The 74HC173N,652 is a high-speed Si-gate CMOS device designed and manufactured by NXP Semiconductors, a leader in the electronics industry. This integrated circuit belongs to the 74HC series, known for their compatibility with TTL (Transistor-Transistor Logic) levels while offering the low power consumption and high noise immunity typical of CMOS technology.
Key Features
- Logic Type: Quad D-type Flip-Flop
- Output Type: 3-State Non-Inverted
- Package / Case: DIP-16
- Mounting Type: Through Hole
- Supply Voltage Range: 2.0V to 6.0V
- Operating Temperature: -40°C to +125°C
- Logic Family: HC
- Propagation Delay Time: 13ns at 6V
Product Description
The 74HC173N,652 is a quad D-type flip-flop with clear and preset capabilities. Each flip-flop has individual clear and clock inputs and also features a common preset and a common output enable. The device comes in a robust DIP-16 (Dual In-line Package) which is suitable for through-hole PCB mounting, making it an excellent choice for prototyping as well as commercial production.
With a wide supply voltage range from 2.0V to 6.0V, the 74HC173N,652 is versatile for various digital applications. The low power consumption and high noise immunity of CMOS technology, combined with the ability to drive 10 LSTTL loads, make it highly suitable for interfacing with TTL systems. The device's 3-state outputs enable direct connection to a bus-organized system, adding to its flexibility in complex digital circuits.
The 74HC173N,652 operates over a broad temperature range, making it reliable for use in demanding environments. The propagation delay time of 13ns at 6V ensures fast response times for high-speed applications.
Applications
The 74HC173N,652 is ideal for a wide range of applications, including:
- Buffer/Storage Registers
- Control Registers
- Data Storage and Transfer
- Shift Registers
With its robust design and versatile features, the 74HC173N,652 from NXP Semiconductors is a reliable and efficient choice for designers looking to implement high-speed data storage and transfer systems in their digital applications.