MCP4662-103E/UN - Microchip

Manufacturer Part Number

MCP4662-103E/UN

Manufacturer

microchip-technology

Introduction

The MCP4662-103E/UN is a dual-channel digital potentiometer from Microchip Technology. It provides a compact and precise solution for volume control, calibration, and other analog adjustment applications. With its non-volatile memory and I2C interface, the MCP4662 offers easy digital control and configuration.

Product Features and Performance

Dual-channel digital potentiometer with 257 taps

10kΩ linear resistance range

8V to 5.5V operating voltage

I2C interface for digital control

Non-volatile memory for storing settings

Mute and selectable address features

±20% resistance tolerance

150ppm/°C temperature coefficient

-40°C to 125°C operating temperature range

Surface mount 10-MSOP package

Product Advantages

Precise digital control and adjustment of analog signals

Non-volatile memory for retaining settings

Compact size and surface mount package

Wide operating voltage and temperature range

Key Reasons to Choose This Product

Enables easy digital control of analog circuits

Provides a cost-effective and space-saving solution

Reliable performance across a wide range of operating conditions

Supported by Microchip's extensive ecosystem and resources

Quality and Safety Features

Microchip's rigorous quality and reliability standards

RoHS and REACH compliant for environmental safety

Compatibility

The MCP4662-103E/UN is compatible with standard I2C communication protocols and can be easily integrated into a variety of electronic systems.

Application Areas

Volume control and adjustment

Analog sensor calibration

Programmable gain amplifiers

General-purpose analog signal adjustment

Product Lifecycle

The MCP4662-103E/UN is an active product in our website's sales team's portfolio. There are no immediate plans for discontinuation. Customers are advised to contact our website's sales team or authorized distributors for the latest product availability and potential equivalent or alternative models.