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I need to know the predicted voltage gain of the circuit in Figure 7-52. I also need to know if the Emitter bypass capacitor opens up, what is the new voltage gain value

I need to know the predicted voltage gain of the circuit in Figure 7-52. I also need to know if the Emitter bypass capacitor opens up, what is the new voltage gain value

Introductory Circuit Analysis (13th Edition)
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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I need to know the predicted voltage gain of the circuit in Figure 7-52. I also need to know if the Emitter bypass capacitor opens up, what is the new voltage gain value? I also need to know the question at the top of page 3 (the second uploaded document).

If a .5 mill-volt peak-to-peak sinewave signal is applied to the base, what would the output signal look like at the collector? The "I" markers below indicate the start of a cycle, the midpoint of a cycle, and the endpoint of a cycle in the order presented. Indicate the peak values for each of the half cycles both for the input and the output signals. Note: “------" indicates the DC voltage level the sinewave is riding on. Input signal (left side of Cin) > Input signal (right side of Cin) > Output signal (left side of Cout) > Output signal (right side of Cout) > Emitter signal (top side of Cbypass)> ·| -1 The DC voltage level = ? The DC voltage level = ? The DC voltage level = ? The DC voltage level = ? The DC voltage level = ?
Transcribed Image Text:If a .5 mill-volt peak-to-peak sinewave signal is applied to the base, what would the output signal look like at the collector? The "I" markers below indicate the start of a cycle, the midpoint of a cycle, and the endpoint of a cycle in the order presented. Indicate the peak values for each of the half cycles both for the input and the output signals. Note: “------" indicates the DC voltage level the sinewave is riding on. Input signal (left side of Cin) > Input signal (right side of Cin) > Output signal (left side of Cout) > Output signal (right side of Cout) > Emitter signal (top side of Cbypass)> ·| -1 The DC voltage level = ? The DC voltage level = ? The DC voltage level = ? The DC voltage level = ? The DC voltage level = ?
age an age too 5 V Solve the following problems. 7-30. What is the approximate ac emitter resistance of a com- mon-emitter amplifier with a dc emitter current of 6.25 mA? 7-31. What is the predicted voltage gain of the circuit in Figure 7-52? 10 ΚΩ 1 kQ ww +6 V 470 Ω FIGURE 7-52 9 +12 V WWW 1 kQ ww 311 SMALL-SIGNAL AMPLIFIERS 1 ΚΩ 281 7-32. What is the equivalent ac base resistance (Rbase) in Figure 7-52 if the input signal current is 25 μA and the output signal current is 4.6 mA? 7-33. What is the forward transconductance of a JFET whose drain current changes from 6.4 mA to 6.2 mA when the gate-to-source bias voltage changes from -1.5 V to -1.6 V? 7-34. What is the predicted voltage gain of a MOSFET com- mon-source amplifier with a forward transconductance of 5 mS and an ac drain resistance of 1.5 kQ? The following problems are more challenging. 7-35. A common-emitter amplifier has the following values: Vb = 9 mV, Re 15 ΚΩ, re 9 , RE 330 2. Find Av, Vouts and dB gain. = = = = = 7-36. A common-emitter amplifier with voltage divider bias has the following values: Bac = 190, IE = 4.73 mA, RE = 560 , R₁ = 10 k, R₂ 3.3 k. Find res Roase, and Zin. 7-37. A common-emitter amplifier has the following values: Zin 7.5 ΚΩ, Rc 1.5 ΚΩ, re 13.6 Ω, RE = 820 . The amplifier is connected to a 120 mV signal source with an internal resistance of 1.2 k. Find the base volt- age V₁, voltage gain A,, output voltage Vout, and dB gain. -
Transcribed Image Text:age an age too 5 V Solve the following problems. 7-30. What is the approximate ac emitter resistance of a com- mon-emitter amplifier with a dc emitter current of 6.25 mA? 7-31. What is the predicted voltage gain of the circuit in Figure 7-52? 10 ΚΩ 1 kQ ww +6 V 470 Ω FIGURE 7-52 9 +12 V WWW 1 kQ ww 311 SMALL-SIGNAL AMPLIFIERS 1 ΚΩ 281 7-32. What is the equivalent ac base resistance (Rbase) in Figure 7-52 if the input signal current is 25 μA and the output signal current is 4.6 mA? 7-33. What is the forward transconductance of a JFET whose drain current changes from 6.4 mA to 6.2 mA when the gate-to-source bias voltage changes from -1.5 V to -1.6 V? 7-34. What is the predicted voltage gain of a MOSFET com- mon-source amplifier with a forward transconductance of 5 mS and an ac drain resistance of 1.5 kQ? The following problems are more challenging. 7-35. A common-emitter amplifier has the following values: Vb = 9 mV, Re 15 ΚΩ, re 9 , RE 330 2. Find Av, Vouts and dB gain. = = = = = 7-36. A common-emitter amplifier with voltage divider bias has the following values: Bac = 190, IE = 4.73 mA, RE = 560 , R₁ = 10 k, R₂ 3.3 k. Find res Roase, and Zin. 7-37. A common-emitter amplifier has the following values: Zin 7.5 ΚΩ, Rc 1.5 ΚΩ, re 13.6 Ω, RE = 820 . The amplifier is connected to a 120 mV signal source with an internal resistance of 1.2 k. Find the base volt- age V₁, voltage gain A,, output voltage Vout, and dB gain. -
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