SEARCH
— IC芯片 | 连接器 | 传感器 | 被动器件 —
The SN74AUP2G08YZPR is a dual AND gate integrated circuit manufactured by Texas Instruments. It belongs to the AUP (Advanced Ultra-Low Power) logic family, designed for portable and battery-operated applications requiring low power consumption and high speed. The device features two independent 2-input AND gates in a compact SOT-353 surface-mount package. It operates with a supply voltage range of 1.65V to 3.6V, ensuring compatibility with modern low-voltage digital systems while maintaining robust noise immunity and fast propagation delays.
Verify the exact suffix YZPR corresponds to the SOT-353 package and tape-and-reel quantity specified in the official Texas Instruments datasheet. Confirm that the manufacturer identification matches Texas Instruments directly or an authorized distributor to ensure component authenticity and traceability. Check for any specific handling requirements related to electrostatic discharge sensitivity during procurement and storage.
Select this component when system design requires minimal power usage alongside moderate switching speeds in space-constrained environments. Ensure the target application voltage falls within the 1.65V to 3.6V operational range. Consider the SOT-353 footprint constraints and thermal characteristics relative to other available logic families for optimal integration into the final PCB layout.
This part is part of the broader SN74AUP series, which focuses on advanced ultra-low power performance. It serves as a logical alternative to older CMOS technologies where power efficiency is critical. The dual configuration provides two separate logic functions within a single small outline transistor package, reducing board space compared to using multiple discrete gates.
Direct substitutes include other SN74AUP2G08 variants with different packaging options such as SC-70 or VSSOP if pin compatibility allows. Verify electrical specifications and package dimensions before swapping to ensure mechanical fit and functional equivalence in the existing circuit design.