Problem 7: A conducting rod spans a gap of length L = 0.075 m and acts as the fourth side of a rectangular conducting loop, as shown in the figure. A constant magnetic field with magnitude B = 0.65 T pointing into the paper is in the region. The rod is pulled to the right by an external force, and moves with constant speed v= 0.11 m/s. The resistance in the wire is R = 130 92. Randomized Variables L=0.075 m B=0.65 T v=0.11 m/s R = 130 Ω R X X X X X X X X X X a L X X X X X X V X X X X X X x X X 100 B

Q: Find the charge g(t) on the capacitor and the current i(t) in the given LRC-series circuit. L = 1 h,…

A: Given LRC Circuit - L=1 h, R=100 ohm, C=0.0004 f, E(t)=30 V q(0)=0, i(0)=4 A

Q: Consider a series RC circuit as in the figure below for which R 6.00 MQ, C = 1.00 μF, and ε = 32.0…

A: Given data: The resistance, R=6 MΩ=6×106 Ω The capacitance, C=1 μF=1×10-6 F ε=32 V

Q: 4. (w) (* The formula to calculate impedance in an Z = impedance measured in ohms %3D RL circuit is:…

A: Alternating current is the current that changes its direction in every fixed interval of time. The…

Q: 9. In the circuit shown, assume the battery emf is 20.0 V, R = 1.00M, and C= 2.00µF. The switch is…

A: Given value--- EMF = 20 V. R = 2 M ohm. C = 2 micro F. We have to find--- At what time t will the…

Q: R1 is 150 ohms, and R2 is 220 ohms. (150 +220 = 370). In a series circuit, the current is the same…

A: Use Ohm’s law to determine the current (I) in the circuit. Since the resistance R1 and R2 are…

Q: Consider a series RC circuit as in the figure below for which R = 9.00 M, C = 4.00 µF, and = 31.0 V.…

A: R=2.60×103 ΩC=8.30×10−6 FV0=31.5 Vt=10.0 s R=2.60×103 ΩC=8.30×10−6 FV0=31.5 Vt=10.0 s

Q: Find the charge q(t) on the capacitor and the current i(t) in the given LRC-series circuit. L = h, R…

A: Given: L=5/3 H, R=10 ohms. C= 1/30 F , E(t) =600 volts initial charge and current =0

Q: In the RC circuit below, R = 59, 10 μF, and = 15 V. How long after closing switch S will the current…

A: Solution: Given: R = resistance of resistor = 5 Ω C = capacitance of capacitor = 10 μF = 10 x 10-6 F…

Q: Consider the following circuit. R The capacitor is uncharged when switch S is closed at t = 0. After…

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Q: Problem 5: An LR circuit includes a basic switch, two voltmeters and an ammeter. Initially there is…

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Q: 3/ The RC Circuit in the followshg Figure has R=3 KSL and C= 5MF. The Capac'tor has Valtege 6 at t:o…

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Q: In the circuit to the right, E = 1.2kV, C = 6.5 μF, and R₁ = R₂ = R3 = R = 0.73 M. With C completely…

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Q: Consider a series RC circuit as in Figure below for which R =4.0 MQ, C=6.0 µF, and ɛ=31.8 V. Find…

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Q: Consider the following RC circuit after the switch is closed. The resistances in the circuit have…

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Q: Problem 17: Consider the circuit diagram depicted in the figure. R₂₁₂ 2.5 Ω a ६२ E1= 18 V h = 45 V…

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Q: 11a. What is Vc at time t = 2.00 ms? Use the following data : R = 467.5 Ω, C = 4.00 μF, Vb = 3.05 V.…

A: 11a) The capacitor’s voltage can be represented as, Here, V­0, R, C, and t represent the…

Q: A 5.0-cm-diameter coil has 20 turns and a resistance of 0.50 N. A magnetic field perpendicular to…

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Q: Consider the circuit shown below. Find I1. 12, andl3 when (a) the switch S is first closed, (b)…

A: When the switch is open , the current through the inductor is zero. Due to transient effect of…

Q: Consider a series RC circuit as in the figure below for which R = 3.00 M2, C = 4.00 μF, and & = 28.0…

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Q: RC Circuit: Charging We begin the problem with an open switch and an uncharged capacitor. At time t…

A: given, C = 46 microF, R1 = 41 ohms R2 = 25 ohms, R3 = 90 ohms, R4 = 45 ohms t= 620 microseconds.

Q: Determine the admittance Yfor the circuit given in the figure. Take R= 4 Q. j8Q +-j10 2 R The…

A: Given R = 4 Ω Find the admittance Y, as following below.

Q: (a) Find the time constant of the circuit. S (b) Find the maximum charge on the capacitor after the…

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Q: Consider the circuit diagram in the figure. Part (a) What is the equation which results when…

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Q: Use Kirchhoff's rules to calculate currents I1, I2 and I3 in the circuit. Apply the junction rule to…

A: The circuit is given as follows :  According to Junction Rule :  At any junction , Sum of all the…

Ferromagnetism

Ferromagnetism is a mechanism by which some materials show magnetic properties. Iron and magnetite, an oxide of iron, are two naturally occurring materials that show the property of ferromagnetism. The word ferromagnetism is derived from the Latin name of iron, "Ferrum" as it was the first observed material to show such property. The property of ferromagnetism is shown by only a few substances such as iron, nickel, cobalt, and their alloys. Some transition metals and alloys of rare-earth metals also show ferromagnetism.