure Tin “-A” is an AEC-Q101 qualified device All SMC parts are traceable

Discrete SiC Schottky Diodes

Discrete SiC Schottky Diodes

1200V SIC POWER SCHOTTKY RECTIFIER

175°C TJ operation Ultra-low switching loss Switching speeds independent of operating temperature Low total conduction losses High forward surge current capability High package isolation voltage Terminals finish: 100 Pure Tin “-A” is an AEC-Q101 qualified device Pb − Free Device All SMC p

Silicon Carbide Schottky Diode

Z-REC™ RECTIFIERS and ZERO-RECOVERY® RECTIFIERS SILICON CARBIDE Z-FET™ MOSFET

Silicon Carbide Schottky Diode Z-Rec® Rectifier

Features • 1.2kV Schottky Rectifier • Zero Reverse Recovery Current • High-Frequency Operation • Temperature-Independent Switching • Extremely Fast Switching Benefits • Replace Bipolar with Unipolar Rectifiers • Essentially No Switching Losses • Higher Efficiency • Reduction of Heat Sink

4th Generation 1200 V, 30 A Silicon Carbide Schottky Diode

Description With the performance advantages of a Silicon Carbide (SiC) Schottky Barrier diode, power electronics systems can expect to meet higher efficiency standards than Si-based solutions, while also reaching higher frequencies and power densities. SiC diodes can be easily paralleled to m