Product Overview: 74ACT16863DLG4
The 74ACT16863DLG4 is a high-performance, 16-bit transparent D-type latch with 3-state outputs designed and manufactured by the renowned electronics company Texas Instruments. This integrated circuit (IC) is part of the 74ACT series, which is known for its advanced high-speed CMOS technology. The device is specifically tailored to deliver the speed and drive capabilities necessary for a wide range of data buffering and storage applications.
Key Features
- High-Speed Operation: The 74ACT16863DLG4 is capable of operating at high speeds, making it suitable for high-frequency data processing and communication systems.
- Wide Operating Voltage Range: It operates over a broad voltage range from 4.5V to 5.5V, providing flexibility in various power supply environments.
- Low Power Consumption: With its advanced CMOS technology, the device offers a reduced power consumption which is ideal for power-sensitive applications.
- Bus-Hold Data Inputs: The latch includes bus-hold circuitry on its data inputs, eliminating the need for external pull-up or pull-down resistors and simplifying board design.
- 3-State Outputs: The 3-state outputs allow for connection to a bus-organized system, providing high impedance when not actively driving the bus.
Applications
The 74ACT16863DLG4 is versatile and can be used in various applications, including:
- Data storage and buffering
- Bus interface and bus switching
- Communication systems
- Microprocessor or microcontroller interface
- Memory address latching
Quality and Reliability
Texas Instruments ensures that the 74ACT16863DLG4 meets stringent quality standards, providing high reliability for critical applications. The device is available in a DLG package, which is a 48-pin TSSOP (Thin Shrink Small Outline Package) type, offering a compact footprint for space-constrained applications.
With its combination of speed, power efficiency, and robust design, the 74ACT16863DLG4 from Texas Instruments stands out as a superior choice for designers looking to implement efficient latching mechanisms in their digital systems.