TH UTM e (c) Figure Q.3.2 shows a 3-bit ripple-carry-adder for S= A + B. Modify the adder 8 UTM O to perform the subtraction operation F A - B. & UTM O TM &UTM & A2 B2 A1 B1 5 UTM Ao Bo Cout TM &UTM UTM 8 UTM &UT FA C1 FA Co FA TM UTM & UTM UTM & UT" S2 & UTM So Figure Q.3.2 UTM 8 UTM & UT"

Below is an example of an NMOS logic circuit. For all of the MOSFETs in the circuit below, assume V = 1 V and k = 50 mA/V². th W R₂ = 5600 PEETHIPPIN R₁ - 4700 M3 M₁ M. 0 a. Indicate and verify the state of each MOSFET and V for the following input combinations. Fill-out the table below for each assumed state of the MOSFET for every input combination. Use R approximation for linear operation and three significant ds(on) figures for the voltages. 오 Ao SV why

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.

I need solution details in 30 minutes

What will be the boolean function (y) for the given CMOS logic circuit as shown in the figure? AMP, MP₂-B MP3 A—IL MN, BCMN₂ D- V₂ HCMN₂ DD MP -D MP-E y MN3C GND MNE

Answer n,o,p

The principle of carry look ahead is used to speed up a ripple adder. a. b reduce the number of inputs of binary adders. simplify the design process of binary adders. d. validate the outputs of a ripple adder. none of the others. e.

In a simple, three-phase voltage-source inverter of the form shown in Fig. 8.18, the direct voltage va in the link is 550 V. The frequency of the inverter output is 200 Hz. Determine: (a) the rms value of the fundamental component of the output voltage, line to line and line to neutral, and (b) the rms value of the actual output voltage line to line and line to neutral.

Digital logic design Solve it with drawing and simulation lab I need them both to have the full solution. And thanks Design counter that counts from 00 to 59, using the IC 74LS90 ripple counter and use two 7 segment display to display the result count. You can also use 7447 binary to 7-segment Display Decoder.

Please do part b using the Assumption