STTH12012TV1 Description
The STTH12012TV1 from STMicroelectronics is a high-performance dual diode module designed for chassis-mounted power applications. It features two independent standard recovery diodes in an ISOTOP® package, offering 1200V reverse voltage (Vr) and 60A average rectified current (Io) per diode. With a fast recovery time of 125ns and low forward voltage drop (2.25V @ 60A), this diode module ensures high efficiency and reduced switching losses in demanding circuits. Its 30µA reverse leakage current @ 1200V further enhances power conservation.
STTH12012TV1 Features
- High Voltage & Current Rating: 1200V Vr and 60A Io per diode, suitable for industrial power systems.
- Fast Recovery: 125ns trr minimizes switching losses, improving efficiency in high-frequency applications.
- Robust Packaging: ISOTOP® chassis-mount design ensures thermal stability and mechanical durability.
- Low Power Dissipation: 2.25V max forward voltage reduces heat generation.
- Reliable Compliance: ROHS3, REACH Unaffected, ECCN EAR99, and MSL1 (Unlimited) for global deployment.
- Wide Temperature Range: Operates up to 150°C junction temperature, ideal for harsh environments.
STTH12012TV1 Applications
- Power Supplies: High-efficiency rectification in SMPS, UPS, and industrial converters.
- Motor Drives: Used in inverters and regenerative braking systems for electric vehicles and industrial motors.
- Renewable Energy: Solar/wind power conditioning units requiring high-voltage blocking.
- Welding Equipment: Provides durable, high-current rectification in arc welding machines.
- Industrial Automation: DC bus clamping, freewheeling diodes in motor controllers and servo drives.
Conclusion of STTH12012TV1
The STTH12012TV1 stands out as a high-reliability, high-efficiency diode module for 1200V/60A applications. Its fast recovery, low leakage, and rugged ISOTOP® package make it superior to conventional diodes in thermal performance and switching efficiency. Ideal for industrial, automotive, and renewable energy systems, this module ensures long-term stability and reduced energy losses, making it a top choice for engineers designing high-power electronic systems.