MC100LVELT22MNRG

Translators, Level Shifters Overview

The MC100LVELT22MNRG is a dual-channel voltage level translator manufactured by onsemi, designed to interface between low-voltage logic families and high-speed ECL-based standards. It converts LVCMOS or LVTTL inputs into differential LVPECL outputs. The device operates within a supply voltage range of 3 V to 3.8 V and supports a propagation delay of 600 ps. It is housed in an 8-pin TSSOP package and functions reliably across an industrial temperature range from -40°C to +85°C.

Translators, Level Shifters Feature Summary

• Converts single-ended LVCMOS/LVTTL signals to differential LVPECL outputs
• Features dual independent channels for parallel signal translation
• Provides low propagation delay for high-speed data integrity

Translators, Level Shifters Applications

• Interfacing microprocessors with high-speed communication interfaces
• Clock distribution systems requiring LVPECL drivers
• Data acquisition systems bridging TTL logic to ECL components

Translators, Level Shifters Procurement Notes

Verify the specific suffix 'MNRG' against official datasheets to confirm tape-and-reel packaging and RoHS compliance status. Ensure the ordering part number matches the required TSSOP-8 variant. Cross-reference with the MC100LVELT22DTG alias if alternative packaging is acceptable. Confirm moisture sensitivity levels prior to soldering processes.

Translators, Level Shifters Selection Notes

Select this component when interfacing standard digital logic with PECL networks. It serves as a direct replacement for older ECL translators in modern low-voltage designs. Consider the 600 ps delay for timing budgets. Verify that the input voltage levels match the source logic family specifications before integration into the circuit design.

Translators, Level Shifters Part Context

This device belongs to the MC100LVELT series, which focuses on mixed-signal translation between legacy logic families and modern high-speed standards. It complements other onsemi logic products by enabling seamless connectivity between different voltage domains without requiring complex external biasing circuits.