NCP5106ADR2G - onsemi

Manufacturer Part Number

NCP5106ADR2G

Manufacturer

onsemi

Introduction

The NCP5106ADR2G is a high-performance, half-bridge gate driver designed for managing power in various applications, primarily for driving IGBTs and N-Channel MOSFETs efficiently.

Product Features and Performance

Half-Bridge Driven Configuration

Independent Channel Type

Supports 2 Gate Drivers

Compatible with IGBT and N-Channel MOSFET Gate Types

Operating Voltage Range: 10V to 20V

Logic Voltage Levels: VIL 0.8V, VIH 2.3V

High Peak Output Current: Source 250mA, Sink 500mA

Non-Inverting Input Type

Maximum High Side Voltage (Bootstrap): 600 V

Typical Rise Time: 85ns and Fall Time: 35ns

Operating Temperature Range: -40°C to 125°C

Surface Mounting Type

Product Advantages

Effective for complex power management applications

Dual independent driving capability enhances versatility

High bootstrap voltage supports high voltage applications

Quick rise and fall times improve switching performance

Wide operating temperature range ensures reliability in various environments

Key Technical Parameters

Supply Voltage: 10V ~ 20V

Logic Voltage VIH: 2.3V, VIL: 0.8V

Peak Output Current: Source 250mA, Sink 500mA

High Side Voltage Max (Bootstrap): 600 V

Rise / Fall Time (Typ): 85ns, 35ns

Operating Temperature: -40°C ~ 125°C (TJ)

Quality and Safety Features

Robust thermal management for reliability at high temperatures

Durable design for long-lasting performance

Compatibility

Ideal for use with IGBTs and N-Channel MOSFET devices

Application Areas

Motor Control Systems

Power Supplies

Renewable Energy Systems

Industrial Automation

Product Lifecycle

Product Status: Active

Continuously supported with no current plans for discontinuation

Several Key Reasons to Choose This Product

High efficiency and performance for power management in advanced applications

Reliable in extreme environmental conditions

Versatile compatibility with IGBT and MOSFET technologies

High bootstrap voltage meets needs of high voltage scenarios

Fast switching capabilities reduce power losses and enhance efficiency