UCS3205-E/Q8A - Microchip

Manufacturer Part Number

UCS3205-E/Q8A

Manufacturer

microchip-technology

Introduction

The UCS3205-E/Q8A is a high-performance, low-resistance power distribution switch designed for a wide range of power management applications. It features a low on-resistance, slew-rate controlled outputs, and comprehensive fault protection, making it a reliable and efficient solution for various power supply and load control requirements.

Product Features and Performance

1:1 input-output ratio

N-channel output type

Load voltage range: 2.85V to 22V

Maximum output current: 5A

Low on-resistance: 30mΩ (typical)

Slew-rate controlled outputs for smooth switching

Comprehensive fault protection: current limiting, over-temperature, and UVLO

Product Advantages

Efficient power distribution and load control

Robust fault protection for enhanced system reliability

Configurable for various power management applications

Small surface-mount package for compact design

Key Reasons to Choose This Product

Reliable and versatile power management solution

Optimized for power-sensitive applications

Ease of integration and design flexibility

Proven performance and quality from a trusted manufacturer

Quality and Safety Features

Robust overcurrent, over-temperature, and UVLO protection

Designed and manufactured to high quality standards

Compliance with relevant safety and regulatory requirements

Compatibility

The UCS3205-E/Q8A is compatible with a wide range of power supply and load control applications, including:

Portable electronics

Industrial equipment

Automotive systems

Consumer appliances

Application Areas

Power distribution and load control

Battery-powered devices

Industrial and automotive electronics

Consumer and home appliances

Product Lifecycle

The UCS3205-E/Q8A is an active, in-production product. There are no announced plans for discontinuation at this time. Customers are advised to contact our website's sales team for the latest information on product availability and any potential alternative models.