PI6C10807LE

Clock Buffers, Drivers Overview

The PI6C10807LE is a high-speed, low-noise, non-inverting 1-to-10 clock buffer manufactured by Diodes Incorporated. It supports supply voltages of 1.8V or 2.5V and operates at frequencies up to 250 MHz. The device features an output-to-output skew of less than 60 ps and a propagation delay under 2.0 ns. It is housed in a 20-pin TSSOP package with multiple VDD and GND pins designed for noise reduction. The component is intended for synchronous networking systems requiring precise clock distribution.

Clock Buffers, Drivers Feature Summary

• 1:10 non-inverting clock buffer with maximum frequency of 250 MHz
• Low output skew (< 60 ps) and duty cycle distortion (< 200 ps)
• Supports 1.8V or 2.5V supply voltage
• Multiple VDD and GND pins for enhanced noise reduction

Clock Buffers, Drivers Applications

• Synchronous networking systems
• High-frequency clock distribution
• Low-skew clock buffering applications

Clock Buffers, Drivers Procurement Notes

Verify the specific ordering suffix when sourcing. The 'L' suffix indicates a 20-pin wide TSSOP package, while 'H' denotes a wide SSOP. Adding an 'X' suffix changes the packaging to tape and reel. Confirm lead-free and green status as standard for this part number.

Clock Buffers, Drivers Selection Notes

Select the PI6C10807LE for designs requiring a single input to drive ten outputs with minimal skew. Ensure the design accommodates the 1.8V or 2.5V supply rails. The 20-pin TSSOP package requires adherence to JEDEC MO-153F/AC mechanical dimensions for PCB layout.

Clock Buffers, Drivers Part Context

This component belongs to the PI6C10807 family of networking clock buffers. It was originally developed by Pericom Semiconductor Corporation before being acquired by Diodes Incorporated. The datasheet reference number is PS8862L, revision dated 05/01/09.

Clock Buffers, Drivers Replacement Considerations

The PI6C10807HE serves as a package variant within the same functional family, utilizing a 20-pin wide SSOP instead of TSSOP. No other direct cross-model substitutes are documented in the provided source material.