MC10EP52MNR4G

Flip Flops Overview

The MC10EP52MNR4G is a differential data, differential clock D-type flip-flop from onsemi's 10EP series. It features input clamp circuits that maintain stable outputs even when inputs are open or pulled to VEE. The device supports PECL operation with VCC ranging from 3.0V to 5.5V and NECL operation with VEE ranging from -3.0V to -5.5V. It offers typical propagation delay of 330ps and maximum frequency greater than 4GHz. The component is available in an 8-lead DFN package.

Flip Flops Feature Summary

• Differential data and clock inputs enable high-speed timing applications
• Input clamp circuitry ensures stable output states during open-input conditions
• Supports both PECL and NECL power supply configurations for flexible integration

Flip Flops Applications

• High-speed digital signal processing systems
• Clock distribution networks requiring differential signaling
• Data acquisition systems with strict timing constraints

Flip Flops Procurement Notes

Verify the specific suffix MNR4G against official datasheets to confirm the 8-lead DFN package configuration. Ensure compatibility with required operating voltage ranges for PECL or NECL modes. Confirm RoHS compliance status through manufacturer documentation before procurement.

Flip Flops Selection Notes

Select this component for designs requiring differential ECL-compatible logic with high-frequency performance. Consider the thermal characteristics of the DFN package for space-constrained layouts. Verify that the input clamp functionality meets system requirements for handling undefined input states.

Flip Flops Part Context

This part belongs to onsemi's 10EP family of high-speed emitter-coupled logic devices. It serves as a fundamental sequential logic element for synchronous digital circuits. The device provides complementary differential outputs for noise-immune signal transmission.

Flip Flops Replacement Considerations

Check for direct pin-to-pin replacements within the same 10EP series. Verify electrical parameters such as propagation delay and operating voltage ranges match original design specifications.