The ’AHC04 devices contain six independent inverters. These devices perform the Boolean function Y = A. The ’AHC04 devices contain six independent inverters. These devices perform the Boolean function Y = A.

The SNx4AHC86 devices are quadruple 2-input exclusive-OR gates. These devices perform the Boolean function Y = A ⊕ B or Y = AB + A B in positive logic. A common application is as a true or complement element. If one of the inputs is low, the other input is reproduced in true form at the output. If one of the inputs is high, the signal on the other input is reproduced inverted at the output. The SNx4AHC86 devices are quadruple 2-input exclusive-OR gates. These devices perform the Boolean function Y = A ⊕ B or Y = AB + A B in positive logic. A common application is as a true or complement element. If one of the inputs is low, the other input is reproduced in true form at the output. If one of the inputs is high, the signal on the other input is reproduced inverted at the output.

The SNx4AHCT86 devices are quadruple 2-input exclusive-OR gates. These devices perform the Boolean function Y = A × B or Y = AB + A B in positive logic. The SNx4AHCT86 devices are quadruple 2-input exclusive-OR gates. These devices perform the Boolean function Y = A × B or Y = AB + A B in positive logic.

The SNx4AHCT245 octal bus transceivers are designed for asynchronous two-way communication between data buses. These parts operate from 4.5 V to 5.5 V. The SNx4AHCT245 octal bus transceivers are designed for asynchronous two-way communication between data buses. These parts operate from 4.5 V to 5.5 V.

The ’AHCT00 devices perform the Boolean function Y = A • B or Y = A + B in positive logic. The ’AHCT00 devices perform the Boolean function Y = A • B or Y = A + B in positive logic.

The SNx4AHCT32 devices are quadruple 2-input positive-OR gates. These devices perform the Boolean function Y = A × B or Y = A + B in positive logic. The SNx4AHCT32 devices are quadruple 2-input positive-OR gates. These devices perform the Boolean function Y = A × B or Y = A + B in positive logic.

The SNx4AHCT574 devices are octal edge-triggered D-type flip-flops that feature 3-state outputs designed specifically for driving highly capacitive or relatively low-impedance loads. The SNx4AHCT574 devices are octal edge-triggered D-type flip-flops that feature 3-state outputs designed specifically for driving highly capacitive or relatively low-impedance loads.

The SNx4AHCT573 devices are octal transparent D-type latches. When the latch-enable (LE) input is high, the Q outputs follow the data (D) inputs. When LE is low, the Q outputs are latched at the logic levels of the D inputs. The SNx4AHCT573 devices are octal transparent D-type latches. When the latch-enable (LE) input is high, the Q outputs follow the data (D) inputs. When LE is low, the Q outputs are latched at the logic levels of the D inputs.

The SNx4AHC573 devices are octal transparent D-type latches designed for 2V to 5.5V VCC operation. The SNx4AHC573 devices are octal transparent D-type latches designed for 2V to 5.5V VCC operation.

The ’AHCT541 octal buffers/drivers are ideal for driving bus lines or buffer memory address registers. These devices feature inputs and outputs on opposite sides of the package to facilitate printed circuit board layout. The ’AHCT541 octal buffers/drivers are ideal for driving bus lines or buffer memory address registers. These devices feature inputs and outputs on opposite sides of the package to facilitate printed circuit board layout.