SY10E131JC

Flip Flops Overview

The SY10E131JC is a high-speed quad master-slave D-type flip-flop from the Microchip 10E series, designed for ECL systems. It features differential outputs and operates within a supply voltage range of -4.75V to -5.25V. The device supports an individual asynchronous reset and paired asynchronous sets for each flip-flop. Clocking can be managed via common clock or individual clock inputs. It is housed in a 28-pin plastic leaded ceramic chip carrier (LCC) package with J-bend terminals, suitable for industrial temperature ranges.

Flip Flops Feature Summary

• Quad master-slave D-type flip-flops with differential outputs
• Individual asynchronous reset and paired asynchronous sets
• Flexible clocking modes using common or individual clock inputs

Flip Flops Applications

• High-performance ECL system designs
• Data storage and transfer applications
• Clock distribution networks

Flip Flops Procurement Notes

Verify the specific suffix 'JC' against the manufacturer's official datasheet to confirm the exact package type and temperature rating. Ensure compatibility with standard ECL logic levels and power supply requirements before integration into the circuit design.

Flip Flops Selection Notes

Select this component for applications requiring high-speed data latching in ECL environments. Consider the 28-pin LCC package for board space constraints. Verify that the required clocking mode aligns with the system architecture, as the device supports both common and individual clock configurations.

Flip Flops Part Context

The SY10E131JC belongs to the 10E series of high-speed ECL logic devices. This series is engineered for demanding digital applications where speed and reliability are critical. The quad configuration allows multiple data bits to be processed simultaneously within a single package.

Flip Flops Replacement Considerations

Check for direct pin-compatible alternatives within the same 10E series or other ECL families. Verify electrical characteristics such as propagation delay and output swing to ensure functional equivalence.