Electronic Devices and Circuit Theory 10th edition Robert L. Boylestad, Louis Nashelsky - Solutions

Define the region of operation for the JFET of Fig.

For the network of Fig. 7.88, determine:
a. 1D.
b. VDS.
c. VD.
d.

Find VS for the network of Fig. 7.89

For the network of Fig. 7.90, determine: 
a. VG. 
b.

A. Repeat Problem 12 with RS = 0.51 k&Icirc;&copy; what

For the network of Fig. 7.91, VD = 9B Determine:
a.

For the network of Fig. 7.92, determine:
a. IDQ and VGSQ.
b.

Given VDS = 4 V for the network of Fig.

For the network of Fig. 7.94
a. Find IDQ-
b. Determine VDQ

For the self-bias configuration of Fig. 7.95, determine: 
a. IDQ

For the network of Fig. 7.96, determine:
a. IDQ and VGSQ.
b.

For the fixed-bias configuration of Fig. 7.81, determine:
a. IDQ and

For the network of Fig. 7.97, determine:
a. IDQ.
b. VGSQ and

For the voltage-divider configuration of Fig. 7.98, determine:
a. IDQ and

For the network of Fig. 7.99, determine:
a. VG.
b. VGSQ and

For the combination network of Fig. 7.100, determine: 
a. VB

Although the readings of Fig. 7.102 initially suggest that the

The network of Fig. 7.103 is not operating properly. What

Given the measured value of VD in Fig. 7.82, determine:
a.

For the network of Fig. 7.104, determine:
a. IDQ and VGSQ
b.

For the network of Fig. 7.105, determine:
a. IDQ and VGSQ
b.

Repeat Problem 1 using the universal JFET bias curve.
In Problem

Repeat Problem 6 using the universal JFET bias curve.
In problem

Repeat Problem 12 using the universal JFET bias curve.
In problem

Repeat Problem 15 using the universal JFET bias curve.
In problem

Determine VD for the fixed-bias configuration of Fig. 7.83.

Determine VD for the fixed-bias configuration of Fig. 7.84.

For the self-bias configuration of Fig. 7.85:
a. Sketch the transfer

For the network of Fig. 7.86, determine:
a. VGSQ and IDQ
b.

Given the measurement VS = 1.7 V for the network

Using the drain characteristic of Fig. 8.72:
a. What is the

Determine Zi,  Zo and Av, for the network of

Determine Zi Zo, and Av for the network of Fig.

Determine Zi,  Zo and Av for the network of

Determine Zi, Zo, and Av for the network of Fig.

Determine Zi Zo, and Av for the network of Fig.

Repeat Problem 19 if yos is 10 &Icirc;&frac14;S. Compare the

Determine Zi Zo, and Vo for the network of Fig.

Determine Zi

Repeat Problem 23 if rd = 20 k&Icirc;&copy; and compare

Repeat Problem 24 if rd = 20 k&Icirc;&copy; and compare

Determine Zi Zo, and Vo for the network of Fig.

Repeat Problem 30 if rd = 25 k&Icirc;&copy;.
In problem 30
Determine

Determine Zi Zo, and Av for the network of Fig.

Determine Zi Zo and A, for the network of Fig.

Repeat Problem 27 if rd = 20 k&Icirc;&copy;.
In Problem 27
Determine

Determine Zi, Zo, and Av for the network of Fig.

Determine Vo for the network of Fig. 8.81 if yos

Determine Zi Zo, and Av, for the network of Fig.

Repeat Problem 34 if rd = 25 k&Icirc;&copy;.
In problem 34
Determine

Determine Vo for the network of Fig. 8.83 if Vi

Determine Zi Zo and Av for the network of Fig.

Determine Zi Zo, and Av for the amplifier of Fig.

Repeat Problem 39 if k drops to 0.2 X 10-3.

Determine Vo for the network of Fig. 8.86 if Vi

Determine Vo for the network of Fig. 8.86 if Vi

Determine the output voltage for the network of Fig. 8.87

Design the fixed-bias network of Fig. 8.88 to have a

Design the self-bias network of Fig. 8.89 to have a

Given the characteristics of Fig. 9.73, sketch:
a. The normalized gain.
b.