In the fig. shown below we can find the higher critical frequency due to the inputis equal to . and the output circuit is equal to . Assume B = 125, Cbe =20 pF, and Cbc = 2.4 pF.Vc+10 VRe2.2 kn C,R122 kl10 uF60010 jaF22 kfR470 0V.4.7 kFH(in)= 1.62 MHz and FH(out)= 62.3 MHzFH(in)= 1.82 MHz and FH(out)= 60.3 MHzNo option is correctFH(in)= 1.62 MHz and FH(out)= 60.3 MHzFH(in)= 3.62 MHz and FH(out)= 60.3 MHzOther:

Answered: Image /qna-images/answer/b3e30347-e3bb-45e5-9cfa-9562c18c4119.jpg

In the fig. shown below we can find the higher critical frequency due to the input is equal to . and the output circuit is equal to . Assume ß = 125, Cbe = 20 pF, and Cbc = 2.4 pF. Vee +10 V Re 2.2 kn C, R 22 kf 10 juF 600 10 uF 22 kf R 4.7 k R 470 O FH(in)= 1.62 MHz and FH(out)= 62.3 MHz FH(in)= 1.82 MHz and FH(out)= 60.3 MHz No option is correct FH(in)= 1.62 MHz and FH(out)= 60.3 MHz O FH(in)= 3.62 MHz and FH(out)= 60.3 MHz Other:

In the fig. shown below we can find the higher critical frequency due to the input is equal to . and the output circuit is equal to . Assume ß = 125, Cbe = 20 pF, and Cbc = 2.4 pF. Vee +10 V Re 2.2 kn C, R 22 kf 10 juF 600 10 uF 22 kf R 4.7 k R 470 O FH(in)= 1.62 MHz and FH(out)= 62.3 MHz FH(in)= 1.82 MHz and FH(out)= 60.3 MHz No option is correct FH(in)= 1.62 MHz and FH(out)= 60.3 MHz O FH(in)= 3.62 MHz and FH(out)= 60.3 MHz Other:

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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