NC7ST32P5X

Inverter Gates Overview

The NC7ST32P5X is a single 2-input OR gate from onsemi's TinyLogic series, housed in a compact SC-88A-5 (SC-70-5) surface-mount package. It operates within a supply voltage range of 4.5 V to 5.5 V and supports an operating temperature range from -40°C to +85°C. The device features low static current consumption of 1 µA and provides output drive currents of ±2 mA. Propagation delay is specified at 26 ns maximum when tested at 5.5 V with a 50 pF load.

Inverter Gates Feature Summary

• Provides single-channel 2-input OR logic functionality
• Operates on standard 5V supply rails
• Utilizes ultra-small footprint packaging for space-constrained designs

Inverter Gates Applications

• Portable electronic devices requiring minimal board space
• Battery-powered systems prioritizing low power consumption
• General-purpose digital logic signal processing

Inverter Gates Procurement Notes

Verify the specific ordering suffix against official datasheets to confirm package type and tape-and-reel specifications. Ensure compatibility with existing PCB footprints for the SC-88A-5 package. Confirm RoHS compliance status matches project requirements before finalizing procurement orders.

Inverter Gates Selection Notes

Select this component for applications requiring a simple OR function with tight space limitations. It is suitable for 5V logic systems needing moderate drive strength. Consider alternative series if lower voltage operation or higher speed performance is required for the specific design constraints.

Inverter Gates Part Context

This part belongs to onsemi's TinyLogic family, which focuses on high-speed, low-power discrete logic solutions. The NC7ST32 variant specifically implements OR logic within this portfolio, offering a balance of performance and size for modern consumer and industrial electronics.

Inverter Gates Replacement Considerations

Check for direct pin-compatible substitutes within the same logic family. Verify that any replacement maintains identical voltage ranges and propagation delays to ensure circuit functionality remains unchanged.