Product Overview: 74LVC04A Hex Inverter
The 74LVC04A is a high-performance, low-voltage CMOS device from NXP Semiconductors. This hex inverter is part of the LVC family, designed to operate from 1.2V to 3.6V, making it ideal for use in battery-operated, low-voltage, and low-power applications. The 74LVC04A is characterized by its high noise immunity and low static power consumption, ensuring efficient operation even in the most demanding environments.
Each inverter within the 74LVC04A is capable of driving loads with high capacitance, with the added benefit of having an output drive capability of up to 24mA. This robust drive strength is perfect for overcoming the capacitive loading which is common in modern high-speed bus-oriented designs. The input levels are compatible with standard CMOS outputs, with voltage translation from 5V to 3.3V, making it a versatile choice for interfacing with both legacy and newer systems.
Key features of the 74LVC04A include:
- Hex inverter configuration providing six inverters in a single package
- Wide operating voltage range from 1.2V to 3.6V
- High noise immunity characteristic of LVC family devices
- Low static power consumption paired with high-speed operation
- 5V tolerant inputs for interfacing with mixed-voltage environments
- Output drive capability of 24mA for high-capacitance loads
- Compliant with JEDEC standard no. 8-1A
- ESD protection exceeds JESD 22, ensuring reliability and longevity
The 74LVC04A is available in a variety of packages, including the SO14, TSSOP14, and DHVQFN14, providing flexibility for diverse mounting and space requirements. Its performance and power efficiency make it an excellent choice for a wide range of applications, including portable devices, computing, telecommunications, and industrial systems where low-voltage operation is paramount.
With its combination of power efficiency, high drive capability, and wide operating voltage range, the 74LVC04A from NXP Semiconductors is a go-to solution for designers looking to implement reliable inverting functions in their digital logic circuits.
