Implement the function FWXYZ = Σ (0,1,3,8,9,10) using:
1.) A single 74x151 multiplexor
2.) The appropriate number of 74x138 decoders and any necessary NAND or NOR gates
3.) A single 4 x 3 PLA(programable logic array)
4.) Only NAND gates
5.) Only NOR gates
Implement the function FWXYZ = Σ (0,1,3,8,9,10) using: 1.) A single 74x151 multiplexor 2.) The appropriate...
Multiplexer Example Implement the following Boolean function using a 4x1 Mux; F(x,y,z) = Σ (1,2,6,7) Decoder Example Implement the following functions for a full adder using decoder; S(x,y,z) = Σ (1,2,4,7) C(x,y,z) = Σ (3,5,6,7) Implement the following Boolean function; F(x,y,z) = Σ (0,2,3,7): Using; 1. Two 2x4 decoders and logic gates 2. One 4x1 multiplexer Decoder . Draw the truth table for the function to be implemented. . Pick the terms for output. . Derive appropriate logic to combine terms. . Use two 2x4 decoders to make one3x8 decoder. . Pay attention to fact...
3. Implement the following gates using only one TTLİCİ (1 point) TEL EL (a) Example: One 4-input OR gate (b) One 2-input NAND gate and one 2-input OR gate (c) One inverter, one 2-input NAND and one 3-input NAND (d) One 2-input XOR gate and one 2-input XNOR (e) One 4-input XNOR gate 2346 GND 2-input OR 7432 1 Porcuits Simplify the following expressions, and implement them with two-level NAND gate circuits: 4. Minterms, K-map and two-level NAND/NAND logic: F...
Implement the Boolean function F(w,x,y,z) = Σm(3, 4, 5, 1 1, 12, 13, 14, 15) using a minimum number of NAND gates only. Write the minimal logic expression (no need to draw the circuit).
1. Determine 2 ways to implement an inverter with a 2-input NAND gate. 2. Implement a 3-input NAND gate function using 2-input NAND gates only, draw schematics. 3. Implement a 2-input OR function using 2-input NAND gates only, draw schematics. 4. (A) Implement the function using one 2-input OR gate, one 2- input AND gate and one 2-input NAND gate. (B) Implement the same function with only NAND gates. (C) Make up the truth table for the function. What is...
(c) Using two-stage synthesis, separately implement the following function first using a minimum number of NAND gates only, then NOR gates only. (10%) Y = ĀC + BC
(0,5,6,7,11) using: Implement the circuit defined by equation F(a,b,c,d) 1. 4-to-1 multiplexers and logic gates. 2. 2-to-4 decoders with non-inverted outputs and logic gates. (0,5,6,7,11) using: Implement the circuit defined by equation F(a,b,c,d) 1. 4-to-1 multiplexers and logic gates. 2. 2-to-4 decoders with non-inverted outputs and logic gates.
Implement the circuit defined by equation F(a,b,c,d) = ∑( ) using: a. -to- multiplexers and logic gates. b. -to- decoders and logic gates. (0,5,6,7,11) 3. Implement the circuit defined by equation F(a,b,c,d) = using: a. 4-to-1 multiplexers and logic gates. b. 2-to-4 decoders and logic gates.
3. () Use only NAND gates to implement the Boolean function F AC +BC. (ii) Use only NOR gates to implement the Boolean function F AB+BC. Write the truth tables and draw the logic circuits for the following Boolean functions: (i) F A +BC'. (ii) F AB +C'+D. 4.
Create a truth table to implement AND logic using only NAND gates. Draw the circuit diagram (schematic) for the implementation. Do the same for OR logic using only NOR gates.
Using mixed-logic technique, implement the logic function using only 2-input NOR (NOR2) gates and inverters: (1596) 3. F = ((A + BC)D) + C + DE