VITEEE PYQs for Moving charges and magnetism with Solutions: Practice VITEEE Previous Year Questions

Updated 3+ months ago

Moving charges and magnetism is an important topic in the Physics section in VITEEE exam. Practising this topic will increase your score overall and make your conceptual grip on VITEEE exam stronger.

This article gives you a full set of VITEEE PYQs for Moving charges and magnetism with explanations for effective preparation. Practice of VITEEE Physics PYQs including Moving charges and magnetism questions regularly will improve accuracy, speed, and confidence in the VITEEE 2026 exam.

VITEEE PYQs for Moving charges and magnetism with Solutions

1.
The dimensional formula for magnetic flux is:
- \([ML^2T^{-2}A^{-1}]\)
- \([MLT^{-2}A^{-1}]\)
- \([ML^2T^{-1}A^{-2}]\)
- \([ML^2T^{-2}A]\)
View Solution
2.
The work done by an uniform magnetic field, on a moving charge is:
- zero because \( \vec{F} \) acts parallel to \( \vec{v} \)
- positive because \( \vec{F} \) acts perpendicular to \( \vec{v} \)
- zero because \( \vec{F} \) acts perpendicular to \( \vec{v} \)
- negative because \( \vec{F} \) acts parallel to \( \vec{v} \)
View Solution
3.
A steel wire of length \( \ell \) has a magnetic moment \( M \). It is then bent into a semicircular arc. The new magnetic moment is:
- \( \dfrac{M}{\pi} \)
- \( \dfrac{2M}{\pi} \)
- \( \dfrac{3M}{\pi} \)
- \( \dfrac{4M}{\pi} \)
View Solution
4.
The horizontal component of the earth’s magnetic field is \( 3.6 \times 10^{-5} \) tesla where the dip angle is 60°. The magnitude of the earth’s magnetic field is:
- \( 2.8 \times 10^{-4} \) tesla
- \( 2.1 \times 10^{-5} \) tesla
- \( 7.2 \times 10^{-5} \) tesla
- \( 3.6 \times 10^{-5} \) tesla
View Solution
5.
A source producing sound of frequency 170 Hz is approaching a stationary observer with a velocity of 17 m/s. The apparent change in the wavelength of sound heard by the observer is (speed of sound in air = 340 m/s):
- 0.1 m
- 0.2 m
- 0.4 m
- 0.5 m
View Solution
6.
The current sensitivity of a moving coil galvanometer depends on:
- the number of turns in the coil
- moment of inertia of the coil
- current sent through galvanometer
- eddy current in Al frame
View Solution
7.
A current carrying coil is subjected to a uniform magnetic field. The coil will orient so that its plane becomes
- inclined at 45\(^\circ\) to the magnetic field
- inclined at any arbitrary angle to the magnetic field
- parallel to the magnetic field
- perpendicular to the magnetic field
View Solution
8.
The magnetic field at a point due to a current carrying conductor is directly proportional to:
- resistance of the conductor
- thickness of the conductor
- current flowing through the conductor
- distance from the conductor
View Solution
9.
Find the magnetic field at \( P \) due to the arrangement shown:
- \( \dfrac{H_0}{2 \sqrt{2}} \left( 1 + \dfrac{1}{\sqrt{2}} \right) \)
- \( \dfrac{H_0}{2 \sqrt{2}} \left( 1 - \dfrac{1}{\sqrt{2}} \right) \)
- \( \dfrac{H_0}{2 \sqrt{2}} \)
- \( \dfrac{H_0}{2 \sqrt{2}} \left( 1 + \dfrac{1}{\sqrt{3}} \right) \)
View Solution
10.
A conducting circular loop of radius \( r \) carries a constant current \( i \). It is placed in a uniform magnetic field \( \vec{B} \) such that \( \vec{B} \) is perpendicular to the plane of the loop. The magnetic force acting on the loop is
- \( irB_0 \)
- \( 2\pi irB_0 \)
- zero
- \( irB_0 \)
View Solution
11.
A square loop, carrying a steady current \( I \), is placed in a horizontal plane near a long straight conductor carrying a steady current \( I \), at a distance \( d \) from the conductor as shown in figure. The loop will experience:
- a net repulsive force away from the conductor
- a net torque acting upward perpendicular to the horizontal plane
- a net torque acting downward normal to the horizontal plane
- a net attractive force towards the conductor
View Solution
12.
A bar magnet of magnetic moment \( M \), is placed in a magnetic field of induction \( B \). The torque exerted on it is
- \( M \times B \)
- \( - M \times B \)
- \( \vec{M} \times \vec{B} \)
- \( - \vec{M} \times \vec{B} \)
View Solution
13.
A charged particle enters a uniform magnetic field perpendicular to its velocity. If the field is suddenly doubled, the radius of its path becomes:
- Half
- Double
- Four times
- Remains same
View Solution
14.
The magnetic field at a distance \( r \) from a long wire carrying current is 0.4 tesla. The magnetic field at a distance \( 2r \) is:
- 0.2 tesla
- 0.8 tesla
- 0.1 tesla
- 1.6 tesla
View Solution
15.
A particle of mass 10 kg is moving with a velocity of 5 m/s. The kinetic energy of the particle is:
- 125 J
- 250 J
- 500 J
- 1000 J
View Solution

