Cross-sectional views of three long conductors carrying currents I = 2.6 A, I2 = 2.2 A, and 13 = 5.6 A are shown in the figure below. Determine the closed line integrals O B• de around the five Ampèrian loops a through e as shown in the figure. (Assume positive current is into the page.) de b d de de de loop a T. m loop b T. m loop c T.m loop d T. m loop e T.m

Cross-sectional views of three long conductors carrying currents I = 2.6 A, I2 = 2.2 A, and 13 = 5.6 A are shown in the figure below. Determine the closed line integrals O B• de around the five Ampèrian loops a through e as shown in the figure. (Assume positive current is into the page.) de b d de de de loop a T. m loop b T. m loop c T.m loop d T. m loop e T.m

Glencoe Physics: Principles and Problems, Student Edition

1st Edition

ISBN:9780078807213

Author:Paul W. Zitzewitz

Publisher:Paul W. Zitzewitz

Chapter25: Electromagnetic Induction

Section: Chapter Questions

Problem 48A

See similar textbooks

Related questions

Q: The following picture shows a LONG conductor carrying current 1. Nearby there is a conducting…

A: Hello. Since your question has multiple sub-parts, we will solve the first three sub-parts for you.…

Q: After being closed for a long time, the switch S in the circuit shown in the figure below is thrown…

Q: he R-L circuit given in the figure, e = 9V, L=20 mH, and R=30. At t=0 switch S is closed. How long…

Q: to support an energy density of 1.00 J/m^3 within the volume of the solenoid, how much current must…

Q: Each of the five conductors carries 1.0 A into or out of the page as shown. What is the value of the…

A: Given data Current = 1A To determine The values of ∑B.L

Q: 4A 6A Two rectangular conducting loops carry currents of 4 A and 6 A as shown in figure. What is the…

A: The circulation of B along an imaginary closed loop is proportional to the net amount of the current…

Q: 15) A metal bar with length L = 0.80 m ,mass m 100 gram, and resi stan ce R = 10 N is placed on…

Q: A bar of length d 0.8 m is free to slide without friction on horizontal rails as shown in Figure. A…

A: In given circuit, just after the switch S is closed, Current through inductor will be zero, So…

Q: Figure below shows a conductor moving with a velocity v = 7.1 m/s to the left in the presence of…

Q: See the attached picture, what is the direction of the induced current in the loop while the current…

Q: = 3 A 1 = 2 A 1, = 2 A 1, = 3 A The total current through the Amperian loop is 2 A. What must the…

A: The direction of the Amperian loop given is clockwise. Thus by using the right-hand rule, the…

Q: turns

Q: A circular metal ring is situated above a long straight wire, as shown in the figure. The straight…

A: With increase in current, the outward flow through the ring also increases and hence induces a…

Q: A long, straight current carrying solenoid creates a uniform magnetic field B = 12 mT inside itself…

Q: Two coaxial solenoids (A inside B) have the same length (L = 20 cm) but different radii (RA = 3.0 cm…

Q: Which of the following rule is used to determine the direction of rotation of the coil of the D.C…

A: Right hand rule gives the direction of motion of coil.

Q: A Rowland ring is formed of ferromagnetic material. It is circular in cross section, with an inner…

Q: A long solenoid of radius r = 1.85 cm is wound with 4.50 ✕ 103 turns/m and carries a current that…

Q: 9) A wire of diameter d = 1 mm is wrapped around a cylindrical core of radius R= 5 cm and length I=…

A: Find magnetic field inside the solenoid, which is given by: B = u0*n*i u0 = 4*pi*10^-7 n = number…

Q: A long solenoid of radius 2.82 m is wound with 29.2 turns/m and carries a current that changes at…

Q: A conductive loop on the x-y plane is bounded by p = 2.0 cm, p 6.0 cm, = 0° and = 90°. 1.5 A of…

A: Here given a conductive loop on the XY plane bounded by 2 cm and 6 cm. The two angles are 0° and 90°…

Q: The long solenoid S shown (in cross section) in Figure 9 has 220 turns/cm and carries a current I =…

A: N=Number of turns=130n=Number of turns per unit length=220 turns/cmd=Diameter of coil=2.1…

