Nexperia

74LVC273PW,112  

Flip Flops

74LVC273PW,112 Description

The 74LVC273PW,112 is a single 8-bit D-type flip-flop IC from Nexperia, designed for high-performance digital applications. This device is part of the 74LVC series, known for its low-voltage CMOS technology, which ensures reliable operation across a wide supply voltage range of 1.65V to 3.6V. The 74LVC273PW,112 features a maximum clock frequency of 230 MHz, making it suitable for high-speed digital systems. The flip-flop is triggered on the positive edge of the clock signal, ensuring precise timing control. Additionally, it supports a master reset function, allowing for synchronous reset of all flip-flops. The device is housed in a 20-TSSOP package, suitable for surface-mount applications, and is available in tube packaging for convenient handling and storage.

74LVC273PW,112 Features

• High-Speed Operation: With a maximum clock frequency of 230 MHz, the 74LVC273PW,112 is ideal for high-speed digital systems.
• Low Power Consumption: The device operates with a quiescent current of only 10 µA, making it energy-efficient.
• Wide Supply Voltage Range: The 74LVC273PW,112 operates reliably within a supply voltage range of 1.65V to 3.6V, providing flexibility in power supply design.
• Positive Edge Triggering: The flip-flop is triggered on the positive edge of the clock signal, ensuring precise timing control.
• Master Reset Functionality: The device supports a master reset function, allowing for synchronous reset of all flip-flops.
• Low Input Capacitance: With an input capacitance of 5 pF, the 74LVC273PW,112 minimizes signal degradation and ensures high signal integrity.
• High Output Current Capability: The device can source and sink up to 24 mA, making it suitable for driving a variety of digital loads.
• Compliance and Reliability: The 74LVC273PW,112 is REACH unaffected and RoHS3 compliant, ensuring environmental and regulatory compliance. It also has a moisture sensitivity level (MSL) of 1, making it suitable for unlimited storage and handling.

74LVC273PW,112 Applications

The 74LVC273PW,112 is ideal for a variety of high-speed digital applications, including:

• Digital Signal Processing: The high clock frequency and precise timing control make it suitable for applications requiring fast data processing and manipulation.
• Memory Systems: The 8-bit flip-flop can be used in memory systems for data storage and retrieval, ensuring reliable operation.
• Communication Systems: The device's high-speed operation and low power consumption make it ideal for use in communication systems where data integrity and efficiency are critical.
• Control Systems: The master reset function and positive edge triggering provide precise control, making the 74LVC273PW,112 suitable for use in control systems.
• Consumer Electronics: The wide supply voltage range and low power consumption make it suitable for use in consumer electronics where power efficiency and reliability are essential.

Conclusion of 74LVC273PW,112

The 74LVC273PW,112 is a versatile and high-performance D-type flip-flop IC that offers significant advantages over similar models. Its wide supply voltage range, high clock frequency, and low power consumption make it suitable for a variety of high-speed digital applications. The device's master reset function and positive edge triggering ensure precise timing control, while its low input capacitance and high output current capability ensure signal integrity and reliability. The 74LVC273PW,112 is an excellent choice for designers looking for a reliable and efficient flip-flop solution for their digital systems.

74LVC273PW,112 Documents

Download datasheets and manufacturer documentation for 74LVC273PW,112

PCN Assembly/Origin :

ICN6 to ICN8 Transfer 13/Jul/2013      

Datasheets :

74LVC273D,118 Datasheet      

PCN Packaging :

All Dev Label Chgs 2/Aug/2020       Label Chg 12/Mar/2017      

PCN Obsolescence/ EOL :

Mult Dev EOL 21/Jul/2021       Mult Dev EOL 5/Jul/2021      

HTML Datasheet :

74LVC273D,118 Datasheet      

PCN Design/Specification :

Logo Marking Update 30/Nov/2016