Question

Write the differential equation for $t>0$ for $v_C$ in Eigure P4.41. Assume $S_1$ is open, $S_2$ is closed and that $R_1=5 \Omega, R_2=4 \Omega, R_3=3 \Omega, R_4=6 \Omega$, and $C_1=C_2 =4 \mathrm{~F}$.

   Write the differential equation for $t>0$ for $v_C$ in Eigure P4.41. Assume $S_1$ is open, $S_2$ is closed and that $R_1=5 \Omega, R_2=4 \Omega, R_3=3 \Omega, R_4=6 \Omega$, and $C_1=C_2 =4 \mathrm{~F}$.
Principles and Applications of Electrical Engineering
Principles and Applications of Electrical Engineering
Giorgio Rizzoni,… 7th Edition
Chapter 4, Problem 7 ↓
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Write the differential equation for $t>0$ for $v_C$ in Eigure P4.41. Assume $S_1$ is open, $S_2$ is closed and that $R_1=5 \Omega, R_2=4 \Omega, R_3=3 \Omega, R_4=6 \Omega$, and $C_1=C_2 =4 \mathrm{~F}$.
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Transcript

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00:01 In this problem consider the node voltage as v.
00:07 Node voltage as v.
00:13 So here i can draw a diagram like this.
00:17 Just look at it carefully.
00:21 This is the diagram which i am drawing here.
00:32 And here it is of 6v.
00:35 Here it is of 3k.
00:37 And here it is of 2.
00:43 Here it is of 2k.
00:46 And here it is of 12v.
00:54 And here current i is flowing.
01:00 Now going forward and the equation for the node voltage is given by v -12 by 2k plus v plus 6 by 3k plus i is equal to 0.
01:20 So the value of v is 0.
01:23 So the current equation will become 0 minus 12 by 2k plus 0 plus 6 by 3k plus this value is equal to 0.
01:38 Finally you will get this value as 4 ma.
01:43 Now the current through the inductor cannot change instantaneously.
01:49 So i can write this value as it is equal to this which is equal to 4 ma.
01:59 Now on further simplification i can draw another diagram like this.
02:08 This is the diagram which i am drawing here.
02:14 Just look at it carefully.
02:19 Here it is of 6v.
02:21 Positive, negative.
02:25 And here it is of 3k.
02:29 And here it is of 2k.
02:38 Here it is of 12v.
02:43 And here it is of 6mh.
02:50 Here it is i -t.
02:53 Here it is of 2k.
02:56 Now going forward and redrawing the circuit...
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