74LVC273APGG8

Overview

The IDT 74LVC273APGG8 is an octal D-type flip-flop featuring positive-edge clock triggering and asynchronous reset functionality. It operates within a voltage range of 2.7V to 3.6V, ensuring compatibility with standard low-voltage logic systems. The device utilizes advanced CMOS technology to achieve high-speed performance while maintaining low power consumption characteristics suitable for battery-operated applications.

Feature Summary

• Provides eight independent D-type flip-flops for parallel data storage
• Features positive-edge triggered clocking mechanism for precise timing control
• Includes dedicated asynchronous reset input for immediate state initialization

Applications

• Parallel-to-serial data conversion circuits
• General-purpose register file implementations
• State machine output buffering stages

Procurement Notes

Verify the specific suffix 'PGG8' against official manufacturer documentation to confirm package type and tape/reel specifications. Ensure the component meets required industrial temperature ranges and RoHS compliance standards before integration into final designs.

Selection Notes

Select this component when designing systems requiring multiple synchronized storage elements operating at 3.3V logic levels. Consider its propagation delay and drive capability relative to load requirements to ensure signal integrity across the intended operating frequency spectrum.

Part Context

This part belongs to the LVC family of logic integrated circuits, designed for low-voltage operation in modern digital systems. It serves as a fundamental building block for sequential logic design, offering reliable data retention and transfer capabilities within complex microcontroller or FPGA peripheral interfaces.

Replacement Considerations

Cross-reference with SN74LVC273A variants from Texas Instruments or similar octal flip-flops from ON Semiconductor. Verify pinout compatibility and electrical parameter equivalence to ensure seamless substitution without redesigning the surrounding circuitry.