Q: The flexible loop in the figure below has a radius of 13 cm and is in a magnetic field of strength…

Q: 4. A toroidal solenoid has an average radius of 10.0 cm, a cross-sectional area of 10.0 cm? and 1000…

A: radius (r) = 10 cm = 0.1 m Area (A) = 10 cm2= 10-3 m2Number of turns (N) = 1000current (I) = 100 A…

Q: A metal bar of length L = 2.8 m slides along two horizontal metal rails as shown in the figure…

Q: 4. A toroidal solenoid has an average radius of 10.0 cm, a cross-sectional area of 10.0 cm2 and 1000…

Q: After being closed for a long time, the switch S in the circuit shown in the figure below is thrown…

Q: Problem 7: A square loop of side length a =3.6 cm is placed a distance b = 0.65 cm from a long wire…

A: a = 3.6 cm b = 0.65 cm Q = 3.4 A / s

Q: circular loop with R=1.00×10−2ΩR=1.00×10−2Ω is at the center of a large 120-mm-diameter circular…

A: We know that the formula of the Emf is given as Emf = dϕdt where ϕ is the electric flux is given…

Q: The three conducting rings in the figure are all in the same plane as a long wire. The wire has a…

A: Given that:- Current in long wire=I

Q: A long solenoid radius 2.16 m is wound with 20.5 turns/m and carries a current that changes at the…

Q: The single rectangular loop of wire shown on the figure has a resistance of 2.0 2 and is lying on…

A: Resistance = 2 ohm Magnetic Field = 3 T Emf = 24 v Area = 0.25 × 0.4 = 0.1 m2 Using ohms law…

Q: The figure shows an end view of a single-turn square loop of metal wire in the center of and coaxial…

Q: Figure below shows the current as a function of time through a 20 [cm] long, 4.0 [cm] diameter…

Q: The figure shows an end view of a single-turn square loop of metal wire in the center of and coaxial…

Q: Consider the RL direct current circuit shown. The circuit contains R = 4.0 Ω, L = 10 mH, & ε = 12…

Q: e current in a long solenoid of radius 6 cm and 22 turns/cm is varied with time at a rate of 3 A/s.…

Q: Which of the following rule is used to determine the direction of rotation of the coil of the D.C…

A: The DC motor is rotating

Q: Consider the circuit shown in the figure below, where L = 4.75 mH and R, = 425 Q. The switch S can…

A: Given data: The value of inductor in the circuit is L=4.75 mH. The value of resistance 2 in the…

Q: A long, straight current carrying solenoid creates a uniform magnetic field B = 20 mTinside itself…

A: Answer: a) n = 3.62×10^2 b) L1 = 144.85

Q: A rectangular conducting loop is placed near a long wire carrying a current I as shown in the figure…

Q: R1 R2 15 V lov R4 R3 The loop on the left has current I, and the loop on the right has current Iz.…

Concept explainers

Electromagnets

The word "electromagnet" is composed of two words, ‘electro’ and ‘magnet’. It is a type of magnet in which an electric current helps in the generation of a magnetic field. Electromagnets usually consist of two major parts, wire and a coil around which the wire is wound. This is called a solenoid. When an electric current is allowed to pass through the coiled wire, the electric current produces a magnetic field. This magnetic field is present only when current is passing through the wire.

Question

Cross-sectional views of three long conductors carrying currents I = 2.6 A, I2 = 2.2 A, and 13 = 5.6 A are shown in the figure below. Determine the closed line integrals O B• de around the five Ampèrian loops a through e as shown in the figure. (Assume positive
current is into the page.)
de
b
d
de
de
de
loop a
T. m
loop b
T. m
loop c
T.m
loop d
T. m
loop e
T.m

Expert Solution

This question has been solved!

Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.

This is a popular solution!

SEE SOLUTION Check out a sample Q&A here

Step 1

Step 2

Step 3

Step 4

Step 5

Step 6

Trending now

This is a popular solution!

Step by step

Solved in 6 steps with 6 images

SEE SOLUTION Check out a sample Q&A here

Knowledge Booster

Learn more about

Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, physics and related others by exploring similar questions and additional content below.

