The MAPLAD15KP24CAE3 is a state-of-the-art transient voltage suppression (TVS) diode designed by Microchip Technology, a leading provider of smart, connected, and secure embedded control solutions. This robust component is engineered to protect sensitive electronic equipment from voltage transients induced by system inductive load switching and lightning surges.

Key Features

• Peak Pulse Power Dissipation: This TVS diode offers an impressive 15 kW of peak pulse power dissipation for a 10/1000µs waveform, ensuring reliable protection against high energy transients.
• Stand-off Voltage: It has a stand-off voltage of 24V, which helps to maintain the integrity of the circuit by preventing voltage spikes from reaching damaging levels.
• Bi-directional Clamping: The MAPLAD15KP24CAE3 provides bi-directional clamping, which is essential for AC circuits or where the polarity of the transient could be either positive or negative.
• High Surge Capability: With its capability to handle high surge currents, this device is well-suited for absorbing potentially damaging energy spikes.
• Low Incremental Surge Resistance: The low incremental surge resistance feature ensures minimal voltage drop across the diode when a surge occurs, thus providing better overall protection.

Applications

Designed for a variety of applications, the MAPLAD15KP24CAE3 is ideal for:

• Power supply units (PSUs)
• AC/DC applications
• Telecommunication systems
• Industrial systems
• Automotive systems
• Heavy electrical systems
• Medical equipment

Reliability and Compliance

The MAPLAD15KP24CAE3 is designed with reliability in mind, featuring a glass-passivated junction for enhanced reliability. It complies with the ISO 7637-2 pulse 5a and 5b waveform standards and is RoHS compliant, making it suitable for use in environmentally sensitive applications.

Overall, the MAPLAD15KP24CAE3 from Microchip Technology is a versatile and robust solution for protecting electronic systems from voltage transients, ensuring long-term stability and performance of your critical applications.