The MAPLAD15KP43CAE3 is a robust transient voltage suppression (TVS) diode designed by Microchip Technology, a leader in microcontroller, mixed-signal, analog, and Flash-IP solutions. This component is engineered to protect sensitive electronic equipment from voltage spikes and transients induced by lightning and other transient voltage events.

Key Features

• High Surge Capability: With its ability to manage large transient power surges, the MAPLAD15KP43CAE3 is capable of handling peak pulse power dissipation of 15000 Watts at 10/1000μs waveform, ensuring reliable protection for your devices.
• Peak Pulse Current: It offers a peak pulse current rating (Ipp) that ensures effective protection for sensitive circuits against transient events.
• Stand-Off Voltage: The device has a stand-off voltage (Vwm) of 43V, providing a buffer zone before the TVS begins to conduct.
• Clamping Voltage: The clamping voltage (Vc) is a critical specification, and the MAPLAD15KP43CAE3 ensures that voltage spikes are clamped at a safe level for your circuitry.
• Uni-directional Configuration: The uni-directional configuration of the diode provides targeted protection for voltage spikes occurring in one direction, which is ideal for DC power supply applications.
• Low Leakage Current: It features low leakage current, minimizing the power loss when the device is in standby mode and enhancing the overall efficiency of the application it's protecting.
• RoHS Compliant: The product adheres to the RoHS directive, ensuring that it is free from hazardous substances and is environmentally friendly.

Applications

The MAPLAD15KP43CAE3 is suitable for a wide range of applications where transient voltage protection is critical. It is commonly used in:

• Power Supply Units (PSUs)
• Industrial Systems
• Telecommunication Equipment
• Automotive Electronics
• Aerospace and Military Applications

With its robust construction and reliable performance, the MAPLAD15KP43CAE3 from Microchip Technology is an essential component for safeguarding sophisticated electronic systems from the damaging effects of voltage transients.