Answered: Two thin and long conductors with the… | bartleby

Related questions

Question

Two thin and long conductors with the shape as shown in Figure, carry currents I₁ and I₂ for each conductor. The two conductors are in the same plane and are separated by a distance a from each other, with the second conductor having a width b. Determine the magnitude of the magnetic interaction force per unit length between these two conductors!

a
b

Expert Solution

Step by step

Solved in 6 steps with 1 images

SEE SOLUTION Check out a sample Q&A here

Blurred answer

Similar questions

Chapter 29, Problem 037 GO In the figure, four long straight wires are perpendicular to the page, and their cross sections form a square of edge length a = 13.0 cm. Each wire carries 5.50 A, and the currents are out of the page in wires 1 and 4 and into the page in wires 2 and 3. In unit-vector notation, what is the net magnetic force per meter of wire length on wire 4? H a —a——x
Two long straight current-carrying wires are lined up parallel to one another at a distance dd. Currents of 4 A and 2 A flow through the wires, both in the same direction generating the field of 8.7x10-6 T at a midpoint between them. Calculate the distance between the wires. Give your answer in SI units. Use μ0=4π×10−7μ0=4π×10−7 Hm-1.
The magnetic dipole moment of Earth has magnitude 8.00 x 1022 J/T. Assume that this is produced by charges flowing in Earth's molten outer core. If the current is measured to be 2.08 x 109 A, what is the radius of the charges' circular path?
A 12 cm long copper wire carrying a high 30 A current is placed in a uniform magnetic field of strength 900 G. What is the magnitude of the magnetic force on the wire if the wire is perpendicular to the magnetic field?
A positively charged particle travels in the positive x direction through a region of magnetic field in the negative y direction. In what direction is the resulting force? O negative x direction O negative z direction O positive y direction
The two wires shown in the figure are long, straight and parallel to each other with a separation of 80 cm. The wire on the left carries a current I₁ of 5.00 A into the page. a) What must the magnitude and direction of the current I₂ be for the net field at point Q to be zero? b) What are the magnitude (in terms of the common factor μ₁/2π) and direction of the net field at point P? 80 cm P 40 cm ₁ = 7.2 A 80 cm 12 40 cm X
Two long, parallel wires separated by a distance d carry currents in opposite directions. If the left-hand wire carries a current i/2 and the right-hand wire carries a current i, determine where the magnetic field is zero.
A small particle with charge q, m 6.0x10-6 kg, and speed 40.0m/s enters a region of uniform magnitude field B= 5.0T. The direction of the magnetic field is out of the page. The particle travels counterclockwise on the path shown and it exits the region at a point 0.5m from where it entered. What are the sign and magnitude of this charge?
Please answer carefully.
Two long, parallel, current-carrying wires lie in an xy-plane. The first wire lies on the line y = 0.400 m and carries a current of 25.0 A in the +x direction. The second wire lies along the x-axis. The wires exert attractive forces on each other, and the force per unit length on each wire is 290 μN/m. What is the y-value (in m) of the line in the xy-plane where the total magnetic field is zero? .207 Use the right-hand rule to determine the possible location of a point where the magnetic field is zero. Write an expression for the force of attraction between the wires, find expressions for the magnetic fields due to each wire at the point, and set them equal. Use your expression for the force per unit length to eliminate one of the currents, and solve for the required distance. m
An infinitely long wire carries a current of I = 160 A. Consider a circle with a radius r and centered on the wire. Determine the magnitude of the magnetic field B at points along the circle in terms of I and r.