please solve asap .Given Ic = 0.8 mA, R1 = 68 Ko, R2 = 27 Ko, Rc = 4.7 Ko, RE = 2.2 Ko,Rsig = 10 Kn, RL= 10 K2, Bo = 200, C, = 0.8 pF, fr = 1 GHz. Neglect theeffect of rx and ro. Find the midband gain and upper-3dB frequency of theCE amplifier. Also calculate the value of RL that reduce the midband gainto half the value, and hence find the upper-3dB frequency of the CE%3Damplifier for the reduced gain.

It is given that: IC=0.8 mAR1=68 kohmR2=27 kohmRc=4.7 kohmRE=2.2 kohmRsig=10 kohmRL=10…

Given Ic = 0.8 mA, R1 = 68 Ko, R2 = 27 KN, Rc = 4.7 Kn, RE = 2.2 Ko, Rsig = 10 Ko, RL= 10 K2, po = 200, C, = 0.8 pF, fr 1 GHz. Neglect the effect of rx and ro. Find the midband gain and upper-3dB frequency of the %3D %3D %3D %3D CE amplifier. Also calculate the value of RL that reduce the midband gain to half the value, and hence find the upper-3dB frequency of the CE amplifier for the reduced gain.

Given Ic = 0.8 mA, R1 = 68 Ko, R2 = 27 KN, Rc = 4.7 Kn, RE = 2.2 Ko, Rsig = 10 Ko, RL= 10 K2, po = 200, C, = 0.8 pF, fr 1 GHz. Neglect the effect of rx and ro. Find the midband gain and upper-3dB frequency of the %3D %3D %3D %3D CE amplifier. Also calculate the value of RL that reduce the midband gain to half the value, and hence find the upper-3dB frequency of the CE amplifier for the reduced gain.

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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