Use an ideal op amp to design an inverting integrator with an input resistance of 20KQ and an integration time constant of Ims. What isthe value of C, the gain magnitude and phase angle of this circuit at 25 rad/s.O C= 501F, Gain= 20, phase =90O C= 0.5nF, Gain= 40, phase =90O C= 0.05UF, Gain= 40, phase =90O C= 10NF, Gain= 55, phase =90 För ideal op amp operating with the following feedback network in the inverting configuration, what is the closed-loop gain results? R1= 10 k2, R2 = 50 k2R3.O 0.2 vO- 5O - 5 VO 0.2

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Use an ideal op amp to design an inverting integrator with an input resistance of 20k2 and an integration time constant of Ims. What is the value of C, the gain magnitude and phase angle of this circuit at 25 rad/s. O C= 50nF, Gain= 20, phase =90 O C= 0.5nF, Gain= 40, phase =90 O C= 0.05UF, Gain= 40, phase =90 O C= 100F, Gain= 55, phase =90

Use an ideal op amp to design an inverting integrator with an input resistance of 20k2 and an integration time constant of Ims. What is the value of C, the gain magnitude and phase angle of this circuit at 25 rad/s. O C= 50nF, Gain= 20, phase =90 O C= 0.5nF, Gain= 40, phase =90 O C= 0.05UF, Gain= 40, phase =90 O C= 100F, Gain= 55, phase =90

Delmar's Standard Textbook Of Electricity

7th Edition

ISBN:9781337900348

Author:Stephen L. Herman

Publisher:Stephen L. Herman

Chapter18: Resistive-inductive Parallel Circuits

Section: Chapter Questions

Problem 13PP: In an R-L parallel circuit, IT=1.25 amps, R=1.2k, and XL=1k. Find IR

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