boylestad electronics multiple choice q&a chapter (11)

10
Your Results for: "Multiple Choice" Print this page Site Title: Electronic Devices and Circuit Theory Book Author: Boylestad Location on Site: Chapter 11 > Multiple Choice Date/Time Submitted: August 18, 2012 at 10:56 AM (UTC/GMT) Summary of Results 29% Correct of 35 Scored items: 10 Correct: 29% 25 Incorrect: 71% More information about scoring 1. Determine the output voltage for this circuit with a sinusoidal input of 2.5 mV. Your Answer: –0.25 V Correct Answer: –0.125 V 2. Calculate the input voltage for this circuit if V o = –11 V. Your Answer: 1.1 V 3. Calculate the output voltage.

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boylestad electronics multiple choice q&a chapter 11

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Page 1: boylestad electronics multiple choice q&a chapter (11)

Your Results for: "Multiple Choice" Print this page

Site Title: Electronic Devices and Circuit Theory

Book Author: Boylestad

Location on Site: Chapter 11 > Multiple Choice

Date/TimeSubmitted:

August 18, 2012 at 10:56 AM (UTC/GMT)

Summary of Results

29% Correct of 35 Scored items:

10 Correct: 29%

25 Incorrect: 71%

More information about scoring

1. Determine the output voltage for this circuit with a sinusoidal input of 2.5 mV.

Your Answer: –0.25 V

Correct Answer: –0.125 V

2. Calculate the input voltage for this circuit if Vo = –11 V.

Your Answer: 1.1 V

3. Calculate the output voltage.

Page 2: boylestad electronics multiple choice q&a chapter (11)

Your Answer: –6.00 mV

Correct Answer: 6.12 mV

4. Calculate the input voltage when Vo = 11 V.

Your Answer: 1.1 V

Correct Answer: 1 V

5. Calculate the output voltage.

Your Answer: 3.02 V

6. Calculate the output of the first-stage op-amp when V1 = 25 mV.

Your Answer: –1.05 V

Correct Answer: 0.075 V

Page 3: boylestad electronics multiple choice q&a chapter (11)

7. Calculate the output of the second stage op-amp if V1 = 25 mV.

Your Answer: –0.075 V

8. Calculate the input voltage if the final output is 10.08 V.

Your Answer: –1.05 V

Correct Answer: 0.168 V

9. Determine the value of Rf (assuming that all have the same value).

Your Answer: 500 k

Correct Answer: 50 k

Page 4: boylestad electronics multiple choice q&a chapter (11)

10. When a number of stages are connected in parallel, the overall gain is the product of theindividual stage gains.

Your Answer: True

Correct Answer: False

11. A number of op-amp stages can be used to provide separate gains.

Your Answer: True

12. Calculate the output voltage if V1 = V2 = 0.15 V.

Your Answer: 0 V

Correct Answer: –6.45 V

13. Calculate the output voltage if V1 = –3.3 V and V2 = 0.8 V.

Your Answer: 0 V

Correct Answer: –6.6 V

14. Calculate the output voltage if V1 = 33 mV and V2 = 02 mV.

Page 5: boylestad electronics multiple choice q&a chapter (11)

Your Answer: 0 V

Correct Answer: –4 V

15. Calculate the output voltage if V1 = 0 V and V2 = 0.2 V.

Your Answer: 0 V

Correct Answer: –6.6 V

16. Calculate the output voltage if V1 = –0.2 V and V2 = 0 V.

Your Answer: 0 V

Correct Answer: 2 V

17. Determine the output voltage.

Your Answer: 10(V2 – Vi)

Correct Answer: –10(V2 – V1)

Page 6: boylestad electronics multiple choice q&a chapter (11)

18. Calculate the output voltage if V1 = 300 mV and V2 = 700 mV.

Your Answer: 0 V

Correct Answer: –4 V

19. Calculate the output voltage if V1 = V2 = 700 mV.

Your Answer: 0 V

20. Refer to Example 11.7. Calculate the output voltage Vo if V1 = –V2 = 300 mV.

Your Answer: 0 V

Correct Answer: 12 V

Page 7: boylestad electronics multiple choice q&a chapter (11)

21. Determine the output voltage when V1 = V2 = 1 V.

Your Answer: 0 V

22. Determine the output voltage when V1 = –V2 = 1 V.

Your Answer: 0 V

Correct Answer: 2 V

23. Determine the output voltage when V1 = –V2 = –1 V.

Your Answer: 0 V

Correct Answer: –2 V

Page 8: boylestad electronics multiple choice q&a chapter (11)

24. How many op-amps are required to implement this equation?

Your Answer: 2

Correct Answer: 3

25. How many op-amps are required to implement this equation?

Your Answer: 2

26. How many op-amps are required to implement this equation?

Your Answer: 2

Correct Answer: 1

27. How many op-amps are required to implement this equation?

Vo = V1

Your Answer: 2

Correct Answer: 1

28. Calculate IL for this circuit.

Your Answer: 3 mA

Correct Answer: 5 mA

Page 9: boylestad electronics multiple choice q&a chapter (11)

29. Calculate the output voltage for this circuit when V1 = 2.5 V and V2 = 2.25 V.

Your Answer: –5.25 V

Correct Answer: 5.25 V

30. An example of an instrumentation circuit is a(n) _____.

Your Answer: dc voltmeter

Correct Answer: All of the above

31. This circuit is an example of a(n)________.

Your Answer: dc voltmeter

Correct Answer: instrumentation amplifier

32. Calculate the cutoff frequency of a first-order low-pass filter for R1 = 2.5 k and C1 = 0.05

F.

Your Answer: 1.273 kHz

Page 10: boylestad electronics multiple choice q&a chapter (11)

33. Calculate the cutoff frequencies of a bandpass filter with R1 = R2 = 5 k and C1 = C2 = 0.1

F.

Your Answer: fOL = 318.3 Hz, fOH = 318.3 Hz

34. A filter that provides a constant output from dc up to a cutoff frequency and passes no signalabove that frequency is called a _____ filter.

Your Answer: low-pass

35. A difference between a passive filter and an active filter is that a passive filter usesamplifier(s), but an active filter does not.

Your Answer: True

Correct Answer: False

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