SMCJ13A-13-F TVS Diode from Diodes Incorporated

The SMCJ13A-13-F is a robust transient voltage suppressor (TVS) diode designed by Diodes Incorporated to protect sensitive electronic equipment from voltage transients induced by system-level events or other external surge disturbances. This high-quality TVS diode is engineered to shield your devices in a variety of applications, including consumer electronics, industrial systems, and communication networks.

Key Features

• Stand-Off Voltage: The SMCJ13A-13-F has a stand-off voltage of 13V, making it suitable for a range of protection needs in circuits with similar working voltages.
• Peak Pulse Power: It can handle a substantial peak pulse power of 1500 Watts at 10/1000μs waveform, providing a high degree of surge protection.
• Clamping Voltage: With a clamping voltage of 21.5V, this TVS diode ensures that any transient voltage spike is capped at a safe level for your circuitry.
• Uni-Directional: The SMCJ13A-13-F is a uni-directional TVS diode, which means it offers protection in one direction, ideal for DC voltage applications.
• Low Leakage Current: It exhibits a low leakage current, minimizing power loss when the device is in standby mode and enhancing the overall efficiency of your system.
• Package: Packaged in a low-profile SMC package, it is designed to have a minimal footprint on PCBs, saving valuable board space while providing reliable protection.
• Compliance: This device meets the MSL level 1 standard, per J-STD-020, and is compliant with RoHS and REACH requirements, ensuring environmental safety and global acceptance.

Applications

The SMCJ13A-13-F is versatile and can be used in a variety of applications. It is particularly useful in protecting voltage sensitive components which can be found in:

• Portable Devices
• Power Supply Networks
• Automotive Systems
• Industrial and Commercial High-Power Systems

With its combination of features, the SMCJ13A-13-F from Diodes Incorporated is an excellent choice for designers looking to enhance the durability and reliability of their electronic systems against transient voltage events.