MC10E416FNR2G

Specialty Logic Overview

The MC10E416FNR2G is a 5-bit differential line receiver from the onsemi 10E series, housed in a PLCC-28 package. It operates within a PECL voltage range of 4.2 V to 5.7 V (VEE = 0 V) or NECL range (-4.2 V to -5.7 V). The device provides 2.0 GHz bandwidth and features a maximum propagation delay of 600 ps. Internal gain stages support high-bandwidth amplifier applications, while internal input clamps ensure low output states for open inputs.

Specialty Logic Feature Summary

• Integrates two internal gain stages for high-bandwidth amplification
• Features internal input clamp structures that force outputs low during open input conditions
• Includes an internally generated VBB reference voltage pin for single-ended biasing

Specialty Logic Applications

• Buffering very high-speed oscillators
• High-bandwidth amplifier applications
• Differential line receiving in ECL systems

Specialty Logic Procurement Notes

Verify the FNR2G suffix indicates tape and reel packaging with lead-free composition. Confirm the specific revision level against current datasheets as components may undergo lifecycle changes. Ensure compatibility with existing PLCC-28 footprints and thermal management requirements for surface mount assembly.

Specialty Logic Selection Notes

Select this component when differential signal integrity at frequencies up to 2.0 GHz is required. The internal gain stages distinguish it from standard receivers, making it suitable for buffering weak signals. Verify power supply configuration matches either PECL or NECL standards before integration into the circuit design.

Specialty Logic Part Context

This part belongs to the MC10E416 family of quint differential line receivers. The '10E' designation identifies it as a standard 5V ECL logic device manufactured by onsemi. It shares functional similarities with the temperature-compensated 100E series but lacks the latter's compensation features.

Specialty Logic Replacement Considerations

MC100E416FNR2G: Offers identical functionality with added temperature compensation.