5P61006PGGI

Overview

The 5P61006PGGI is a zero-delay buffer designed for DDR2/800 applications, manufactured by Renesas Electronics Corporation. It utilizes analog/digital Phase-Locked Loop (PLL) techniques to eliminate clock skew. The device operates within a supply voltage range of 1.71V to 3.465V and supports a maximum frequency of 425MHz. It features a single output configuration housed in an 8-TSSOP package with a width of 4.40mm. The component is rated for industrial operating temperatures from -40°C to +85°C and is RoHS compliant.

Feature Summary

• Zero-delay buffering capability using PLL technology to minimize clock skew
• Optimized performance for DDR2/800 memory interface applications
• Low-voltage operation supporting 1.8V systems

Applications

• DDR2 memory system clock distribution
• High-speed digital signal processing interfaces
• System-on-chip clock synchronization networks

Procurement Notes

Verify the specific suffix 'PGGI' against the official Renesas datasheet to confirm the 8-TSSOP package and lead-free status. Ensure the application environment remains within the specified -40°C to +85°C temperature range. Confirm that the 425MHz frequency requirement aligns with the system's timing constraints before procurement.

Selection Notes

Select this component when low-skew clock distribution is critical for DDR2/800 architectures. The 8-TSSOP package suits space-constrained designs requiring surface-mount installation. Consider the 1.8V supply compatibility and the single-output topology relative to system fan-out requirements.

Part Context

This part belongs to the IDT/Renesas high-performance clock buffer family, specifically engineered for memory interfaces. It replaces earlier generations of zero-delay buffers, offering improved power efficiency and reduced jitter for synchronous data transfers in embedded computing platforms.

Replacement Considerations

Consult the Renesas product change notification (PCN) documents for valid substitute part numbers. Verify pin-to-pin compatibility and electrical parameter equivalence with any alternative components before implementation.