SN74LS32ML1

Inverter Gates Overview

The SN74LS32ML1 is a Low Power Schottky (LS) Quad 2-Input OR Gate manufactured by onsemi. It operates within a supply voltage range of 4.75V to 5.25V, typically at 5V. The device features four independent OR gates in a single package. It complies with RoHS3 directives and has a Moisture Sensitivity Level (MSL) of 3 (168 hours). The component is classified under EAR99.

Inverter Gates Feature Summary

• Implements low power Schottky logic technology for high-speed operation with reduced power dissipation
• Contains four independent 2-input OR logic functions within a single integrated circuit
• Designed for standard 5V TTL logic system compatibility

Inverter Gates Applications

• Digital logic circuit design
• Signal processing systems
• General-purpose logic gate applications

Inverter Gates Procurement Notes

Verify the specific package type and tape-and-reel configuration against the manufacturer's datasheet before procurement. Confirm that the RoHS3 compliance status meets your project requirements. Ensure the MSL rating of 3 is compatible with your assembly floor handling procedures to prevent moisture damage during soldering.

Inverter Gates Selection Notes

Select this component when a quad 2-input OR function is required in a 5V TTL environment. The LS series offers a balance between speed and power consumption compared to standard TTL. Verify pinout compatibility if replacing older variants. Consider the operating temperature range specified in the official datasheet for your specific application environment.

Inverter Gates Part Context

This part belongs to the SN74LS32 family of Low Power Schottky logic devices produced by onsemi. It is a digital logic IC categorized under Gates and Inverters. The 'ML1' suffix typically denotes a specific packaging or reel variant of the base SN74LS32 component.

Inverter Gates Replacement Considerations

Compatible substitutes include other manufacturers' SN74LS32 equivalents. Verify pin-to-pin compatibility and electrical specifications such as propagation delay and output current drive capabilities before substitution.