Diodes Incorporated PI6C2501AWE - 1-TO-4 Clock Buffer

The PI6C2501AWE is a high-performance, low-power clock buffer from Diodes Incorporated designed to distribute a single clock input to four outputs with minimal skew and low additive phase jitter. This precision clock buffer is an ideal solution for applications that require reliable and consistent clock signal distribution across multiple components.

With an operating voltage range of 2.5V to 3.3V, the PI6C2501AWE provides versatile power compatibility, making it suitable for a wide array of digital systems. The device is characterized for operation from -40°C to +85°C, ensuring robust performance across various environmental conditions.

One of the key features of the PI6C2501AWE is its low skew (250 ps typical), which is critical for maintaining the timing integrity of high-speed digital signals. The low additive phase jitter characteristic of this clock buffer further enhances its suitability for systems where precision timing is paramount, such as in advanced communication infrastructure, computing platforms, and high-speed data processing applications.

The PI6C2501AWE comes in a compact 8-pin SOIC package, which is conducive to space-constrained designs. This small footprint does not compromise its functionality or performance, making it an excellent choice for designers looking to optimize board space without sacrificing quality.

Additional features include the ability to handle clock frequencies up to 200MHz, providing ample bandwidth for a range of digital applications. The device also offers output enable (OE) functionality, allowing the user to control the activation of the clock outputs, which is useful for power management and reducing power consumption when the clock distribution is not needed.

Overall, the PI6C2501AWE from Diodes Incorporated represents a reliable and efficient solution for clock distribution needs. Its blend of performance, power efficiency, and design flexibility makes it a go-to component for engineers and designers working on the next generation of electronic systems.