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Rochester Electronics NB3N502DG Environmental and export classification status description

The OnsemiNB3N502DG is a low-skew, high-performance clock buffer that operates at high speeds and low voltages. It is designed to provide distribution of high-speed signals in applications where synchronization and timing accuracy are critical. Functions: - Clock signal distribution - Low skew - High-speed operation - Low-voltage operation Applications: - Networking equipment - Telecommunications systems - Data centers - Servers - Test and measurement equipment Alternative Components: - Nexperia 74LVC1G3157 - Texas Instruments SN74LVC1G3157 - Maxim Integrated MAX3620 Embedded Modules: - Clock distribution board - System motherboard - Networking switch --- Related Q&A: 1. What is the maximum operating frequency of the OnsemiNB3N502DG clock buffer? - The OnsemiNB3N502DG can operate at frequencies up to XX GHz, making it suitable for high-speed applications. 2. What is the input voltage range of the OnsemiNB3N502DG? - The OnsemiNB3N502DG supports a wide input voltage range, typically from X volts to Y volts, allowing flexibility in various voltage rail designs. 3. How does the low-skew feature of the OnsemiNB3N502DG benefit synchronization in data center applications? - The low-skew design of the OnsemiNB3N502DG ensures that clock signals are distributed with minimal delay differences, enabling precise synchronization of data processing and communication within a data center environment. 4. Can the OnsemiNB3N502DG be cascaded to drive multiple clock domains in a networking switch? - Yes, the OnsemiNB3N502DG can be cascaded to distribute high-speed clock signals to multiple clock domains within networking equipment, ensuring consistent timing across different components. 5. Does the OnsemiNB3N502DG integrate any power management features for efficient energy consumption? - The OnsemiNB3N502DG may offer power management capabilities such as low-power modes or voltage scaling to optimize energy efficiency in applications where power consumption is a key consideration.