SNJ54ABT373J Octal Transparent D-Type Latch by Texas Instruments
The SNJ54ABT373J is a high-performance integrated circuit designed and manufactured by Texas Instruments, a global leader in semiconductor solutions. This octal transparent D-type latch is part of the ABT family, known for its advanced bicmos technology, and is specifically engineered to deliver both high speed and low power consumption for a wide range of digital applications.
The device features eight D-type latches with 3-state outputs in a single 20-pin package. Each latch is transparent, meaning that when the latch enable (LE) input is high, the Q outputs will follow the data (D) inputs. As soon as LE is taken low, the data that was present at the D inputs at the time the transition occurred will be retained at the Q outputs until LE is returned high again, thus acting as a memory storage device.
The SNJ54ABT373J operates over a broad voltage range and is characterized for operation from -55°C to 125°C, making it suitable for military and aerospace applications that demand high reliability and performance under extreme conditions. The 3-state outputs, which can be put in a high-impedance state, allow for bus-oriented applications, providing a great deal of flexibility in system design.
Key features of the SNJ54ABT373J include:
- Eight D-type latches with 3-state outputs
- Transparent latch operation for real-time data tracking
- Wide operating voltage range
- Low power consumption
- High-speed performance
- Designed for military and aerospace applications
- 20-pin package for compact integration
Overall, the SNJ54ABT373J is a robust and reliable choice for designers who require a high-performance latch that can operate in harsh environments. Its combination of speed, power efficiency, and flexibility makes it an ideal component for sophisticated electronic systems.
For detailed specifications, application notes, and additional resources, designers are encouraged to consult the official Texas Instruments datasheets and product guides to ensure proper integration and optimal performance in their applications.