MCP4261-502E/SL - Microchip

Manufacturer Part Number

MCP4261-502E/SL

Manufacturer

Microchip Technology

Introduction

The MCP4261-502E/SL is a dual-channel, non-volatile digital potentiometer with a linear taper. It features a 257-position wiper with a resistance range of 5kΩ. The device is designed for a wide range of applications, including digital volume control, calibration, and programmable gain/attenuation.

Product Features and Performance

Dual-channel digital potentiometer with linear taper

257-position wiper with a resistance range of 5kΩ

Non-volatile memory for storing wiper positions

SPI interface for digital control

Wide supply voltage range of 1.8V to 5.5V

Operating temperature range of -40°C to 125°C

Low power consumption and long lifetime

Product Advantages

Precise and repeatable wiper positions

Non-volatile memory for retained settings

Wide resistance range and taper options

Compact surface-mount package

Key Reasons to Choose This Product

Versatile and reliable digital potentiometer solution

Ideal for applications requiring precise and repeatable control

Easy to integrate and control via SPI interface

Robust design with wide operating temperature range

Quality and Safety Features

Manufactured by the industry-leading Microchip Technology

Designed and tested to meet high quality and reliability standards

RoHS-compliant and environmentally friendly

Compatibility

The MCP4261-502E/SL is compatible with various microcontrollers and other digital control systems that support the SPI interface.

Application Areas

Digital volume control

Calibration of electronic systems

Programmable gain/attenuation

Industrial automation and control

Medical equipment

Consumer electronics

Product Lifecycle

The MCP4261-502E/SL is an active product, and our website's sales team continues to support and manufacture it. There are no immediate plans for discontinuation. Customers are advised to check with our website's sales team or their authorized distributors for the latest product availability and potential alternative models.