The SN74GTLP817DWE4 is a high-performance, BiCMOS gate transceiver from Texas Instruments designed for two-way communication between data buses. This device is part of the GTLP (Gunning Transceiver Logic Plus) family, which is renowned for its ability to interface between systems operating at different voltage levels. The SN74GTLP817DWE4 is particularly well-suited for applications that demand low-power consumption and high-speed data transfer, making it an excellent choice for modern digital systems.

Key Features:

• Logic Level Translation: Capable of translating signals between a 3.3V LVTTL logic level on the A side and a 5V TTL logic level on the B side.
• High-Speed Operation: Supports data rates up to 660 Mbps, enabling fast data transfer for critical applications.
• Flow-Through Architecture: Designed to minimize signal skew and simplify PCB layout with its flow-through pinout.
• Low Power Consumption: Offers a reduced power consumption profile, which is essential for energy-efficient designs.
• Bus-Hold Data Inputs: Eliminates the need for external pull-up/pull-down resistors, keeping data inputs at a valid logic level when undriven.
• Controlled Output Edge Rates: Provides controlled output edge rates to reduce signal noise and electromagnetic interference (EMI).

Applications:

The versatility of the SN74GTLP817DWE4 allows it to be used in a wide range of applications, including:

• Telecommunications
• Networking equipment
• Servers and workstations
• Signal bridging in multi-voltage systems
• Data communication and processing

Package and Quality:

The SN74GTLP817DWE4 is available in a 24-pin SOIC (DWE) package, providing a compact footprint for space-constrained applications. Texas Instruments is committed to high-quality standards and ensures that this product meets rigorous reliability and performance criteria.

With its combination of speed, power efficiency, and voltage level translation capabilities, the SN74GTLP817DWE4 is an ideal solution for designers looking to bridge different logic families within their digital systems without compromising on performance.