HIP6602ACB

Gate Driver Overview

The HIP6602ACB is a dual-channel synchronous-rectified buck MOSFET driver designed to drive four power N-Channel MOSFETs. It supports gate drive voltages from 5V to 12V, optimizing switching and conduction losses. Each channel drives a 3000pF load with a 30ns propagation delay and 50ns transition time. The device integrates internal bootstrap devices requiring only one external capacitor per channel. Adaptive shoot-through protection prevents simultaneous MOSFET conduction.

Gate Driver Feature Summary

• Drives four N-channel MOSFETs in a synchronous-rectified buck topology
• Integrates adaptive shoot-through protection for safety
• Features internal bootstrap devices for simplified implementation

Gate Driver Applications

• Core voltage regulation for advanced microprocessors
• Multi-phase buck converter systems
• High-frequency power supply designs

Gate Driver Procurement Notes

Verify the specific suffix 'ACB' corresponds to the 14-SOIC package and commercial temperature range as defined in the official Intersil/Renesas datasheet. Ensure compatibility with the intended PWM controller, such as the HIP63xx series, for complete system integration. Confirm that the component meets all electrical specifications for the target application before procurement.

Gate Driver Selection Notes

Select this driver for applications requiring high-frequency operation with fast rise times and low propagation delays. It is suitable for designs utilizing N-Channel UltraFETs where optimized trade-offs between switching and conduction losses are critical. The integrated bootstrap functionality reduces external component count compared to drivers lacking this feature.

Gate Driver Part Context

This component belongs to the HIP6602 family of dual-channel MOSFET drivers manufactured by Intersil (now Renesas). It is specifically engineered to complement Multi-Phase Buck PWM controllers, forming a complete core voltage regulator solution. The device addresses the need for efficient, high-speed driving of synchronous rectification stages in modern processor power delivery networks.

Gate Driver Replacement Considerations

Public confirmed substitute part numbers are not available in the provided documentation. Verify pinout and electrical parameter compatibility if considering alternative drivers from other manufacturers for direct replacement scenarios.