The resistor Rf in the circuit in the figure is adjusted until the ideal opamp saturates. (Figure 1)Figure1.6 ΚΩwww7.5 ΚΩww31.5 ΚΩR₁49V3.5.6 ΚΩ1 of 1Part ASpecify Rf, given that v; = 20 V.Express your answer with the appropriate units.Rf=SubmitμᾶValueRequest AnswerReturn to AssignmentUnitsProvide Feedback?

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Answered: The resistor R, in the circuit in the…

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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If I have an input sine wave in a peak detector circuit I know the output the the first op amp (that will feed back into the negative terminal) should be a little larger than the input (this is why you add a second op amp). I'm not understanding it graphically. Splitting up the circuit say you have the first op amp and the diode (no capacitor or second op amp). the output should be only the positive part of sine wave, and the amplitude will be the amplitude input minus .6V from the diode drop, right? Then adding the capacitor it keeps the same amplitude but makes more DC. with the second op amp this makes it so the capacitor doesn't discharge (which is what keeps the voltage proper up I think?) With my logic here, the voltage feeding back into the first op amp negative terminal is the voltage input, minus a diode drop. So Vin > V- (voltage feeding back into the negative terminal). Which I'm pretty sure V- is supposed to be larger. So I think I'm misunderstand something here. Please…
Question 1: a) Sketch Vo versus time for the circuit shown with the input given. b) Determine DC output voltage without a capacitor. c) If a capacitor of 10 uF is placed in parallel with RL, sketch the vo versus time. d) find the DC output voltage. Given R1 = R2 = RL = 2.2 k2. Vi +40 D1. D2 10 ms R = 2.2 k2 ww R%3D 1GF R = -40 2.2 k2 2.2 k2
Given the four statements, which of the following statements are true about an op-amp integrator? i. For an op-amp integrator wilh R = 10OKOhms, C = 10UF and a sine wave inpul waveform, the output waveform is a cosine waveform. %3D ii. For an op-amp integrator with R = 100KOhms, C = 10uF and a triangular input waveform, the output waveform is a square wave. iii. For an op-amp integrator with R- 100KOhms, C =10uF and a sine wave input waveform, the output waveform is a sawtooth waveform. v. For an op-amp integrator with R10OKOhms. C lCuF and a square wave input waveform, the output waveform is a triangular waveferm.
18 ut of estion 9 In Designing a lag compensator for the shown system, the only thing left is to determine the gain K. Take the closed loop poles ass-0.2 0.9. Determine Ke. R(s) Select one: O a. -7 O b. 1.06 O c. 2.50 O d. 1.94 Oe. 0.88 Ke $+0.5 $+0.05 lag compensator Consider the followin s(s+1) plant C()
A good conducting coaxial cable whose inner conductor has radius 'a' and outer conductor has inner radius 'b' and thickness t' respectively where (b = 3a). The characteristics of the region between the two conductors are ɛ = 40e. F/m and oa2/m. If the inner conductor has a charge '2Q' and the dielectric region has a charge density of 10 + p C/m³, determine the followings for the region between the two conductors: Find the total charge distribution at p a and p = a* Find the energy stored within 1 m of the coaxial cable.
(d) The probable error of themean. 9) Amoving coil voltmeter has a uniform scale with 100 divisions, the full scalereading is 200 Vand 1/10 of a scale division can be estimated with a fair degree of certainty. Determine the resolution ofthe instrument in volt. 1'CC
For the differentiator op-amp circuit in Figure 5: a) If the sine wave input is V1= 0.02 sin 300x10³t what is the output voltage, v. when t= 10 ms. b) Draw the input and output waveforms. 200 ko 0.1 μΕ V1. OP Vo AMP Figure 5
Answer the following questions
a) Calculate the VA voltage value.b) Given the input voltage (Vin) waveformin the above Op-amp circuit, Vtl (low)and Vtu (high) hysteresis crossoverCalculate the voltages. c) At the Vtl and Vtu transitions of the Vo voltageCalculate the position changes.
what is the output waveform and phase shift of the integrator circuit given?
This is a practice question from my Introduction to Electronics course. Please talk me through the process. Thank you for your assistance.
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