Q4: Design a buck-boostconverter to provide an output voltage 12V from a source that varies 'between 10V-16V.Given the load resistor is 10 2, assuming the frequency is 50 KHz and the outputvoltage ripple is 1.5% Specify:a. The duty ratio.b. The value of inductor.c. The value of capacitor.Note: Determine the values of inductor and capacitor with DI only.

Given V0 = 12 V Vs =10 V -16 V Load resistance, R=102 Ω (note: unit of resistance is not given. we…

Answered: Q4: Design a buck-boost converter to…

Introductory Circuit Analysis (13th Edition)

13th Edition

ISBN:9780133923605

Author:Robert L. Boylestad

Publisher:Robert L. Boylestad

Chapter1: Introduction

Section: Chapter Questions

Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...

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For the circuit shown in Figure 2, sketch the output voltage (across the load 2.2 KN resistor) and the load current (through the load 2.2 Kn resistor). Sketch the diode voltage (across the diode D1) and the diode current (through the diode DI). The input V. is sinusoidal with maximum amplitude (peak) of 100 V and frequency of 700 Hz. The diode DI is a Silicon diode. The sketches have to be at least for two cycles of the input. D1 2.2 K2 Vi
Question 3 Consider the following cirucit: in + V1 R1 5 PULSE (0 2 1 1 1 1) (Note again the unrealistic diode characteristics.) The input is a ramp: 2.0V- 1.6V- 1.2V- 0.8V- 0.4V- 0.0V- 0.0s 0.2s 0.4s 0.6s 0.8s out .tran 2 .model diode D(Ron=5 Vfwd=1 Roff=1G) V(in) D1 diode 1.0s 1.2s 1.4s 1.6s 1.8s 2.0s The output voltage is similar to the input voltage, except that it breaks at a certain voltage and reaches a different final value. Find the break voltage and the final value of the output.
Using ideal diodes (voltage drop across ideal diodes is zero) and resistors, construct a circuit that results in the following output vs. input voltage characteristics.
Draw a full-wave bridge rectifier circuit (use multisim) connected to a load resistance of 470 N, with input VPP= 29 V. Connect a voltmeter across the load and an ammeter to measure the current through the load. Peak voltage of the output from the graph Average voltage across the load from the voltmeter reading Average current from the ammeter reading Insert the picture of the simulation here
p3. A biased parallel clipper is connected to a squarewave 20VAC input.The biasing voltage of 5V has the same polarity with the Vo while the Si diode is connected in reverse and will conduct only during negative half cycle. In P3, what is the output voltage (Vo) during the positive half cycle? a. -4.3V b. 20V c. 4.3V d. -12.15V
Vi (t) = 10.sinwt Does not pass positive alternans when Volt input voltage is applied, only Design and explain two different circuits that pass negative alternans. Draw the input and output voltages. What are the types of these circuits? (Note: You can use the ideal diode approach)
Design a POWER SUPPLY with 5V output voltage. Use zener diode as a voltage regulator. Then solve for theoretical computations. Thanks!
Make the described voltage multiplier circuit, determine the voltage charge in each capacitor, and the output voltage of the circuit. Plot the output waveform in proper phase alignment with the input voltage. Indicate the peak values with the support of your solutions. Use silicon diodes in your analysis and an input V=10 Vrms. a) Half-wave voltage doubler b.) Full-wave voltage doubler
Using a positive Clamper with positive biasing voltage Circuit, with an AC voltage of Vi = 20v with a frequency of 60hz, a value of 500n for the Capacitor, a silicon diode, biased voltage voltage of 5 volts and a resistor with the value of 300 ohms. Find the current on the resistor at a simulation of 20ms in mA. Vm 2Vm R V,m Vo -Vm V, Input Waveform Output Waveform Positive Clamper with positive reference V, www
Q.1) The step-down converter shown below has a pure resistive load of value 10 2. The input supply voltage is Vs=110 V. The switch (SW) can be assumed ideal. For a chopping frequency of value f= 5 kHz and a duty cycle of value 75 %, perform the following: a) Draw the waveforms of the voltages across the load resistance (R), across the switch (SW), and across the diode (D). b) Draw the waveforms of the currents in the load resistance (R), in the switch (SW), and in the diode (D). c) calculate the average value of the load voltage. d) calculate the rms value of the load voltage. e) calculate the power consumed by the load. f) calculate the effective input resistance of the converter. SW Vs D
Draw the circuit using only ideal diodes, resistors and voltage sources to obtain the Vo-Vi relationship whose characteristic is given below (the values shown on the characteristic are slope values).
The average (DC) value of a half-wave rectified voltage with a peak value of 200 V is: a. 63.7 V b. 127.3 V c. d. OV 141 V 2. Voltage regulation is determined by: a. load current b. Zener current and load current c. changes in load resistance and output voltage d. changes in no-load voltage and full-load voltage When a 60-Hz sinusoidal voltage is applied to the input of a full-wave rectifier, the output frequency is: a. 120 Hz b. 60 Hz c. 240 Hz d. 0 Hz

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