SN74LV573APWR

The SN74LV573APWR is an octal transparent latch designed for use in low-voltage CMOS applications. It features eight D-type latches with a common latch enable (LE) input, allowing data to be captured when LE is high. When LE is low, the output reflects the latched data, maintaining it regardless of changes at the data inputs. This device operates on a voltage range of 2V to 5.5V and is capable of high-speed performance, making it suitable for various digital applications, including data buffering and storage.
The SN74LV573APWR is housed in a TSSOP package, which offers a compact footprint for space-sensitive designs. It boasts low power consumption and high noise immunity, ensuring reliable operation in diverse environments. Its compatibility with TTL levels makes it versatile for interfacing with other logic families. Overall, the SN74LV573APWR is an efficient solution for managing data flow in digital circuits, ideal for applications in consumer electronics, communication devices, and computing systems.

The SN74LV573APWR is an octal transparent latch designed for low-voltage applications. Key features include:
1. Wide Supply Voltage Range: Operates from 2.7V to 3.6V, making it suitable for battery-powered devices and low-power circuits.

2. High-Speed Operation: Offers fast switching speeds, with propagation delays typically around 3.5 ns at Vcc = 3.3V.
3. Data Transparency: Data is latched when the enable pin (LE) is high, allowing for real-time data processing.
4. Eight Latch Outputs: Contains eight individual latches for data storage, supporting parallel data handling.
5. Low Power Consumption: Designed for low static and dynamic power consumption, ideal for energy-efficient applications.
6. TTL Compatible: Compatible with TTL logic levels, ensuring easy integration into existing designs.
7. Package Options: Available in various surface-mount packages, including TSSOP, which helps reduce board space.
These features make the SN74LV573APWR suitable for applications in data communication, signal processing, and digital logic circuits.

The SN74LV573APWR is packaged in a TSSOP (Thin Shrink Small Outline Package) with a 20-pin configuration.

The SN74LV573APWR is an octal D-type transparent latch with 8 data inputs, 8 outputs, and additional control inputs. It has a total of 20 pins.
Pin Count and Functions:
1. Data Inputs (D0-D7): Pins 1-8, where data is input.
2. Output Enable (OE): Pin 9, enables or disables the output.
3. Latches (LE): Pin 10, controls when data is latched.
4. Ground (GND): Pin 11, connects to the ground.
5. Data Outputs (Q0-Q7): Pins 12-19, where latched data is output.
6. VCC: Pin 20, connects to the supply voltage.
These latches operate in a transparent mode, meaning data at the inputs appear at the outputs as long as the latch enable (LE) signal is active. When LE goes low, the last data present at the inputs is latched and held, until LE is activated again.

The SN74LV573APWR is manufactured by Texas Instruments (TI), a global semiconductor company based in the United States. Founded in 1951, Texas Instruments designs and produces a wide range of electronic components, including analog and digital semiconductors, embedded processors, and microcontrollers. The company serves various industries, including automotive, industrial, communications, and consumer electronics. TI is well-known for its innovations in analog electronics and digital signal processing, positioning itself as a leader in the semiconductor market.

The SN74LV573APWR is an octal transparent latch commonly used in digital applications for data storage and transfer. It is suitable for interfacing with microcontrollers, signal buffering, and implementing temporary data storage in systems like data acquisition, communication devices, and control systems. Its low-voltage operation makes it ideal for battery-powered and low-power applications.

The SN74LV573APWR is an octal transparent latch. Equivalent products include the 74HC573, 74HCT573, and 74LVC573. These alternatives may vary in voltage levels and speed characteristics, so ensure compatibility with your specific application requirements.