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1. Construct the circuit shown in Figure 2 with C1 = 0.1 µE and R1 = 5 kQ. 2. For vin, use a 60HZ, 2Vpp, square wave with a zero volt DC offset. 3. Connect the oscilloscope to monitor both Vin and ygu Measure the amplitude and mean of both vin and yaude 4. Take a screen capture and record the filename in your lab notebook. 5. Try other waveforms as input signals to the amplifier. For example, set vin to be a sine wave, triangle wave, etc. In your lab notebook, explain and speculate on what you observe. Vant Figure 2. Integrating amplifier Post-Lab Activities 1. Consider the integrating amplifier circuit in Figure 2. Using nodal analysis, derive an expression for vou, for the integrating amplifier. 2. In the circuit in Figure 2, exchange the positions of the 0.luF capacitor and the 5k resistor. a. Use nodal analysis to generate an expression for ygus- b. Using this expression, explain what function this circuit performs on an input signal. c. If the input signal for this circuit was a triangle wave with a DC offset, what would the output look like? What would you expect to happen if the input were the square wave you used in step 2 of Experiment 2?

1. Construct the circuit shown in Figure 2 with C1 = 0.1 µE and R1 = 5 kQ. 2. For vin, use a 60HZ, 2Vpp, square wave with a zero volt DC offset. 3. Connect the oscilloscope to monitor both Vin and ygu Measure the amplitude and mean of both vin and yaude 4. Take a screen capture and record the filename in your lab notebook. 5. Try other waveforms as input signals to the amplifier. For example, set vin to be a sine wave, triangle wave, etc. In your lab notebook, explain and speculate on what you observe. Vant Figure 2. Integrating amplifier Post-Lab Activities 1. Consider the integrating amplifier circuit in Figure 2. Using nodal analysis, derive an expression for vou, for the integrating amplifier. 2. In the circuit in Figure 2, exchange the positions of the 0.luF capacitor and the 5k resistor. a. Use nodal analysis to generate an expression for ygus- b. Using this expression, explain what function this circuit performs on an input signal. c. If the input signal for this circuit was a triangle wave with a DC offset, what would the output look like? What would you expect to happen if the input were the square wave you used in step 2 of Experiment 2?

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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  1. Consider the integrating amplifier circuit in Figure 2. Using nodal analysis, derive an expression for vout for the integrating amplifier.
  2. In the circuit in Figure 2, exchange the positions of the 0.1uF capacitor and the 5k resistor. 
    a. Use nodal analysis to generate an expression for vout.
    b. Using this expression, explain what function this circuit performs on an input signal.
1. Construct the circuit shown in Figure 2 with C1 = 0.1 µE and R1 = 5 kQ. 2. For vin, use a 60HZ, 2Vpp, square wave with a zero volt DC offset. 3. Connect the oscilloscope to monitor both Vin and ygu Measure the amplitude and mean of both vin and yaude 4. Take a screen capture and record the filename in your lab notebook. 5. Try other waveforms as input signals to the amplifier. For example, set vin to be a sine wave, triangle wave, etc. In your lab notebook, explain and speculate on what you observe. Vant Figure 2. Integrating amplifier Post-Lab Activities 1. Consider the integrating amplifier circuit in Figure 2. Using nodal analysis, derive an expression for vou, for the integrating amplifier. 2. In the circuit in Figure 2, exchange the positions of the 0.luF capacitor and the 5k resistor. a. Use nodal analysis to generate an expression for ygus- b. Using this expression, explain what function this circuit performs on an input signal. c. If the input signal for this circuit was a triangle wave with a DC offset, what would the output look like? What would you expect to happen if the input were the square wave you used in step 2 of Experiment 2?
Transcribed Image Text:1. Construct the circuit shown in Figure 2 with C1 = 0.1 µE and R1 = 5 kQ. 2. For vin, use a 60HZ, 2Vpp, square wave with a zero volt DC offset. 3. Connect the oscilloscope to monitor both Vin and ygu Measure the amplitude and mean of both vin and yaude 4. Take a screen capture and record the filename in your lab notebook. 5. Try other waveforms as input signals to the amplifier. For example, set vin to be a sine wave, triangle wave, etc. In your lab notebook, explain and speculate on what you observe. Vant Figure 2. Integrating amplifier Post-Lab Activities 1. Consider the integrating amplifier circuit in Figure 2. Using nodal analysis, derive an expression for vou, for the integrating amplifier. 2. In the circuit in Figure 2, exchange the positions of the 0.luF capacitor and the 5k resistor. a. Use nodal analysis to generate an expression for ygus- b. Using this expression, explain what function this circuit performs on an input signal. c. If the input signal for this circuit was a triangle wave with a DC offset, what would the output look like? What would you expect to happen if the input were the square wave you used in step 2 of Experiment 2?
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