Low Voltage 18-Bit Universal Bus Driver with 3.6V Tolerant Inputs/Outputs and 26??Series Resistors in Outputs

General Description The ALVC162835 low voltage 18-bit universal bus driver combines D-type latches and D-type flip-flops to allow data flow in transparent, latched and clocked modes. The ALVC162835 is designed with 26Ω series resistors in the outputs. This design reduces noise in applications suc

Low Voltage 18-Bit Universal Bus Driver with 3.6V Tolerant Inputs/Outputs and 26??Series Resistors in Outputs

General Description The ALVC162835 low voltage 18-bit universal bus driver combines D-type latches and D-type flip-flops to allow data flow in transparent, latched and clocked modes. The ALVC162835 is designed with 26Ω series resistors in the outputs. This design reduces noise in applications suc

18-bit registered driver with 30ohm termination resistors (3-State)

DESCRIPTION The 74ALVC162835A is an 18-bit universal bus driver. Data flow is controlled by output enable (OE), latch enable (LE) and clock inputs (CP). When LE is HIGH, the A to Y data flow is transparent. When LE is LOW and CP is held at LOW or HIGH, the data is latched; on the LOW to HIGH tran

18-bit registered driver with 30 Ω termination resistors; 3-state

1 General description The 74ALVC162835A is an 18-bit universal bus driver. Data flow is controlled by output enable (OE), latch enable (LE) and clock inputs (CP). When LE is HIGH, the A to Y data flow is transparent. When LE is LOW and CP is held at LOW or HIGH, the data is latched; on the LOW

18-bit registered driver with 30 Ω termination resistors; 3-state

1 General description The 74ALVC162835A is an 18-bit universal bus driver. Data flow is controlled by output enable (OE), latch enable (LE) and clock inputs (CP). When LE is HIGH, the A to Y data flow is transparent. When LE is LOW and CP is held at LOW or HIGH, the data is latched; on the LOW

18-bit registered driver with 30ohm termination resistors (3-State)

DESCRIPTION The 74ALVC162835A is an 18-bit universal bus driver. Data flow is controlled by output enable (OE), latch enable (LE) and clock inputs (CP). When LE is HIGH, the A to Y data flow is transparent. When LE is LOW and CP is held at LOW or HIGH, the data is latched; on the LOW to HIGH tran