HELP ASAP, WILL UPVOTE. A common emitter amplifier, with the circuit shown in Figure 1, is designed to have a Bode magnitudeand phase frequency response as shown in Figure 2. The BJT has the following parameters: BVA → 0, C = 500fF, and Cu =an external capacitor used to achieve the desired frequency response.= 100,= 10kN and note that the capacitor Cx is10fF. Use Vr = 26mV, RcVccJVIN OO VOUTСхRC7019518060165150501351201059030756020451030151.E+051.E+061.E+071.E+081.E+091.E+101.E+111.E+121.E+131.E+051.E+061.E+071.E+081.E+091.E+101.E+111.E+121.E+13Frequency, rad/secFrequency, rad/secANSWER THE FOLLOWING:Vout1. Give the generalized form of the amplifier's transfer function A(w)2. What is the value of Capacitor Cy?(w).VinX.3. What should be the quiescent collector current of the transistor?|A(@)], dBZA(@), degrees

A common emitter amplifier, with the circuit shown in Figure 1, is designed to have a Bode magnitude and phase frequency response as shown in Figure 2. The BJT has the following parameters: B = 100, VA → 0, Cn = 500f F, and Cu = 10fF. Use Vr = 26mV, Rc an external capacitor used to achieve the desired frequency response. = 10kN and note that the capacitor Cx is

A common emitter amplifier, with the circuit shown in Figure 1, is designed to have a Bode magnitude and phase frequency response as shown in Figure 2. The BJT has the following parameters: B = 100, VA → 0, Cn = 500f F, and Cu = 10fF. Use Vr = 26mV, Rc an external capacitor used to achieve the desired frequency response. = 10kN and note that the capacitor Cx is

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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Answer as soon as possible. I'll upvote. A common emitter amplifier, with the circuit shown in the image, is designed to have a Bode magnitude and phase frequency response as shown by the graphs. The BJT has the following parameters: β = 100, VA → ∞, Cπ = 500fF, and Cμ = 10fF. Use VT = 26mV, RC = 10kΩ and note that the capacitor CX is an external capacitor used to achieve the desired frequency response. For the circuit shown, use β = 200, RB = 1kΩ, RC = 2kΩ, RE = 4kΩ, VBE,on = 0.7V, VCE,sat = 0.2V, VCC = 10V, VEE = -10V. Determine the value of the capacitor CX.
Answer ASAP, thank you. I'll upvote if correct. A common emitter amplifier, with the circuit shown in the image, is designed to have a Bode magnitude and phase frequency response as shown by the graphs. The BJT has the following parameters: β = 100, VA → ∞, Cπ = 500fF, and Cμ = 10fF. Use VT = 26mV, RC = 10kΩ and note that the capacitor CX is an external capacitor used to achieve the desired frequency response. For the circuit shown, use β = 200, RB = 1kΩ, RC = 2kΩ, RE = 4kΩ, VBE,on = 0.7V, VCE,sat = 0.2V, VCC = 10V, VEE = -10V. Write the generalized form of the amplifier’s transfer function, A(ω) = (Vout/Vin)(ω).
Please answer immediately, I'll give an upvote. Thanks. A common emitter amplifier, with the circuit shown in the image, is designed to have a Bode magnitude and phase frequency response as shown by the graphs. The BJT has the following parameters: β = 100, VA → ∞, Cπ = 500fF, and Cμ = 10fF. Use VT = 26mV, RC = 10kΩ and note that the capacitor CX is an external capacitor used to achieve the desired frequency response. For the circuit shown, use β = 200, RB = 1kΩ, RC = 2kΩ, RE = 4kΩ, VBE,on = 0.7V, VCE,sat = 0.2V, VCC = 10V, VEE = -10V. What should be the quiescent collector current of the transistor?
2. The output stage of a transmitter requires, owing to supply voltage limitations, a downward impedance transformation of the antenna resistance. The load impedance is 50-Ω. Suppose we wish to deliver 3 Watts of power into such a load at 915 MHz, but the power amplifier has a maximum peak-to-peak sinusoidal voltage of only 7 Volts because of various losses and transistor breakdown problems. Design a two section L-match of low pass type to allow that 3 Watts to be delivered to the 50-Ω load. Assume that all reactive elements are ideal.
What is the voltage gain (Av) of the circuit when β = 100, r0 = 40 kΩ, RB = 360 kΩ, RC = 3.3 kΩ, RE = 220 Ω, Rs = 15 kΩ and RL = 248 kω in the circuit given in the figure?Note-1: the output impedance of the transistor r0 will be taken into account in calculations.Note-2: capacitors are negligible at midband frequency.
The following data are given for a two-branch parallel circuit: ? = 125V, ?? = 15, ?? =25 ?? = 15. For what value of ?? will the circuit be in resonance, and what will be the totalcurrent and power in this situation?
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(a) What is the short-circuit current gain (magnitude and phase) at 50 MHz for a BJT with rx = 250 Ω, fT = 400 MHz, Cμ = 0.5 pF, βo = 100 and IC = 1.25 mA? (b) What is the input impedance Zi B at the base of a common-emitter amplifier at 50 MHz using this transistor if gm RL = −20?
for the BJT circuit shown with ( β = 120) determine low cutoff frequencies and what isthe effective low cutoff frequency