The parameters of the different blocks are shown below
1. Pulse Generator block parameters
2. Transfer function block parameters
The corresponding output is shown below (where the yellow line represents the input (Vs(s)) and the magenta line represents the output VR(s)).
Consider the simple series RLC circuit shown in figure below, the circuit has the following parameters,...
Consider an RLC series circuit with R = 600 Ω, L = 3 H, C = 4μF, generator voltage V = 20 v, frequency= 60 hz. Find a) the inductive impedance XL, b) capacitive impedance Xc , c) Total impedance Z, d) Line current I , e) Voltage drops VR , VL, ,Vc f) combination voltage VRL , and VLc , g) phase angle φ , h) resonant frequency f0 , i) Power dissipated by circuit.
A series RLC circuit is comprised of a 0.140 H inductor with an internal resistance of 182.0 1, an unknown capacitor, and an unknown resistor. They are connected to a generator set at 160. Hz. If VC = 5.17 V, VR = 7.82 V, and Vind = 15.60 V, what frequency should the generator be set in order to maximize the power factor? Vc A B с VL Gen R VR V [V - Vc L D 000 inductor C...
Please help answer in pspice, thank you very much. Inductor +VR 300 220m 100 50 LI Function Generator Figure 2: RLC Circuit with 100Ω Resistor Inductor 50 300 220m 1k Function Generator Figure 1: RLC Circuit with 1kQ Resistor Generate a computer simulation modeling the capacitor voltage transient of the RLC circuit for Figures 1 and 2. Measure the initial capacitor voltage, vc(0), the final capacitor voltage, vc), and the capacitor voltage at 0.5 mS, 1 mS, and 2 mS....
2)Passive Filter: High Pass Filter Lab Experiment 3) Given the following RLC series circuit. V, = 10 Vrm L 0º and frequency f= 90 KHz. The circuit elements values are: R = 5 KO, L= 10 mH and C = 470 pF. a) Calculate total impedance Z, in polar form. b) Calculate total current I, in polar form. c) Calculate the voltages across R, C and L, (VR, Vc, and V.). d) Draw voltage phasor diagram Vs, VR, Vc, and...
Consider the circuit of Figure 1. The voltage source vs and resistance Rs comprise a circuit model of a function generator. 1. Find the circuit time constant ? for t?0. Assuming that the capacitor is initially uncharged, find and accurately sketch vR(t) and vC(t) for t?0. Calculate vR(t) and vC(t) for t = 0, ?, 2?, 3?, 4?, and 5? seconds. 2. Find the 10-90% rise time of vC(t) (this is the time required for vC(t) to transition from 10%...
Consider the circuit of Figure 1. The voltage source Vs and resistance Rs comprise a circuit model of a function generator. Find the circuit time constant τ for t≥0. Assuming that the capacitor is initially uncharged, find and accurately sketch vR(t) and vC(t) for t≥0. Calculate vR(t) and vC(t) for t = 0, τ, 2τ, 3τ, 4τ, and 5τ seconds. Find the 10-90% rise time of vC(t) (this is the time required for vC(t) to transition from 10% (0.5V) to...
An AC generator provides power for the circuit shown below. The generator voltage is described by E(t)=Emaxsin(ωt)E(t)=Emaxsin(ωt) where E=E= 120 V. Here, L=L= 640 mH, C=C= 160 μμF, R=R= 90 ΩΩ, and ω=ω= 40 rad/sec. 1) What is the phase angle between the generator and the current? ϕ=ϕ= -55 degrees ϕ=ϕ= 1.1 degrees ϕ=ϕ= 64 degrees ϕ=ϕ= -16 degrees ϕ=ϕ= -0.99 degrees Your submissions: A Submitted: Wednesday, July 29 at 1:02 PM Feedback: Feedback will be available after 11:59 PM...
Part A Find the rms voltage across each element in an RLC circuit with R = 9.4 kΩ , C = 0.15 μF , and L = 27 mH . The generator supplies an rms voltage of 150 V at a frequency of 65.0 Hz . Express your answers using two significant figures. Enter your answers numerically separated by commas. VR,VL,VC = V
9 (12 points) Consider the RLC circuit shown, powered by ε = Vo sin(at). (a) Draw two phasor diagram, one for the current phasors 11, 12, and I (the total current), and the other for the voltage pahsors V, VI, Vc, and ε. (Hint: Note that I = 11 + 12, while VR = V2 + VC = ε. Draw the phasor diagrams accordingly.) (b) Find I as a function of time. (c) Find the impedance Z of the circuit....
An RLC series circuit is constructed with R = 190.0 Ω, C = 6.00 µF, and L = 0.54 H. The circuit is connected to an AC generator with a frequency of 60.0 Hz that delivers a maximum current of 2.30 A to the circuit. (a) What is the impedance of this circuit? ___ Ω (b) What are the maximum potential differences across each of the three circuit elements (R, L, and C)? VR, max =___ V VL, max =___...