1. Implement them with a single PROM.

2. Implement them separately with a single 16:1 Multiplexer for each.

3. For the same functions, we have available as many of the decoders described below

   as we need plus 2 eight-input OR gates. Show a block diagram for this implementation. All inputs are available both uncomplemented and complemented.

Problem 7: (8 pts) We have found a minimum sum of products expression for each of two functions, F and G, minimizing them individually: Implement them with a single PROM Implement them separately with a single 16:1 Multiplexer for each For the same functions, we have available as many of the decoders described below as we need plus 2 eight-input OR gates. Show a block diagram for this implementation. All inputs are available both uncomplemented and complemented. iii. EN1EN2 ABO123 XIX|0|0|0|0 A 0 0 0 0 0 0 0 1000 0 101 0 0 10 0 0 0 110 00 1 ENT EN2 Problem 7: (8 pts) We have found a minimum sum of products expression for each of two functions, F and G, minimizing them individually: Implement them with a single PROM Implement them separately with a single 16:1 Multiplexer for each For the same functions, we have available as many of the decoders described below as we need plus 2 eight-input OR gates. Show a block diagram for this implementation. All inputs are available both uncomplemented and complemented. iii. EN1EN2 ABO123 XIX|0|0|0|0 A 0 0 0 0 0 0 0 1000 0 101 0 0 10 0 0 0 110 00 1 ENT EN2