The NC7WZ04K8X is a dual unbuffered inverter from ON Semiconductor (formerly Fairchild Semiconductor). It's designed for use in applications where signal inversion and buffering are required, often in digital logic circuits. Due to its unbuffered nature, it can also be utilized in oscillator circuits. It operates from a voltage range of 1.65V to 5.5V, making it versatile for various applications.
Applications
- Oscillator Circuits: The unbuffered nature makes it suitable for building simple oscillators.
- Signal Inversion: Inverts digital signals for logic implementation.
- Clock Generation: Used in some clock generation circuits.
- Level Translation: Can be used for simple voltage level shifting in some applications.
- Pulse Shaping: Can be employed to sharpen or clean up digital pulses.
Features
- Dual Inverter: Contains two independent inverters in a single package.
- Unbuffered Output: Allows for more flexibility in circuit design, especially for oscillator applications.
- Wide Operating Voltage Range: Operates from 1.65V to 5.5V.
- Low Power Consumption: Minimizes power usage in battery-powered applications.
- Tiny Footprint: Available in a space-saving 8-lead MicroPak package.
- Pb-Free Package: RoHS compliant.
Benefits
- Flexibility in Design: The unbuffered output provides designers with more options for circuit configurations.
- Space Saving: The small package size reduces the overall board space required.
- Low Power Consumption: Extends battery life in portable devices.
- Versatile: Can be used in a variety of applications, from simple inversion to oscillator circuits.
- Reliable Operation: Provides consistent and dependable signal inversion.
Additional Details
The NC7WZ04K8X is fabricated using advanced silicon gate CMOS technology. It features minimal propagation delay and low static current consumption. The operating temperature range is -40°C to +85°C. It is commonly used in applications where a simple, low-power inverter is required, or where the unbuffered output characteristic is beneficial for specific circuit designs.