onsemi

MBR20100CTG

MBR20100CTG Description

The MBR20100CTG from onsemi is a high-performance Schottky diode array designed for power rectification applications. This obsolete through-hole component belongs to the SWITCHMODE™ series, featuring a 1 Pair Common Cathode configuration with a 100V DC reverse voltage (Vr) rating and 10A average rectified current (Io) per diode. Its Schottky technology ensures fast recovery (<500ns) and low forward voltage drop (850mV max @ 10A), making it efficient for high-current switching. Packaged in a TO-220 tube, it meets industrial standards with REACH Unaffected compliance and MSL 1 (Unlimited) moisture sensitivity.

MBR20100CTG Features

• Low Power Loss: Schottky design minimizes forward voltage drop (Vf), reducing heat dissipation.
• Fast Recovery: Sub-500ns recovery time enhances efficiency in high-frequency circuits.
• High Current Handling: 10A per diode rating suits demanding power applications.
• Robust Construction: TO-220 package ensures thermal and mechanical reliability.
• Low Reverse Leakage: 100µA @ 100V leakage current improves energy efficiency.
• Common Cathode Configuration: Simplifies circuit design in bridge or synchronous rectifier setups.

MBR20100CTG Applications

Ideal for:

• Switch-Mode Power Supplies (SMPS): Leverages fast recovery for reduced switching losses.
• DC-DC Converters: Low Vf maximizes efficiency in step-up/down circuits.
• Motor Drive Circuits: Handles high surge currents in industrial inverters.
• Solar Power Systems: Efficient energy harvesting in MPPT controllers.
• Automotive Electronics: Reliable performance in alternator rectifiers and battery charging.

Conclusion of MBR20100CTG

The MBR20100CTG stands out for its high-current capability, fast switching, and low conduction losses, making it a preferred choice for power electronics requiring efficiency and durability. While obsolete, its TO-220 package and Schottky advantages ensure compatibility with legacy designs. Engineers should consider this diode array for applications demanding minimal thermal stress and high-frequency operation, though newer alternatives may offer updated features.