BU3072HFV-TR

Application Specific Clock/Timing Overview

The BU3072HFV-TR is a single-channel clock generator from ROHM Semiconductor, designed for digital still and video cameras. It operates on a single 3.0 V to 3.6 V supply with a typical operating current of 11 mA. The device accepts a 48.0000 MHz reference input and provides selectable output frequencies of 27.0000 MHz (SEL=L) or 36.0000 MHz (SEL=H). It features low jitter performance, with a typical period-jitter 1σ of 35 ps, and includes a power-down function via the PD pin.

Application Specific Clock/Timing Feature Summary

• Single-channel clock generation with selectable outputs: 27.0000 MHz or 36.0000 MHz
• Low jitter performance with typical period-jitter 1σ of 35 ps
• Compact HVSOF6 package (3.0 mm x 1.6 mm x 0.75 mm)
• Power-down function available via PD pin

Application Specific Clock/Timing Applications

• Digital Still Cameras
• Digital Video Cameras

Application Specific Clock/Timing Procurement Notes

Verify component authenticity through authorized distributors. Confirm RoHS compliance status as specified in official documentation. Check for end-of-life or obsolescence notices prior to procurement. Ensure storage conditions align with manufacturer guidelines to maintain device integrity.

Application Specific Clock/Timing Selection Notes

Select this model when a 48 MHz crystal input is available and 27 MHz or 36 MHz clock outputs are required. Verify that the system load capacitance does not exceed 15 pF. Consider the -5°C to 70°C operating temperature range for environmental compatibility.

Application Specific Clock/Timing Part Context

This component belongs to the High-performance Clock Generator Series by ROHM Semiconductor. It is part of a lineup including BU3071HFV, BU3073HFV, BU3076HFV, BU7322HFV, and BU7325HFV, all sharing the compact HVSOF6 package format.

Application Specific Clock/Timing Replacement Considerations

BU3072HFV is the direct equivalent part number. Other series members like BU3071HFV or BU3073HFV may serve as alternatives if frequency requirements differ.