SN74F175NSR Description
The SN74F175NSR is a high-performance D-type flip-flop from Texas Instruments, designed for applications requiring fast switching and reliable data storage. This single 4-bit D-type flip-flop operates with a clock frequency of up to 140 MHz, ensuring rapid data processing and synchronization. It features a positive edge-triggered mechanism, which means it captures the input data on the rising edge of the clock signal, providing precise timing control.
The device is powered by a supply voltage ranging from 4.5V to 5.5V, making it suitable for standard 5V digital systems. It offers complementary outputs, providing both true and inverted signals, which can be advantageous for various digital logic applications. The SN74F175NSR also includes a master reset function, allowing for the synchronous reset of all flip-flops, ensuring a clean state at the start of operations.
SN74F175NSR Features
- High Clock Frequency: With a maximum clock frequency of 140 MHz, the SN74F175NSR ensures fast data processing and synchronization, making it ideal for high-speed digital systems.
- Positive Edge Triggering: The positive edge-triggered design captures input data on the rising edge of the clock signal, providing precise timing control and minimizing timing errors.
- Complementary Outputs: The device offers both true and inverted outputs, providing flexibility in digital logic design and reducing the need for additional inverters.
- Master Reset Function: The master reset feature allows for synchronous reset of all flip-flops, ensuring a clean and consistent state at the start of operations.
- Low Propagation Delay: With a maximum propagation delay of 8.5ns at 5V and 50pF, the SN74F175NSR ensures minimal delay in signal transmission, enhancing overall system performance.
- Low Quiescent Current: The device consumes only 34 mA in quiescent mode, making it energy-efficient and suitable for applications with power constraints.
- Wide Operating Temperature Range: The SN74F175NSR operates reliably within a temperature range of 0°C to 70°C, making it suitable for a variety of industrial and commercial applications.
- Surface Mount Packaging: The surface mount package (16SO) allows for easy integration into modern PCB designs, reducing the overall footprint and improving board density.
SN74F175NSR Applications
The SN74F175NSR is well-suited for a variety of applications that require high-speed data processing and reliable data storage. Some specific use cases include:
- Digital Signal Processing: The high clock frequency and low propagation delay make it ideal for applications involving digital signal processing, where rapid data capture and synchronization are critical.
- Data Storage and Retrieval: The D-type flip-flop design allows for the reliable storage and retrieval of digital data, making it suitable for memory and data buffering applications.
- Clock Synchronization: The positive edge-triggered mechanism ensures precise timing control, making it ideal for clock synchronization in digital systems.
- Control Systems: The master reset function and complementary outputs provide flexibility in digital logic design, making it suitable for control systems and automation applications.
- Communication Systems: The device's high-speed performance and reliability make it suitable for communication systems, where data integrity and timing accuracy are essential.
Conclusion of SN74F175NSR
The SN74F175NSR from Texas Instruments is a versatile and high-performance D-type flip-flop that offers several unique features and advantages over similar models. Its high clock frequency, positive edge-triggered design, complementary outputs, and master reset function make it a reliable choice for a variety of digital applications. The device's low propagation delay, low quiescent current, and wide operating temperature range further enhance its performance and reliability. With its surface mount packaging and compatibility with standard 5V digital systems, the SN74F175NSR is an excellent choice for modern PCB designs and high-speed digital systems.