Nexperia USA Inc. 74AUP1G125GX,125

Nexperia USA Inc. 74AUP1G125GX,125 Environmental and export classification status description

- Overview: - Nexperia 74AUP1G125GX,125 is a single bus buffer gate with a 3-state output. - It belongs to the 74AUP1G family of logic gates produced by Nexperia. - Functions: - Acts as a non-inverting buffer with high noise immunity and very low power consumption. - Provides 3-state output, enabling isolation capabilities. - Applications: - Suitable for various applications in digital electronics, including signal buffering, level-shifting, and signal isolation. - Alternative Components: - Alternative components to Nexperia 74AUP1G125GX,125 include similar bus buffer gates from other manufacturers, such as Texas Instruments, ON Semiconductor, and STMicroelectronics. - Embedded Modules: - May be integrated into larger circuit designs for signal integrity and isolation requirements. - Often used in combination with other logic gates for complex digital systems. --- Related Q&A: 1. What is the typical operating voltage range for Nexperia 74AUP1G125GX,125? - The typical operating voltage range is between 0.8V to 3.6V, making it suitable for low-power applications. 2. How does Nexperia 74AUP1G125GX,125 compare to similar 3-state buffer gates from other manufacturers? - Nexperia's 74AUP1G125GX,125 is known for its high noise immunity and low power consumption compared to alternatives. 3. In what scenarios would one use the 3-state output feature of Nexperia 74AUP1G125GX,125? - The 3-state output feature allows for bus sharing and is commonly used in designs where multiple devices need to access the same bus without contention. 4. Can Nexperia 74AUP1G125GX,125 be cascaded for multiple buffer stages to drive capacitive loads? - Yes, multiple Nexperia 74AUP1G125GX,125 gates can be cascaded to drive larger capacitive loads while maintaining signal integrity. 5. What are the typical propagation delay and transition times of Nexperia 74AUP1G125GX,125? - The propagation delay is usually in the low nanosecond range, and transition times are minimal, making it suitable for high-speed digital applications.