4) Av method 2 AV method 1 8 A Je LE JV Rm measured resistance across R-X I V=Ve RVVR IR+IV IR IV Ve VUR D R Rv R RRv R+ Rv D Ra= Valar based V.] measurments. DR Actual R R-unknown resistance. V=VR+Va (unlike method I where v-ve] measured & li Rail = Ves V - IR + IR I I I Rasha+h R-actual resista Rmasured resistance. Error = Rm-R = (R+R-R R R R R Av metod 2 is not suitable for veng Small R values. Eurer - R R+ Rv whall Ro>> R → RRV RV Error R Rv Rv Remstance in stage Jak/n 1) smel 1 Obaid Alromaith. Luis Bravo California State University, Fullerton Department of Electrical and Computer Engineering EGEC 203L-08 1000Hz amplitude =4.45 S2 11 -2000 HZ 9000 amplitude 4-9 Electric Circuits Laboratory Assignment 4 Spring 2024 Time, frequency and voltage measurements and display of AC signals Submit only copy per team Before submitting, verify that your submitted files are readable Read the safety and introduction information carefully and thoroughly from the lab manual. Note: Failure to follow safety precautions and/or negligence may result in grade reduction. In this lab assignment, you will work in a team of two members and complete the tasks given below: Measurements: 1. Using the function generator, generate a sinusoidal signal with a peak-to-peak voltage of 10V and a time period of 1 ms. Display this using channel 1 of the oscilloscope. Let us name this signal as sinel. Measure and record its amplitude and frequency. Similarly, generate a sinusoidal signal with a peak-to-peak voltage of 10V and a time period of 2 ms. Measure and record its amplitude and frequency. Display this using channel 2 of the oscilloscope. Let us name this signal as sine2. Measure and record its amplitude and frequency. Include your measurements and results in the report also. 2. Align the phase of both sinel and sine2 and demonstrate these signals to the instructor during the class. Use the XY display mode to display the Lissajous figure of sinel vs sine2. Let sinel have a time period of 1 ms and let 2 sine2 have a time period of 2 ms. Estimate the frequency of sine2 and verify against the set frequency. Call this trial 1 Demonstrate these signals to the instructor during the class. Repeat for the following periods of sine2 also (sine 1 remains fixed): 4 ms. 8 ms 16 ms (call these trials 2, 3, and 4, respectively) and complete the table below: Trial Sine2 frequency using Lissajous Figure Sine2 frequency from input I 500 HZ 2 250H2 500H2 250 H2 3 125 H2 125 HZ 4 62-5 62-5 Include your measurements and results in the report also. AC voltage distribution in series resistive circuits: 3. Turn off the signal generator and the oscilloscope and build a series resistive network consisting of a resistor RD in series with a load resistor RL-4KS2. For the first trial, use RD=4K. (For subsequent trials use 3K, 2K2, and 1K2 for RD, respectively.) Connect this series resistive network to a sinusoidal input signal with a peak-to-peak voltage of 10V and a time period of 1 ms (sinel.) Display this input signal using channel 1 of the oscilloscope. Connect channel 2 of the oscilloscope to the load resistor RL. Measure and record the amplitude, peak-peak voltage, frequency for both the input and the output signals. Repeat for other specified values of RD. Input Output shape shape Input Amplitude Amplitude Output Input Frequency RD 4K2 Sine Sine Sv 4.900 100042 Output Frequency 1000 HZ RD=3K2 Sine Sine SV 5.50V 1000 HZ 1000 HZ RD=2K Sine Sine 5v 6.500 000 HZ 1000 42 RD = 1KQ Sinc Sine 5v 7-700 1000 HZ 1600 HZ Demonstrate your results to the instructor during class time. Include your measurements and results in the report also. 4. How is the output affected as RD is changed? Give reasons and explain in the report. Deliverables: • Turn in a completed and filled copy of this handout on Canvas showing all relevant calculations, data and results (in PDF format). Also turn in an informal report via Canvas in PDF format. Your report shall include the following: 1. Title page. This page must include the title of the assignment, the full names of the team members and date of report completion 2. Introduction 3. Theoretical background 4. Tools and Equipment 5. Procedure 6. Results 7. Discussion 8. Conclusions