SN74LVTH273DBR Overview

The flip flop is packaged in a case of 20-SSOP (0.209, 5.30mm Width). It is contained within the Tape & Reel (TR)package. This output is configured with Non-Inverted. It is configured with the trigger Positive Edge. Surface Mountmounts this electrical part. The JK flip flop operates at 2.7V~3.6Vvolts. A temperature of -40°C~85°C TAis considered to be the operating temperature. A flip flop of this type is classified as a D-Type. The 74LVTHseries comprises this type of FPGA. This D flip flop should not have a frequency greater than 150MHz. The list contains 1 elements. There is 190μA quiescent consumption. A total of 20 terminations have been made. The 74LVTH273 family contains it. Power is supplied from a voltage of 3.3V volts. A JK flip flop with a 4pFfarad input capacitance is used here. LVTis the family of this D flip flop. There is an electronic part mounted in the way of Surface Mount. This board is designed with 20pins on it. This device has Positive Edgeas its clock edge trigger type. There is a base part number FF/Latchesfor the RS flip flops. An electronic part with 8bits has been designed. As soon as 3.6Vis reached, Vsup reaches its maximum value. If you want to maintain normal operation, you should keep the supply voltage (Vsup) above 2.7V. Its superior flexibility is attributed to its use of 8 circuits. In view of its reliability, this D flip flop is a good fit for TR. A high level of efficiency can be achieved by maintaining the supply voltage at 3.3V. Featuring the maximum design flexibility, it has an output current of 64mA . As a result, it consumes 5mA of quiescent current without being affected by external factors.

SN74LVTH273DBR Features

Tape & Reel (TR) package
74LVTH series
20 pins
8 Bits

SN74LVTH273DBR Applications

There are a lot of Texas Instruments SN74LVTH273DBR Flip Flops applications.

• Single Up Count-Control Line
• ESCC
• Latch
• Matched Rise and Fall
• ESD performance
• Modulo – n – counter
• Bounce elimination switch
• Parallel data storage
• Counters
• Memory