Given the BJT amplifier circuit oVcc R1< Cc Rs Cc Vo Vs RE RL Ro' Vcc=15V, Rs=470N, R1=22KN, RE=2.2KN, RL=10KN For transistor: Vbe=0.7V, ß=hfe=100 (a) Determine the DC voltage VCE- (b) Determine hie. (c) Determine the equivalent resistance Ro' (d) Determine the current gain Ais=Io/Is. (e) Determine the voltage gain Avs=Vo/Vs

Given the BJT amplifier circuit oVcc R1< Cc Rs Cc Vo Vs RE RL Ro' Vcc=15V, Rs=470N, R1=22KN, RE=2.2KN, RL=10KN For transistor: Vbe=0.7V, ß=hfe=100 (a) Determine the DC voltage VCE- (b) Determine hie. (c) Determine the equivalent resistance Ro' (d) Determine the current gain Ais=Io/Is. (e) Determine the voltage gain Avs=Vo/Vs

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...

See similar textbooks

Similar questions

Determine the folowing A.base current (IB), B. collector current (Ic), C. collector-to-emitter voltage (VCE),D. draw the load line, locate the Q-pointF. input impedance (Zi),G. Output impedance (Zo)
4. For the transistor in the figure shown below, the parameters are ß = 100 and VÀ = ∞. a. Design the circuit such that lEQ = 1mA and the Q-pt is in the center of the dc load line. b. If the peak-to-peak sinusoidal output voltage is 4V, determine the peak-to-peak sinusoidal signals at the base of the transistor and the peak-to-peak value of Vs. If the load resistor R₁ = 1kQ is connected to the output through a coupling capacitor, determine the peak-to-peak value in the output voltage, assuming vs is equal to the value determined in part (b). Vcc=+10 V www Rs = 0.7 kΩ Cc www RB RE vo
N-channel Mosfet compared to P channel mosfetWhich of the following is true?A) It is faster.B) It has a lower input impedance.C) It has a lower noise level.D) none
Re £ Value ZRB 꿀 Consider the transis BE=0.70 The Circuit has the Cirsuit Shown. Let B = 150 Cirbuit shown. and assume that shown .RB below PIRE Rc 47 ки base Current, IB Collector Current, I Mortage 74702 Is V 1201002 the Determine 3. Determine the Determine the Cmitter Vee Determine the value of RB that sets Vce = 0.3 V 2.3 between the Collector and
Consider the transistor amplifier circuit below. Vc. Sinyal R1 R. C2 output Sinyal input C, R2 RẸ If you know R1 = 22 kilo-ohms, R2 = 10 kilo-ohms, RC = 1 kilo-ohms, RE = 560 ohms, beta = 100. Active VBE = 0.7 V, VCC = 12 volts. Determine the working point of the transistor and draw its dc load line. Also, check that if the stability is steady! %3D
5. The fixed bias circuit shown in figure uses a silicon transistor with VBE = 0.7V. (a) Find the collector current, lc, and voltage VCE, if ß of transistor is 60. (b) (b) Find Ic and VCE if B changes to 80. +Vcc (9V) 60k 0.5k + VCE VBE
Given zener voltage at 9V, input voltage at 12Vdc to 15Vdc and ILmax at 40mA. What is Rsmin if Izmax rated is 50mA?
For the circuit in Figure below, what is Ic3? Assume all transistors are identical. IREF 1 Q5 R1 IREF2 O IE of Q2 O 2 IREF1 O IE of Q1 Vh1 Q6 Q1 03 07 8 Vn2 04 IREF2 R2
Vcc-+15V RC1 RC2 5 k2 5 ka Vout Vo2 RB1 1 ka RB2 1 ka Q2 Vs2 Vs1 RE 7.5 ka VEE-15V Assume Ql and Q2 are identical transistors with B=hfec=100 and VBE-0.7V. Determine hiej and hiez. Determine the differential gains Ad, (for single-ended) and Ada (for double ended). Determine the common-mode gains Ac, (for single-ended) and Aca (for double ended). Determine the common-mode rejection ratio CMRR for single-ended output. Determine the common-mode rejection ratio CMRR for double-ended output.
7) Consider the circuit shown below. Assume that the transistor is in saturation, VTN = 1.0V and Kn = 6.4mA/V². Determine Vo if Vin = 2V. Show your work! Vin 5V 3000 Vo 625
Q3. V DD Rp Rp -O Up2 Upi O -Vss Here, H=450cm/V.s W=600µm Page 1 of 3
%3D = 13 volts, Rg = 500 KN, Rc = 6 KN and ß = 120. Assume Transistor is Silicon, VBE=0.7v. For the given circuit, Vcc +Vcc Rc RB VCE V BE a Compute for the base current Q-point, IBq (in Amperes): b. Compute for the collector current Q-point, Ico (in Amperes): c. Compute for the collector-to-emitter voltage, VCEQ (in Volts): d. Draw the DC load line with the axes and the points labeled.