An infinitely long conductor as shown in figure, carrying a current I with a semicircular loop on X-Y plane and two straight parts, one parallel to X-axis and another coinciding with Z-axis. What is the magnetic field induction at the centre C of the semi-circular loop.
Text Solution
Verified by Experts
The magnetic field at P due to the straight part of conductor parallel to x-axis is `vec(B_(1)) = (mu_(0))/(4 pi) (i)/((d//2)) hat(k)` ….(1) The magnetic field at the point P due to the semicircular loo on x-y plane is given by `vec(B_(2)) = (mu_(0))/(4pi). (pi)/((d//2)) (+ hat(k))` .....(2) The magnetic field at P due to the straight part coinciding with z-axis is given by, `vec(B_(2)) = (mu_(0))/(4 pi) . (i)/((d//2)) (-hat(i))` ...(3) `:.` The total magnetic field at P is given by `vec(B) = vec(B_(1)) + vec(B_(2)) +vec(B_(3)) = (mu_(0))/(4 pi). (2i)/(d) (1 + pi) hat(k) - (mu_(0))/(4 pi) . (2i)/(d) hat(i) = (mu_(0))/(4 pi) . (2i)/(d) [(1 + pi) hat(k) - hat(i)]`
What will be magnetic field at centre of current carrying circular loop of radius R?
Equal current I flows in two segments of a circular loop in the direction shown in figure. Radius of loop is R. What is the magnitude of magnetic field induciton at the centre of the loop?
A conducting circular loop of radius a is connected to two long, straight wires . The straight wires carry a current I as shown in figure . Find the magnetic field B at the centre of the loop.
A part of a long wire carrying a current i is bent into a circle of radius r as shown in figure. The net magnetic field at the centre O of the circular loop is
If a long horizontal conductor is bent as shown in figure and a current I is passed in it, find the magnitude and direction of magnetic field induction at the centre of circular part.
An infinitely long conductor is bent into a circle as shown in figure. It carries a current I ampere and the radius of loop is R metre. The magnetic induction at the centre of loop is