in figure 2. The external source is an AC source with VAC(t) R, L, Vo, , o are arbitrary positive constants. R C 0000 = Vo cos(nt + p). Figure 2: 'R+LC' circuit with an external source. (a) Find the differential equation that describes the current in the inductor. You can use all what you learned about this circuit in PS2 but show again your work, including Kirchhoff equations. Remember to have sum of potentials to set the differential equation equal to V(t). Hint: just the differential equation. Do not solve it yet. (b) Find IL(t) ignoring the transient behavior. That is, get the steady response to the external source. Hint: one way is to set IL(t) = A cos Ωt + B sin Qt, with A, B some constants. Then, find A, B by solving the differential equation of IL(t). Some suggestions from class: i/ do not use a coefficient of 1 in the i term. Use instead (RLC)Ï. The algebra will have less fractions. ii/ Beware that V(t) has an arbitrary phase: . Use cos(Nt+) = cos Nt cos d- sin Nt sin p. iii/ at the end, check that A, B have units of current! (c) Given IL(t), find the voltage across the coil inductor VL(t)? Leave the answer in terms of A, B, or whichever labels you used in the previous questions. That is, you can, but it is not required to substitute the explicit expressions of A, B found in the previous question.
in figure 2. The external source is an AC source with VAC(t) R, L, Vo, , o are arbitrary positive constants. R C 0000 = Vo cos(nt + p). Figure 2: 'R+LC' circuit with an external source. (a) Find the differential equation that describes the current in the inductor. You can use all what you learned about this circuit in PS2 but show again your work, including Kirchhoff equations. Remember to have sum of potentials to set the differential equation equal to V(t). Hint: just the differential equation. Do not solve it yet. (b) Find IL(t) ignoring the transient behavior. That is, get the steady response to the external source. Hint: one way is to set IL(t) = A cos Ωt + B sin Qt, with A, B some constants. Then, find A, B by solving the differential equation of IL(t). Some suggestions from class: i/ do not use a coefficient of 1 in the i term. Use instead (RLC)Ï. The algebra will have less fractions. ii/ Beware that V(t) has an arbitrary phase: . Use cos(Nt+) = cos Nt cos d- sin Nt sin p. iii/ at the end, check that A, B have units of current! (c) Given IL(t), find the voltage across the coil inductor VL(t)? Leave the answer in terms of A, B, or whichever labels you used in the previous questions. That is, you can, but it is not required to substitute the explicit expressions of A, B found in the previous question.
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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