What is the angle between the plane of the coil and the direction of the field when the maximum induced emf occurs?

(b) When the maximum induced voltage occurs, sinwt = 1.0, so wt = 90°. This is the angle between the normal to the loop and the magnetic field, so the plane of the coil is parallel to the magnetic field.

What will be the orientation of the coil with respect to the magnetic field to have a maximum b zero magnetic flux?

(ii) Magnetic flux will be maximum if the coil is in the vertical position and it will be zero when the coil is in the horizontal position.

Is the magnetic field perpendicular to the plane of the coil then flux linked with coil is given by?

The magnetic flux through a coil perpendicular to the plane is varying according to the relation φ=(5t3+4t2+2t−5) wb.

What is the magnetic field at the center of the coil?

Magnetic Field at the Center of a Circular Current-Carrying Coil. dB = μ 0 4 π Id ℓ sin ⁡ θ r 2 where is the angle between d ℓ → and .

What is meant by plane of coil?

Related Answer. Figure shows a coil of single turn would on a sphere of radius R and mass m. The plane of the coil is parallel to the plane and lies in the equatorial plane of the sphere.

What is the meaning of orientation of coil?

The coil is rotated with an angular velocity ω in the clockwise direction about an axis perpendicular to the direction of the magnetic field. Suppose, initially the coil is in a vertical position so that the angle between normal to the plane of the coil and magnetic field is zero.

Can we induce the current in a coil by changing the orientation?

Induced current can be created by changing the orientation of the wire loop only. Induced current can be created by changing the strength of the magnetic field only.

What is the magnetic field at the center of a circular loop?

The magnetic field at the centre of a circular loop carrying current is zero.

What happens to the magnetic field at the center of a circular current carrying coil?

The magnetic field at the centre of the circular coil, B = I r μ 0 I 2 r . Hence, if we double the radius, the magnetic field at the centre of the coil will become half its original value.