1:- Consider the circuit shown in Figure1. ß=120a) Find Rc such that VCEQ-2.8 Vb) Determine the midband gainc) Determine Cc and CE such that the corner frequency associated with CE is f-10 Hz and thecorner frequency associated with Cc is fc-50 Hz.d) Determine fHi and fío.e) What is the gain-bandwidth product?R₁ =10 kQVcc=+4Vlo=0.4 mARcVEE=-4VСсHFCECW₂CWo==8 pF10 pFR₁ = 20 kQFigure 1Cbc = 20 pFChe =Cre=30 pF12 pF

“Since you have posted a question with multiple sub-parts, we will solve first three sub-parts for…

:- Consider the circuit shown in Figure 1. ß-120 a) Find Rc such that VCEQ=2.8 V b) Determine the midband gain c) Determine Cc and CE such that the corner frequency associated with CE is fÊ=10 Hz and the corner frequency associated with Cc is fc-50 Hz. d) Determine fHi and fío. e) What is the gain-bandwidth product? Vcc=+4V R₁ = 10 kQ wwwwwww ¹Q= 0.4 mA Rc VEE -4V 8= :CE www Cwi Cwo Vo = = 8 pF 10 pF R₁ = 20 kQ Figure 1 Cbc = 20 pF Che = 30 pF Cce = 12 pF

:- Consider the circuit shown in Figure 1. ß-120 a) Find Rc such that VCEQ=2.8 V b) Determine the midband gain c) Determine Cc and CE such that the corner frequency associated with CE is fÊ=10 Hz and the corner frequency associated with Cc is fc-50 Hz. d) Determine fHi and fío. e) What is the gain-bandwidth product? Vcc=+4V R₁ = 10 kQ wwwwwww ¹Q= 0.4 mA Rc VEE -4V 8= :CE www Cwi Cwo Vo = = 8 pF 10 pF R₁ = 20 kQ Figure 1 Cbc = 20 pF Che = 30 pF Cce = 12 pF

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

For The Table 1-Find the cutoff frequency by changing the frequency until Vo becomes 0.707Vi. 2-Graph the gain and the phase against frequency.
Problem #1. The parameters for the circuit below are V₁=00, and VBE (on)= 0.7 V. www-H R$ Rc RL STEF RE V+=5 V V = -5 V Low-Frequency Analysis: Clearly draw the small signal low-frequency model (with the Hybrid-) and derive an equation for the break frequency (Hint: Find the Thevenin resistance seen by the capacitor).
We examined the common source amplifier shown in the figure in the 5th experiment. The selection criterion of the input capacitance is Xcin = 0.1Rin: Calculate the required input capacitance value, Cin , if an input signal with a frequency of 2 kHz is applied. Şekitde gösterilen ortak source yükseltecini 5. deneyde incelemiştik Giriş kapasitesinin seçim kriteri Xcin - 0.1Rin dir. 2 kHzlik giriç sinyali için gerektt tapasite, Cm değerini hesaplayınız. Circuit parameters / Devre Parametreleri R1 = 53 k2, R, = 17 k2 R1 RD Cout Vout D VDD M2 Cin G Vin R2 RS cs O a. 74.19 nF O b. 86.55 nF O c. 49.46 nF O d. 61.82 nF O e. 43.28 nF
P3 For the series RLC circuit given in Figure 4 for Vs=10sinot R=2.2 2, L=100 uH and C=1000 uF a) Obtain the resonant frequency and the half-power frequencies. b) Calculate the quality factor and bandwidth. c) Determine the amplitude of the current at 60, 6 and 02. d) Plot the current amplitude versus frequency e) Use LTSPICE to plot frequency response.
For the circuit in the figure, extract the following as the formula according to r model and π model. a) IB, IC and IE currents b) The voltages at the X, B, C, E points and the voltage VCE c) Ri input resistance and output resistance Ro d) Av Voltage gains e) Low cutoff frequencies f) Formulate the high cutoff frequencies.
Consider the circuit of Figure 1, with a periodic square signal voltage source at a frequency f = 500 [Hz], consider R = 1600 [22]. Solve the circuit and plot on graph paper (minimum 10 values between 0 and 2 milliseconds) the total current response, taking into account the source Vin = 24 [Vp]. Note: identify in the graph maximum and minimum points of the total current response. Vin CH1 L m 160 mH, 4 Q CH2 REF Figure 1. Series RL circuit. Note: to do by differential equations and not to use laplace
An RLC series circuit is connected to a 20 V variable frequency supply as shown in Figure 2. Determine the following: O,SAF 202 20mH 20V Figure 2 Resonant frequency in Hertz. (b) Q-factor (c) Lower and upper half power frequencies in Hertz. (d) Bandwidth in Hertz and radians per second. (a)
Q.) Figure below divider bras amplifier Circuit. Givent the model Parameter : gm = 5o mS emitter (CE) Voltage BJT hibrid- TT Shows a Common riT: 6 Kr and to %3D : 00 +Vc. RI C2 Tooks touf RL Vo ihe 200 RE TCE Vs 20 a Draw the Ac eQuivalent at low Freauency Circuit Zi and b.) Determine inPut impedance at mid FreaUincy OutPut imPedance Z0 c.) Calculafe two low Cut -oFF FreQuen Cies FLC1 and FLC2 Ci and E2 respectively Such as due to the exterda al capacitors
Assignment-1 Q1. The output characteristic of a typical transistor is shown below, where the quiescent point is selected on it. This transistor is used in the bias circuit presented below. Find the suitable values of Rg and Rc to fix the Q-point of the circuit properly. +Vcc = 12 V 12- Ia = 70 uA 10- Is 60 uA Ta=50 A 8- Rc 6. la= 40 uA 4. Is = 30 uA 2- Is = 20 uA B = 100 VBE = 0.7 V -2- 6 8 10 12 14 16 VCE (V) to
true or false The unity - gain frequency determination depends on the frequency bandwidth of the amplifier and the value of the mid-range gain.
This circuit represents a small signal amplifier.If C1= 1.5 μF, C2= 0.43 µF Assuming the transistor has: ac current gain =100. dynamic resistance = 100, and Internal Capacitances C= 42 pF, Chc-4pF, C=1pF. 1- Calculate the critical frequencies for the low frequency response. 2- Calculate the critical frequencies for the high frequency response. 3- Write the general formula for voltage gain as function of frequency. 4- Sketch the Bode Plot for the voltage gain magnitude. 2 T mill 1kQ2 O 560 ΚΩ 4.3 ΚΩ C2 HA R1 2 2,7 ΚΩ
Part 2C. Band Pass Filter C R2 R1 C2 VIN O VOUT Calculation 9: Obtain the transfer function for the circuit of shown in figure. (Rf= Ri=10 kQ. Cf= 1nF_). Solution 9: Measurement 9: Measure output voltage (Vpp) for various frequencies (from demo) and record in table 5. Answer 9: Measurement 10: Measure gain for various frequencies (from demo) and record in table 5. Answer 10: Calculation 10: Calculate the gain measured in dB and record in table 5. Solution 10: