Texas Instruments

SN74AUP2G08YFPR

SN74AUP2G08YFPR Description

The SN74AUP2G08YFPR is a high-performance AND gate logic IC chip manufactured by Texas Instruments, designed for a wide range of digital circuit applications. This device belongs to the 74AUP series and features a dual 2-input AND gate configuration. It is packaged in an 8-DSBGA (Tape & Reel) format, making it suitable for surface mount applications. The SN74AUP2G08YFPR operates within a supply voltage range of 0.8V to 3.6V, ensuring compatibility with various power supply configurations. It has a maximum propagation delay of 6.7ns at 3.3V with a load capacitance of 30pF, providing fast signal processing capabilities. The input logic levels are specified as 0.7V to 0.9V for low and 1.6V to 2V for high, ensuring reliable operation in digital circuits. The device is REACH unaffected and RoHS3 compliant, adhering to environmental and safety standards.

SN74AUP2G08YFPR Features

• High-Speed Performance: With a maximum propagation delay of 6.7ns at 3.3V and 30pF, the SN74AUP2G08YFPR ensures rapid signal processing, making it ideal for high-speed digital circuits.
• Wide Voltage Range: The device operates within a supply voltage range of 0.8V to 3.6V, offering flexibility in power supply design and compatibility with various systems.
• Low Power Consumption: The SN74AUP2G08YFPR features a maximum quiescent current of 500 nA, contributing to energy efficiency and reduced power consumption in low-power applications.
• Surface Mount Compatibility: Packaged in an 8-DSBGA format, this IC is designed for surface mount technology, facilitating easy integration into compact and high-density PCB designs.
• Environmental Compliance: The device is REACH unaffected and RoHS3 compliant, ensuring it meets stringent environmental and safety standards.
• Dual 2-Input AND Gates: The SN74AUP2G08YFPR includes two independent 2-input AND gates, providing dual functionality in a single package, which can reduce component count and board space.
• Robust Input Logic Levels: The input logic levels of 0.7V to 0.9V for low and 1.6V to 2V for high ensure reliable operation and compatibility with standard digital logic families.
• High Output Current Capability: The device supports an output current of 4mA for both high and low states, enabling robust signal driving capabilities.

SN74AUP2G08YFPR Applications

The SN74AUP2G08YFPR is well-suited for a variety of applications due to its high-speed performance, low power consumption, and wide voltage range. Some specific use cases include:

• Digital Signal Processing: The fast propagation delay and robust output current make it ideal for processing digital signals in high-speed communication systems and data processing applications.
• Embedded Systems: The low power consumption and surface mount compatibility are beneficial for embedded systems where space and power efficiency are critical.
• Consumer Electronics: The device's wide voltage range and environmental compliance make it suitable for consumer electronics, ensuring compatibility with various power supplies and adherence to safety standards.
• Automotive Electronics: The robustness and reliability of the SN74AUP2G08YFPR make it suitable for automotive applications, where high performance and durability are essential.
• Industrial Control Systems: The device's ability to handle high-speed signals and its low power consumption make it ideal for industrial control systems, where efficiency and reliability are paramount.

Conclusion of SN74AUP2G08YFPR

The SN74AUP2G08YFPR from Texas Instruments is a versatile AND gate logic IC that offers high-speed performance, low power consumption, and wide voltage range. Its dual 2-input AND gate configuration, surface mount compatibility, and environmental compliance make it a reliable choice for a variety of digital circuit applications. Whether used in digital signal processing, embedded systems, consumer electronics, automotive electronics, or industrial control systems, the SN74AUP2G08YFPR provides the performance and reliability needed to meet the demands of modern electronic designs.