View more VITEEE Questions

SHARE ON FACEBOOK SHARE ON TWITTER

Comments

No Comments To Show

SUBSCRIBE TO OUR NEWS LETTER

COLLEGE NOTIFICATIONS

EXAM NOTIFICATIONS

NEWS UPDATES

Download the Collegedunia app on

VITEEE PYQs for Moving charges and magnetism with Solutions: Practice VITEEE Previous Year Questions

VITEEE PYQs for Moving charges and magnetism with Solutions

1.
The dimensional formula for magnetic flux is:

2.
The work done by an uniform magnetic field, on a moving charge is:

3.
A steel wire of length \( \ell \) has a magnetic moment \( M \). It is then bent into a semicircular arc. The new magnetic moment is:

4.
The horizontal component of the earth’s magnetic field is \( 3.6 \times 10^{-5} \) tesla where the dip angle is 60°. The magnitude of the earth’s magnetic field is:

5.
A source producing sound of frequency 170 Hz is approaching a stationary observer with a velocity of 17 m/s. The apparent change in the wavelength of sound heard by the observer is (speed of sound in air = 340 m/s):

6.
The current sensitivity of a moving coil galvanometer depends on:

7.
A current carrying coil is subjected to a uniform magnetic field. The coil will orient so that its plane becomes

8.
The magnetic field at a point due to a current carrying conductor is directly proportional to:

9.
Find the magnetic field at \( P \) due to the arrangement shown:

10.
A conducting circular loop of radius \( r \) carries a constant current \( i \). It is placed in a uniform magnetic field \( \vec{B} \) such that \( \vec{B} \) is perpendicular to the plane of the loop. The magnetic force acting on the loop is

11.
A square loop, carrying a steady current \( I \), is placed in a horizontal plane near a long straight conductor carrying a steady current \( I \), at a distance \( d \) from the conductor as shown in figure. The loop will experience:

12.
A bar magnet of magnetic moment \( M \), is placed in a magnetic field of induction \( B \). The torque exerted on it is

13.
A charged particle enters a uniform magnetic field perpendicular to its velocity. If the field is suddenly doubled, the radius of its path becomes:

14.
The magnetic field at a distance \( r \) from a long wire carrying current is 0.4 tesla. The magnetic field at a distance \( 2r \) is:

15.
A particle of mass 10 kg is moving with a velocity of 5 m/s. The kinetic energy of the particle is:

Comments

SUBSCRIBE TO OUR NEWS LETTER

VITEEE PYQs for Moving charges and magnetism with Solutions

1.The dimensional formula for magnetic flux is:

