Represent the following logic function using only 2:1 multiplexers. Use as few multiplexers as possible. All multiplexer data inputs must be coming from another mux or be a logic 1 or a logic zero. f = a'bc + ad + b'c + a'd + e
Represent the following logic function using only 2:1 multiplexers. Use as few multiplexers as po...
1. Q(A,B,C,D) = ABC'+ A'BC+C'D'+AB'+B'C a) Implement the previous function using logic gates. b) implement the same function using a 16 input multiplexer (74150) only. (Hint: draw the truth table for Q)
1) Implement the function given below using each of the following methods: ?(?, ?, ?, ?) = P (0,1,3,4,7,9,13,15) ∙ ?(5,14) As few 16-1 multiplexers as possible. One 8-1 multiplexer, inverters, and a few 2-1 multiplexers. One 4-1 multiplexer and a few 2-1 multiplexers As few 2-1 multiplexers and inverters as possible. 2) Write a Verilog module and testbench for a 3:1 multiplexer that implements the following function. You can use “case”, “if” or “assign” statements. Grades will be agnostic...
Use only 2-to-1 multiplexers to implement the circuit for the following function: F(A, B, C) = Pi M (1, 2, 4, 5) Assume the inverse of each input variable is available, (i.e., you can directly use the inverse of each input variable A, B, or C, in your answer.) Repeat P7, but this time using only one 4-to-1 multiplexer.
AU PUS Aswer For the following logic expression, apply Shannon's expansion to: a. decompose the function in terms of variables and c, and b synthesize and draw a logic circuit by using a 4-to-1 multiplexer and any other necessary basic gates, based on your decomposed function (with Band Cas the selector inputs) f = ABC + CD + AD Important Final Answer submission Notes: in Blackboard, only the decomposed function needs to be typed into the blank below. Use the...
Implement the function R = ab'h' + bch' + eg'h + fgh using *only* 2-to-1 multiplexers. Use the 2-to-1 multiplexer VHDL description from Problem 1 as a component to write VHDL code for the circuit design of function R. Perform CAD simulation of your design. (60)
Logic design Experiment 3 Design with Decoders and Multiplexers 1. Function Set Assignment Function set number F(wxya)-E m(e, 5,6,9, 13,15)+d,z,s,lo) Fs(wx.ya)Cy +u'+2)(x +y 2 2. Design Procedures Fxw.xya)-Em, 5,10,12,13,14, 1s (Show the implementation of F, and F by a 74155 IC and some external gates. Draw a circuit diagram.) 155 15o C Y3 b12 Y2 YO Y2 13 Y1 YO Draw the sub-function K-maps for F3 with w, x, z as expansion variables. Based on the sub-function K-maps, the data...
2. Implement the function F in textbook problem 4.10 using *only* 2-to-1 multiplexers. 4.10
Implement f(a,b,c) = Σm(0,2,6,7) using only 2-to-1 muxes. All inputs are available complemented and uncomplemented. Use as few muxes as possible. (Minimum is 1!) 2. Implement f(a,b,c) = Σm(1,2,3,5,6) using only 2-to-1 muxes. There are four possible solutions. You must find two. All inputs are available complemented and uncomplemented. Use as few muxes as possible. (Minimum is 2!)
You are asked to implement the function fw, w using a 4:1 multiplexer and as much logic as you need, but minimizing the extra logic as much as possible. You should use the following variables as the control variable of the 4:1 multiplexer and determine the combination that leads to the most cost-efficient implementation. i. wi and w2 ii. W2 and w3 W3, W4, W5)W1+w3W4 + W2W4 + W2W4 + W2w3W5 You are asked to implement the function fw, w...
using all D flip-flops and combinational logic (AND/OR/NOT gates only) b) using all T flip-flops and a multiplexer of size 8:1 Problem 3: (10 pts) Design a synchronous machine (Transition Table, K-maps, Final Equations, Circuit Diagram) that counts through the following sequence in the order shown below. Note, there are no inputs or output variables, so your Q values must reflect the Hex value listed B 74 2 D9 3 0 and repeat a) using all D flip-flops and combinational...