Similar questions

Determine A. O B. C. D. O O the flux passing through the plane II/4 section defined by 0.01m ≤p ≤ 0.05m and 0 ≤z≤ 2 m in free space. A 2.5 A currents element is positioned in the + az along the z-axis. 1.61 x 10-6 Wb 1.25 x 10-4 Wb 2.65 x 10-4 Wb 1.75 x 10-6 Wb
b. For the magnetic structure below, draw the equivalent circuit beside it. Be sure 3 4 6 51 10 12 to label each component with the formula for its value. Pay attention to the direction of voltage sources and count the number of turns. For the magnetic structure below, draw the equivalent circuit beside it. Then c. find an expression for the flux O flowing through the loop. 3. I, 14 16
Determine the branch currents using Kirchhoff's Rules and the voltage. Assume a clockwise loop direction. Pls. show calculations clearly.
e br Direction: Solve as directed. Write your answers on the box provided. Find the unknown values of voltage and current in each resistor as shown in the given circuit diagram. 1. The magnetic field of a certain region has a magnitude of 1.50 T, and its direction is along the positive x-axis, as shown in the figure below. 30 сm b. 40 cm 30 сm a. What is the flux across the surface abcd? a b. What is the flux across the surface befc? 50 cm c. What is the flux across the surface aefd? С. d. d. What is the flux across the surface in the shaded volume?
Q1. An infinite current sheet lies in the z = 0 plane with current l=i ŷ, as shown in Fig. given below. Find B due to the current in the sheet. Apply Amperes law to loop 12341. a
I, Iz The picture shows two parallel wires where I1 is 19.6 amps, and I2 is 35.5 amps. The location A is in the plane of the two wires and is 30.0 mm from the left wire and 18.4 mm from the right wire. Given the direction of current in each wire, what is the B-field at the location A in micro teslas? (If the B-field points toward make it positive; if it points away from you, make it negative. Give answer as an integer with correct sign. Do not enter unit.) you,
ANSWER THE QUESTION VERY DETAIL AND USE MANUAL CALCULATION Consider the wires that carry electric current and are arranged as shown below. In this case the length of segment a = 12 cm, b = 16 cm. Where the current flowing along the wire i = 4.5t2 10 t (where i is in amperes, t is in seconds). a a. Determine the magnitude of the emf in the square loop (square wire) at t = 3 seconds. b. Determine the direction of induction in the square loop
efoverl. Consider a pair of straight, parallel horizontal wires 2.0 [mm] apart carrying equal currents of 2.0 [A] in opposite directions. What force per unit length does each wire exert on the other? OA. 2.0 x 10-4 [N/m], attractive -4 OB. 2.0 x 104 [N/m], repulsive OC. 4.0 x 10-4 [N/m], attractive OD. 4.0x 104 [N/m], repulsive 11
Consider the seven current-carrying wires and the four closed paths shown in the figure. For each of these paths (C,, C,, C2, and C.) determine the following in terms of un. Use standard sign convention for the currents; minus is down into the page and positive is up out of the page. (Assume I, = 3.00 A, I, = 5.00 A, I, = 8.00 A, I = 6.00 A, I, = 9.00 A, I, = 6.00 A, and I, = 7.00 A.) I6 (a) B. d : (b) B. ds = (c) B. ds = (d) в. ds
Five parallel wires carry currents into or out of the page, as shown in the diagram below. The line integral of B around the loop (in the direction indicated) is +µoI where | = 1.0 A. I,=4.0A Iz=8.0A L=1.0A I=7.0A ? Is What is the unknown current I5? OA. 8.0 A out of the page. 8.0 A into the page. 5.0 A into the page. 5.0 A out of the page.
A 8-turn generator coil with area 0.155 m^2 rotates in a 1.20 T magnetic field. At what frequency should the coil rotate to produce a peak emf of 150, expressed four sig figs with approp units. Attached are self notes. If you help me with the symbology... I know that f = frequency. I am not at clear the other symbols.
The linear DC machine shown in Figure below has a battery voltage of VB = 11 V, and an internal resistance of R = 1.40. The magnitude of the uniform magnetic field is 1.4 T and into the page. The length of the conducting wire in the magnetic field is 0.8 m. What is the steady-state velocity (m/s) at no load conditions? Provide your answer with 1 decimal place. t= 0s R B VB