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Rochester Electronics CDC2516DGGR Environmental and export classification status description

- Manufacturer: Texas Instruments - Part Number: CDC2516DGGR - Package: 48-TSSOP (Thin Shrink Small Outline Package) - Voltage Supply: 3 V to 3.6 V - Output Levels: CMOS - Operating Temperature: -40°C to 85°C - RoHS compliant: Yes Functions: - Clock distribution and buffering: The CDC2516DGGR can distribute and buffer clock signals to multiple destinations while maintaining signal integrity. - Low skew: It provides low skew output clock signals, which is essential in systems requiring synchronous operation. - High-speed operation: The IC supports high-speed clock signals required in modern electronic systems. Applications: - Networking equipment - Servers - Storage devices - Telecom infrastructure - Industrial automation Alternative Components: - IDT (Integrated Device Technology) 82V2058: Similar clock buffer offering low skew and high-speed operation. - ON Semiconductor NB3N501S: Clock driver with comparable features suitable for clock distribution applications. Embedded Modules: - The CDC2516DGGR can be integrated into various system-on-chip (SoC) designs where clock distribution and buffering are required. - It can be used in FPGA (Field-Programmable Gate Array) designs to drive clock signals across the chip. Related Q&A: 1. What is the maximum output frequency supported by the CDC2516DGGR? - The CDC2516DGGR supports output frequencies up to XX MHz, making it suitable for high-speed applications. 2. Does the CDC2516DGGR support voltage level translation? - No, the CDC2516DGGR is designed for CMOS logic levels and does not provide voltage level translation capabilities. 3. Can the CDC2516DGGR be cascaded to drive a larger number of clock outputs? - Yes, multiple CDC2516DGGR ICs can be cascaded to drive a larger number of clock outputs while maintaining low skew characteristics. 4. What is the typical propagation delay of the CDC2516DGGR? - The CDC2516DGGR has a typical propagation delay of XX ns, ensuring precise timing alignment in clock distribution networks. 5. Are there any specific layout considerations for optimal performance of the CDC2516DGGR? - Yes, maintaining controlled impedance traces and minimizing signal crosstalk are recommended for optimal performance of the CDC2516DGGR in high-speed designs.