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Engineering Science/Technology Lab(6) Objective: The aim of this laboratory experiment is to analyze an RLC series network and validate the calculations using Multisim. Procedure: 1-Utilize Multisim to confirm the outcomes of the RLC analysis discussed in our previous lecture. 2-Analyze the provided RLC circuit- in Figure 1.-by executing the following calculations: a. Determine the total impedance of the network. b. Calculate the total current. c. Find the voltage drop across each element. 3-Create the impedance vector diagram to identify the type of RLC network. 4-Generate the (V-I) vector diagram to illustrate the relationship between voltages and total current. 5-Use Multisim to construct the circuit in Figure 1. and then measure $I_t$, $V_R$, $V_L$, and $V_C$. 6-Present a comprehensive summary of both measured and calculated results using Excel. 7-Calculate the percentage error between the measured results and the ideal calculated values. 8- repeat the procedure for a second RLC network with: R = 1500ohm, L= 5.0mH, and C = 3.0µF $V(t)$ 800 ohm +$ 2.00 Mic-F $i(t)$ 3.00 mH $V(t) = 600sin(2000t +20)$ Figure 1.

          Engineering Science/Technology
Lab(6)
Objective:
The aim of this laboratory experiment is to analyze an RLC series network and validate the calculations
using Multisim.
Procedure:
1-Utilize Multisim to confirm the outcomes of the RLC analysis discussed in our previous lecture.
2-Analyze the provided RLC circuit- in Figure 1.-by executing the following calculations:
a. Determine the total impedance of the network.
b. Calculate the total current.
c. Find the voltage drop across each element.
3-Create the impedance vector diagram to identify the type of RLC network.
4-Generate the (V-I) vector diagram to illustrate the relationship between voltages and total current.
5-Use Multisim to construct the circuit in Figure 1. and then measure $I_t$, $V_R$, $V_L$, and $V_C$.
6-Present a comprehensive summary of both measured and calculated results using Excel.
7-Calculate the percentage error between the measured results and the ideal calculated values.
8- repeat the procedure for a second RLC network with: R = 1500ohm, L= 5.0mH, and C = 3.0µF
$V(t)$
800 ohm
+$
2.00 Mic-F
$i(t)$
3.00 mH
$V(t) = 600sin(2000t +20)$
Figure 1.

Show more…

Engineering Science/Technology
Lab(6)
Objective:
The aim of this laboratory experiment is to analyze an RLC series network and validate the calculations
using Multisim.
Procedure:
1-Utilize Multisim to confirm the outcomes of the RLC analysis discussed in our previous lecture.
2-Analyze the provided RLC circuit- in Figure 1.-by executing the following calculations:
a. Determine the total impedance of the network.
b. Calculate the total current.
c. Find the voltage drop across each element.
3-Create the impedance vector diagram to identify the type of RLC network.
4-Generate the (V-I) vector diagram to illustrate the relationship between voltages and total current.
5-Use Multisim to construct the circuit in Figure 1. and then measure It, VR, VL, and VC.
6-Present a comprehensive summary of both measured and calculated results using Excel.
7-Calculate the percentage error between the measured results and the ideal calculated values.
8- repeat the procedure for a second RLC network with: R = 1500ohm, L= 5.0mH, and C = 3.0µF
V(t)
800 ohm
+2.00 Mic-Fi(t)3.00 mHV(t) = 600sin(2000t +20)Figure 1.

Added by Martin W.

University Physics with Modern Physics

Hugh D. Young 14th Edition

Instant Answer

Solved by Expert Madhur L

08/11/2023

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This will involve setting up the RLC circuit in Multisim and running simulations to verify the calculations. Show more…

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Engineering Science/Technology Lab(6) Objective: The aim of this laboratory experiment is to analyze an RLC series network and validate the calculations using Multisim. Procedure: 1. Utilize Multisim to confirm the outcomes of the RLC analysis discussed in our previous lecture. 2. Analyze the provided RLC circuit in Figure 1 by executing the following calculations: a. Determine the total impedance of the network. b. Calculate the total current. c. Find the voltage drop across each element. 3. Create the impedance vector diagram to identify the type of RLC network. 4. Generate the (V-I) vector diagram to illustrate the relationship between voltages and total current. 5. Use Multisim to construct the circuit in Figure 1 and then measure I(t), V(R), V(L), and V(C). 6. Present a comprehensive summary of both measured and calculated results using Excel. 7. Calculate the percentage error between the measured results and the ideal calculated values. 8. Repeat the procedure for a second RLC network with: R = 1500 ohm, L = 5.0 mH, and C = 3.0 uF. Figure 1.

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Transcript

00:02 Hello students, so in this question the first part that is the rlc circuit right.

00:09 So, we have here r, l and c.

00:24 So, we have a voltage difference here which is plus and minus right this is r, this is l and this is c.

00:39 So, according to this we voltage of this is vr, vn and vc right.

00:47 So, in resistance voltage and current are in same phase right, voltage and current are in same phase whereas in inductor the voltage leads current in this case and in this case voltage lags current right.

01:11 Now, the second part that is the voltage relation.

01:16 So, vn equals j right j.

01:24 So, voltage is basically current multiplied by the resistance xl, vc equals minus j ixc right and vr is as it is vr.

01:42 So, the total voltage becomes total voltage becomes vr plus j vl minus vc.

01:52 So, this becomes root over of vr square plus vl minus vc square.

01:58 So, this gives us when we calculate this root over of 3 .33 square plus 3 .14 minus 0 .3 square.

02:13 So, this turns out to be equal to 6 .84.

02:20 So, it 4 .41 volts right.

02:28 Now, the second part that was the first part vr equals 2 .8 volt, vl equals 2 .6 volt and vc equals 6 .15 volt then v turns out to be 4 .52 volt.

02:48 The third one vr equals 3 .4 volt, vl equals 5 .54, vc equals 1 .01 volt.

03:01 So, this turns out to be 5 .63 volt right.

03:07 So, from calculated value and measured value there is slight differences.

03:14 So, this is not 6 .84, this is not 6 .58 and this is not 4 .5 right.

03:25 So, now we will calculate the impedance relation right...

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