The SI5335A-B07385-GMR has a total of 20 pins. The pin configuration is as follows:
Advantages: - Wide frequency range - High precision and stability - Programmable features for customization - Support for multiple output formats
Disadvantages: - Relatively complex configuration process - Limited availability of alternative models
The SI5335A-B07385-GMR is widely used in various electronic systems that require precise clock signals. It finds applications in telecommunications, networking, data centers, industrial automation, and consumer electronics.
The IC utilizes a phase-locked loop (PLL) architecture to generate accurate clock signals. It takes an input reference clock and uses frequency synthesis techniques to multiply or divide the frequency as per the programmed settings. The resulting clock signals are then distributed to the output pins.
While the SI5335A-B07385-GMR is a popular choice, there are alternative clock generator ICs available from other manufacturers. Some notable alternatives include: - Maxim Integrated MAX2079 - Texas Instruments CDCM6208 - Analog Devices AD9528 - Microchip MCP2210 - ON Semiconductor NB3N502
Q: What is the maximum frequency range supported by the SI5335A-B07385-GMR? A: The IC supports frequencies ranging from 1 MHz to 350 MHz.
Q: Can I program the output format and frequency of this clock generator? A: Yes, the SI5335A-B07385-GMR offers programmable features for output format and frequency customization.
Q: Does this IC support Spread Spectrum Clocking (SSC)? A: Yes, the SI5335A-B07385-GMR supports Spread Spectrum Clocking for reducing electromagnetic interference (EMI).
Q: What is the typical phase jitter of this clock generator? A: The SI5335A-B07385-GMR has a typical phase jitter of less than 0.3 ps RMS.
Q: What is the operating temperature range for this IC? A: The SI5335A-B07385-GMR can operate within a temperature range of -40°C to +85°C.
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