SN74ABT273PWR Overview

It is embeded in 20-TSSOP (0.173, 4.40mm Width) case. The package Cut Tape (CT)contains it. This output is configured with Non-Inverted. It is configured with a trigger that uses a value of Positive Edge. Surface Mountmounts this electrical part. A supply voltage of 4.5V~5.5V is required for operation. -40°C~85°C TAis the operating temperature. This D latch has the type D-Type. In terms of FPGAs, it belongs to the 74ABT series. It should not exceed 150MHzin terms of its output frequency. A total of 1elements are contained within it. This process consumes 400μA quiescents. There are 20 terminations, which are the practice of ending a transmission line with a device that matches the characteristic impedance of the line. It is a member of the 74ABT273 family. Power is supplied from a voltage of 5V volts. This JK flip flop has a 7pFfarad input capacitance. ABTis the family of this D flip flop. There is an electronic component mounted in the way of Surface Mount. The 20pins are designed into the board. This device has the clock edge trigger type of Positive Edge. There is a base part number FF/Latchesfor the RS flip flops. 8bits are used in its design. To achieve this superior flexibility, 8 circuits are used. Compared to other similar T flip flops, this device offers reliable performance and is well suited for TR. A power supply of 5Vis required to operate it. A high level of efficiency can be achieved by maintaining the supply voltage at 5V. In addition to its maximum design flexibility, the output current of the T flip flop is 64mA. It consumes a total of 30mA quiescent current at any given time.

SN74ABT273PWR Features

Cut Tape (CT) package
74ABT series
20 pins
8 Bits
5V power supplies

SN74ABT273PWR Applications

There are a lot of Texas Instruments SN74ABT273PWR Flip Flops applications.

• Supports Live Insertion
• Consumer
• Asynchronous counter
• Storage registers
• Convert a momentary switch to a toggle switch
• Frequency Dividers
• Single Up Count-Control Line
• ATE
• Patented noise
• Circuit Design