ON Semiconductor NLV74HC14ADR2G
The NLV74HC14ADR2G is a high-performance, six-channel inverter designed by ON Semiconductor, featuring Schmitt-trigger inputs. This integrated circuit is part of the 74HC series, known for its high-speed CMOS technology, which ensures robust performance for a wide range of applications. The device is particularly well-suited for wave shaping and noise filtering due to its Schmitt-trigger action, which provides hysteresis between the positive-going and negative-going input thresholds, resulting in increased noise immunity and stable output switching.
Each inverter in the NLV74HC14ADR2G is capable of transforming an input signal into its inverse, with a buffered output capable of driving 10 LSTTL loads. The device operates over a broad voltage range from 2V to 6V, making it versatile for use in systems that require different power levels. Furthermore, the low power consumption of this IC makes it an excellent choice for battery-operated equipment.
The NLV74HC14ADR2G comes in a compact SOIC-14 package, which is ideal for space-constrained applications while providing adequate thermal performance. The device is also characterized for operation from -55°C to 125°C, ensuring reliability in extreme temperature conditions. This extended temperature range makes it suitable for automotive, industrial, and military applications that demand high reliability under harsh environmental conditions.
Key features of the NLV74HC14ADR2G include:
- Hex inverter configuration with Schmitt-trigger inputs
- High noise immunity and hysteresis
- Wide operating voltage range (2V to 6V)
- Low power consumption
- Capability to drive 10 LSTTL loads
- Extended temperature range (-55°C to 125°C)
- Compact SOIC-14 package
This ON Semiconductor product is designed to meet the stringent requirements of a variety of electronic systems. Whether it's for signal conditioning, pulse generation, or logic-level conversion, the NLV74HC14ADR2G provides a reliable and efficient solution. It is an essential component for designers looking to enhance the performance and stability of their digital circuits.