The IDH20G120C5 from Infineon Technologies is a silicon carbide (SiC) Schottky diode designed for high-voltage, high-frequency power applications. This diode leverages the superior material properties of SiC to deliver exceptional performance compared to traditional silicon diodes. It features a forward current of 20A and a reverse voltage of 1200V.

Applications

• Power Factor Correction (PFC) circuits
• Motor drives
• Solar inverters
• Uninterruptible Power Supplies (UPS)
• Industrial power supplies

Features

• 1200V Reverse Voltage
• 20A Continuous Forward Current
• SiC Schottky Diode Technology
• Zero Reverse Recovery Charge
• Temperature Independent Switching Behavior
• High Surge Current Capability
• RoHS Compliant

Benefits

• Improved Efficiency: SiC technology reduces switching losses, leading to higher efficiency in power electronic systems.
• Higher Frequency Operation: Enables higher switching frequencies, reducing the size and cost of passive components.
• Reduced Heat Dissipation: Lower forward voltage drop and switching losses minimize heat generation, improving system reliability.
• Enhanced System Reliability: Robust design and high surge current capability ensure reliable operation in demanding environments.
• Simplified Thermal Management: Reduced heat dissipation simplifies thermal design and cooling requirements.

The IDH20G120C5 offers a low forward voltage drop, minimizing conduction losses and improving overall system efficiency. Its zero reverse recovery charge eliminates switching losses, allowing for higher switching frequencies. This device is available in a through-hole package. With its superior performance and reliability, the IDH20G120C5 is an ideal choice for demanding power applications where efficiency, reliability, and compact size are critical requirements. The SiC Schottky diode ensures minimal switching losses even at higher temperatures. The robust design of the diode allows for a high surge current capability, protecting the device against transient overcurrent events. Its temperature-independent switching behavior ensures stable and predictable performance across a wide range of operating conditions.