Product Overview: NXP 74AUP2G17GM
The NXP 74AUP2G17GM is a high-performance, dual Schmitt-trigger buffer designed to operate from a low-power supply while maintaining excellent switching characteristics and output drive capability. This integrated circuit is part of NXP's advanced ultra-low power (AUP) family, making it an ideal choice for portable and battery-powered applications where power efficiency is crucial.
With its dual buffer gates, the 74AUP2G17GM can be used in a variety of digital circuits to ensure signal integrity by transforming an irregular input waveform into a cleaner, more defined output. This is especially useful in environments with a high degree of electrical noise or when signals must be transmitted over long distances.
The device features Schmitt-trigger action at all inputs, which makes it tolerant to slower input rise and fall times. This action allows the device to handle signals with slow edges, thereby providing a more stable and reliable digital signal processing. The 74AUP2G17GM also offers a very low static and dynamic power consumption, coupled with a near-zero propagation delay, which is essential for high-speed data processing and energy-sensitive applications.
Key specifications of the NXP 74AUP2G17GM include:
- Wide supply voltage range from 0.8V to 3.6V
- Low static power consumption (ICC)
- High noise immunity
- ESD protection exceeds JESD 22
- Latch-up performance exceeds 100 mA per JESB 78 Class II level A
- Inputs accept voltages up to 3.6V
- Low noise overshoot and undershoot
Encased in a very small XSON6 (1.45 x 1.0) package, the 74AUP2G17GM is not only power-efficient but also space-efficient, making it well-suited for compact PCB layouts. This product is ideal for a broad range of applications, including mobile phones, PDAs, computers, data storage, and IoT devices, where space and power are at a premium.
Overall, the NXP 74AUP2G17GM is a versatile, high-performance component that offers designers a reliable solution for enhancing signal integrity in a compact, low-power design.