Product Overview: NXP 74AUP1G126GX

The NXP 74AUP1G126GX is a high-performance, single-buffer gate with a three-state output, designed to operate over a broad voltage range with a wide operating temperature. This integrated circuit is part of NXP's advanced ultra-low power (AUP) family, making it ideal for battery-powered and portable applications where power efficiency is paramount.

Constructed with silicon gate CMOS technology, the 74AUP1G126GX ensures a low static and dynamic power consumption, combining energy efficiency with high-speed operation. Its low-voltage capabilities allow for interfacing with modern microprocessors and microcontrollers, ensuring compatibility with the latest technology.

Key Features

• Wide Supply Voltage Range: The device supports a supply voltage range of 0.8V to 3.6V, enabling its use in systems that require low voltage operation.
• High-Speed Performance: Despite its low power consumption, the device offers high-speed performance with a t<sub>PD of 3.7 ns at V<sub>CC = 3.3V.
• Low Power Dissipation: Its ultra-low dynamic power consumption and negligible static power make it an excellent choice for power-sensitive designs.
• Three-State Output: The three-state output enables connection to a bus or data line where multiple devices can share the same connection, enhancing design flexibility.
• ESD Protection: The device includes input and output protection against electrostatic discharge, ensuring device integrity during handling and operation.
• Compact Packaging: Available in a small XSON6 package, the 74AUP1G126GX is suitable for space-constrained applications.

Applications

The versatility of the 74AUP1G126GX makes it suitable for a wide array of applications, including:

• Mobile and portable devices
• Power management systems
• Microcontroller interfacing
• Data bus buffering/isolation
• Logic level translation

With its combination of low power consumption, high-speed operation, and robust protection features, the NXP 74AUP1G126GX is an excellent choice for designers seeking to optimize their digital logic operations while minimizing power usage in their circuits.