MC100EL16DR2G

Specialty Logic Overview

The MC100EL16DR2G is a single differential receiver belonging to the onsemi 100LV ECL logic family. It operates within a supply voltage range of 3 V to 3.8 V and draws a typical operating current of 24 mA. The device is housed in an SOIC-8 surface-mount package and supports operation across a temperature range from -40 °C to +85 °C.

Specialty Logic Feature Summary

• Provides differential signal reception for high-speed data transmission applications
• Operates with low-voltage ECL (LVEL) signaling standards
• Includes internal input clamping for protection against overvoltage conditions

Specialty Logic Applications

• High-speed serial communication interfaces
• Data acquisition systems requiring differential inputs
• Telecommunications equipment signal processing

Specialty Logic Procurement Notes

Verify the specific ordering suffix DR2G to confirm the SOIC-8 tape-and-reel packaging configuration. Ensure the design environment supports the specified 3 V to 3.8 V supply voltage range. Confirm RoHS compliance requirements align with project specifications before finalizing procurement orders.

Specialty Logic Selection Notes

Select this component when a single differential receiver is required for LVEL applications. It serves as a direct replacement for standard MC100EL16 devices where lower voltage operation is necessary. Verify that the system power supply constraints match the 3 V to 3.8 V operational limits defined in the datasheet.

Specialty Logic Part Context

This part belongs to the MC100LVEL16 series, which features low-voltage ECL receivers designed for improved performance over traditional 5V ECL families. The 100LV series offers faster switching speeds and reduced power consumption compared to legacy counterparts, making it suitable for modern high-density digital designs.

Specialty Logic Replacement Considerations

The MC100EL16 is a functional equivalent but operates at 5 V. Direct substitution requires verifying voltage level compatibility and signal integrity margins within the target circuit design.