Manufacturer Part Number
PI3B3257QEX
Manufacturer
Diodes
Introduction
The PI3B3257QEX is a high-speed, 4-channel, 2:1 multiplexer/demultiplexer designed for use in applications requiring high-performance switching of digital or analog signals.
Product Features and Performance
High-speed switching with low power consumption.
Offers 4-channel, 2:1 multiplexing/demultiplexing functionality.
Operates from a single 3V ~ 3.6V supply.
Capable of operating over a temperature range of -40°C to 85°C.
Low crosstalk and off-isolation for better signal integrity.
Bidirectional data flow with near-zero propagation delay.
Product Advantages
Enhanced signal integrity and performance in high-speed applications.
Flexible supply voltage catering to a variety of digital systems.
Suitable for both digital and analog signal switching.
Compact size for space-sensitive applications.
Low power consumption enhancing system efficiency.
Key Technical Parameters
Type: Multiplexer/Demultiplexer.
Circuit: 4 x 2:1.
Independent Circuits: 1.
Voltage Supply: 3V ~ 3.6V.
Operating Temperature: -40°C ~ 85°C.
Mounting Type: Surface Mount.
Package / Case: 16-SSOP (0.154", 3.90mm Width).
Quality and Safety Features
Manufactured by Diodes Incorporated, ensuring high reliability and performance.
Rigorous quality control and testing protocols.
Compatibility
Compatible with various digital and analog signal applications.
Suitable for use in systems requiring high-speed signal routing.
Application Areas
High-speed communication systems.
Data processing centers.
Video signal switching.
Telecommunications equipment.
Networking devices.
Product Lifecycle
Currently in an Active status showing no signs of nearing discontinuation.
Reliable supply chain with availability on Tape & Reel (TR) for mass deployment.
Several Key Reasons to Choose This Product
High-speed performance with minimal signal degradation.
Flexible and compatible with a broad range of applications and systems.
Supported by Diodes Incorporated’s reputation for quality and reliability.
Enhanced system efficiency through low power consumption.
Device compactness facilitates integration into space-constrained designs.