74ALVC00MX

Overview

The onsemi 74ALVC00MX is a low-voltage quad 2-input NAND gate from the ALVC logic series. It operates within a supply voltage range of 1.65 V to 3.6 V and features Schmitt-trigger inputs for noise tolerance. The device provides high drive capability with output currents of ±24 mA and a typical propagation delay of 3 ns. It is housed in a 14-pin TSSOP package and supports an operating temperature range of -40°C to +85°C.

Feature Summary

• Schmitt-trigger action at all inputs ensures tolerance for slower input rise and fall times.
• Provides direct interface compatibility with TTL levels when operating between 2.7 V and 3.6 V.
• Offers robust latch-up performance exceeding 250 mA per JEDEC standards.

Applications

• Low-voltage digital signal processing systems
• Portable battery-powered electronic devices
• General-purpose logic buffering and switching

Procurement Notes

Verify component authenticity through authorized distributors or official manufacturer channels. Confirm RoHS compliance status and check for end-of-life notices, as availability may be limited. Ensure packaging specifications match design requirements before finalizing orders.

Selection Notes

Select this component for applications requiring fast switching speeds and low power consumption in sub-3.6 V environments. Consider the TSSOP package constraints for PCB layout. Verify input voltage levels against the specified 3.6 V tolerance limits to ensure reliable operation across the full temperature range.

Part Context

This part belongs to the 74ALVC00 family of single-function gates manufactured by onsemi. It is designed as a high-performance alternative to standard CMOS logic, offering superior speed and lower power dissipation while maintaining compatibility with existing TTL-based system architectures.

Replacement Considerations

Check for equivalent parts from other manufacturers such as Nexperia or Texas Instruments if sourcing is restricted. Ensure pinout compatibility and electrical parameter alignment, particularly regarding output current capabilities and propagation delays.