Please help with part a,b,c !! Problem 10.A comparator shown in the circuit below is used to pick the larger of the two 4-bit numbers A or B.4-bit 2-to-1 MUXtoD1DOMax (A,B)4A4-bitMagnitudeComparator4Вa) Which comparator output connects to the MUX select input: <, > or =?b) How many bits is the MUX select input?__?c) If you have to pick ASB, what logic gate would you add to the circuit?(2 choices)V

(a) Write the truth table for the 4-bit-2-to-1 MUX as below. Inputs Outputs G S Y3…

Problem 10. A comparator shown in the circuit below is used to pick the larger of the two 4-bit numbers A or B. 4-bit 2-to-1 MUX D1 DO Max (A,B) A 4-bit Magnitude Comparator a) Which comparator output connects to the MUX select input: <, > or =? b) How many bits is the MUX select input?_? c) If you have to pick ASB, what logic gate would you add to the circuit? (2 choices)

Problem 10. A comparator shown in the circuit below is used to pick the larger of the two 4-bit numbers A or B. 4-bit 2-to-1 MUX D1 DO Max (A,B) A 4-bit Magnitude Comparator a) Which comparator output connects to the MUX select input: <, > or =? b) How many bits is the MUX select input?_? c) If you have to pick ASB, what logic gate would you add to the circuit? (2 choices)

Electric Motor Control

10th Edition

ISBN:9781133702818

Author:Herman

Publisher:Herman

Chapter22: Sequence Control

Section: Chapter Questions

Problem 6SQ: Draw a symbol for a solid-state logic element AND.

See similar textbooks

Similar questions

Design a combinational circuit that takes 3-bit pattern as input and outputs binary code of bit position of the first 1' in the pattern reading from MSB (2nd position) to LSB (0th position).An additional output variable V is required along with binary code to indicate that the binary code is valid or note i.e., if the input pattern is '000' then the output V should be '0' to indicate that the binary code is not indicating the bit position of first 1' and we don't care about the binary code if V = 0. Design the required circuit using dual 4x1 MUXS and minimum additional logic.Available resources along with dual 4x1 MUXS are NOT gates, 2-input(AND, OR, NAND, NOR) gates.
parity generator design, construct and test a circuit that generates an even parity bit ffrom four messages bits . use XOR gates. adding one more XOR gate, expand the circuit so that it generates an odd parity bit also.
Derive the circuits for a three-bit parity generator and a four-bit parity checker using an odd-parity bit.
In the Figure shown below, consider your binary sequence d(n): 1- Find the DPSK output signal (the modulated signal). 2- Show how to demodulate the DPSK output signal and recover d(n). Data d(n) DPSK DPSK Modulated DPSK Data Modulator Demodulator signal
Q4) Design a Register File which includes four 2-bit registers (In total, it includes 8 bits). Each register is named as ala0, b1b0, c2c0, d1d0. Registers are loaded from the S input. In addition to that, there are two input signals, X and Y, to determine which register to select (ie. 00 selectsfirst register ala0 etc). Also there is R signal. When W is zero, the content of the register does not change. When the W is 1 the selected register is loaded with a new value by shifting from the S input. Design this register file by using D flip-flops.
- The proportional distribution of A, B, C, D signals is given in the table as a percentage. It “logic 1” when the signals are accepted as active, “logic 0” when they are accepted as passive. takes. - When the proportional sum of active signals is over 50%, its output is "logic1", When we accept "logic 0" when it is below 50%, the output in the table Find the values. - Create an X function based on the logic values you find. Simplify the created X function. - Design the simplified function with NAND and NOR gates. - Set up the circuits you designed with NAND and NOR gates and observe the outputs. Show the output values by drawing a table, applying all possibilities to the input values.
Design a combinational circuit with the four inputs A,B.C, and D, and three outputs X, Y, and Z. When the binary input is odd number, the binary output is one lesser than the input. When the binary input is even number the binary output is one greate than the input. Implement the function using multiplexers with minimal input and select line.
- The proportional distribution of A, B, C, D signals is given in the table as a percentage. It “logic 1” when the signals are accepted as active, “logic 0” when they are accepted as passive. takes. - When the proportional sum of active signals is over 50%, its output is "logic1", When we accept "logic 0" when it is below 50%, the output in the table Find the values. - Create an X function based on the logic values you find. Simplify the created X function. - Design the simplified function with NAND and NOR gates.
A. Write a Verilog HDL code for Verilog code for a for 6-bit unsigned up counter B. Write test bench code of the circuit in the figure: DỊ40) 5-bit Full Adder 5-bit 5-bit Up - Counter DFF Ck
To design 10-bit GPR has three control signal S2S1S0, need to use O 8 (16-to-1 multiplexer) None of them 10 (8- to -1 multiplexer) O 10(16- to -1 multiplexer) O 8 (10-to-1 multiplexer )
The state diagram of a sequence which allows overlap is shown below. A sequence detector accepts input a string of bits:either 0 or 1. Its output goes to 1 when a target sequence has been detected. In a sequence detector that allows overlap, the final bits of one sequence can be the start of another sequence. Using the state diagram given below and an input sequence 10110: A) Assign binary values to the states and derice the state table. B)derive the simplified state equations. c) Use JK flip-flop abd design a synchronous sequence detector circut. D) Is this Mealy or Moore model? Treat unused states as do not care conditions
3. Design and Show the connection on the circuit that would add two 6-bit data, D: (D6 Ds Di) and H: (H6 Hs Hi). You may use 4-bit adders. Draw the circuit and clearly indicate/identify all input and outputs. Show addition of Ds to Hs and Sum (Es). Do not draw switches, resistors, and LEDS at inputs or outputs. 7483A 7483A A. A, A, A1 B. B. B, B, B. B. B, C, C. C. C. B,