2.The work done by an uniform magnetic field, on a moving charge is:

3.A steel wire of length \( \ell \) has a magnetic moment \( M \). It is then bent into a semicircular arc. The new magnetic moment is:

4.The horizontal component of the earth’s magnetic field is \( 3.6 \times 10^{-5} \) tesla where the dip angle is 60°. The magnitude of the earth’s magnetic field is:

5.A source producing sound of frequency 170 Hz is approaching a stationary observer with a velocity of 17 m/s. The apparent change in the wavelength of sound heard by the observer is (speed of sound in air = 340 m/s):

6.The current sensitivity of a moving coil galvanometer depends on:

7.A current carrying coil is subjected to a uniform magnetic field. The coil will orient so that its plane becomes

8.The magnetic field at a point due to a current carrying conductor is directly proportional to:

9.Find the magnetic field at \( P \) due to the arrangement shown:

10.A conducting circular loop of radius \( r \) carries a constant current \( i \). It is placed in a uniform magnetic field \( \vec{B} \) such that \( \vec{B} \) is perpendicular to the plane of the loop. The magnetic force acting on the loop is

11.A square loop, carrying a steady current \( I \), is placed in a horizontal plane near a long straight conductor carrying a steady current \( I \), at a distance \( d \) from the conductor as shown in figure. The loop will experience:

12.A bar magnet of magnetic moment \( M \), is placed in a magnetic field of induction \( B \). The torque exerted on it is

13.A charged particle enters a uniform magnetic field perpendicular to its velocity. If the field is suddenly doubled, the radius of its path becomes:

14.The magnetic field at a distance \( r \) from a long wire carrying current is 0.4 tesla. The magnetic field at a distance \( 2r \) is:

15.A particle of mass 10 kg is moving with a velocity of 5 m/s. The kinetic energy of the particle is:

Comments

SUBSCRIBE TO OUR NEWS LETTER

1.
The dimensional formula for magnetic flux is:

2.
The work done by an uniform magnetic field, on a moving charge is:

3.
A steel wire of length \( \ell \) has a magnetic moment \( M \). It is then bent into a semicircular arc. The new magnetic moment is:

4.
The horizontal component of the earth’s magnetic field is \( 3.6 \times 10^{-5} \) tesla where the dip angle is 60°. The magnitude of the earth’s magnetic field is:

5.
A source producing sound of frequency 170 Hz is approaching a stationary observer with a velocity of 17 m/s. The apparent change in the wavelength of sound heard by the observer is (speed of sound in air = 340 m/s):

6.
The current sensitivity of a moving coil galvanometer depends on:

7.
A current carrying coil is subjected to a uniform magnetic field. The coil will orient so that its plane becomes

8.
The magnetic field at a point due to a current carrying conductor is directly proportional to:

9.
Find the magnetic field at \( P \) due to the arrangement shown:

10.
A conducting circular loop of radius \( r \) carries a constant current \( i \). It is placed in a uniform magnetic field \( \vec{B} \) such that \( \vec{B} \) is perpendicular to the plane of the loop. The magnetic force acting on the loop is

11.
A square loop, carrying a steady current \( I \), is placed in a horizontal plane near a long straight conductor carrying a steady current \( I \), at a distance \( d \) from the conductor as shown in figure. The loop will experience:

12.
A bar magnet of magnetic moment \( M \), is placed in a magnetic field of induction \( B \). The torque exerted on it is

13.
A charged particle enters a uniform magnetic field perpendicular to its velocity. If the field is suddenly doubled, the radius of its path becomes:

14.
The magnetic field at a distance \( r \) from a long wire carrying current is 0.4 tesla. The magnetic field at a distance \( 2r \) is:

15.
A particle of mass 10 kg is moving with a velocity of 5 m/s. The kinetic energy of the particle is: