Physics - Electromagnetic Induction
Practise 43 NEET previous year questions on Electromagnetic Induction, compiled from papers spanning 2004 to 2026. Each question is pulled directly from the actual exam paper it appeared in, so you're practising in the exact style and difficulty NEET tests.
Electromagnetic Induction has been asked in 20 of the 39 years of NEET papers analysed (1988–2026), with 43 questions in all. 63% of them were easy, 28% moderate and 9% tough. Most of its questions came from 2026, with 4 questions that year. In the last three years (2024–2026) it had 7 questions across 13 papers, about 0.5 per paper.
The chapter's 6 topics are not weighted equally: Magnetic Flux, Faraday's and Lenz law (18 questions, 42%), Motional and Rotational EMF (9 questions, 21%), and Self and Mutual Inductance (7 questions, 16%) have been asked the most. Magnetic Flux, Faraday's and Lenz law has also led over the last five years, with 6 questions. Motional and Rotational EMF has produced the most tough questions (2).
- 1A rectangular wire loop of sides cm and cm with a small cut, is moving out of a region of uniform magnetic field of magnitude T directed nor2026 (Cancelled)Motional and Rotational EMF
- 2Consider a long solenoid of length and radius . If is the number of turns per unit length and is the permeability of free space, the inducta2026 (Re-NEET)Self and Mutual Inductance
- 3Two identical inductors are connected in two different configurations P and Q, where a time varying current is flowing, as shown in the figu2026 (Re-NEET)Inductance
- 4A conducting loop of finite resistance lies on the - plane. There is a constant magnetic field in the direction. The area of the loop varies2026 (Re-NEET)Magnetic Flux, Faraday's and Lenz law
- 5AB is a part of an electrical circuit (see figure). The potential difference " ", at the instant when current and is increasing at a rate of2025LR Circuit
- 6In the above diagram, a strong bar magnet is moving towards solenoid-2 from solenoid-1. The direction of induced current in solenoid-1 and t2024Magnetic Flux, Faraday's and Lenz law
- 7Let us consider two solenoids and , made from same magnetic material of relative permeability and equal area of cross-section. Length of is 2024 (Re-NEET)Self and Mutual Inductance
- 8The net magnetic flux through any closed surface is:2023 (All India)Magnetic Flux, Faraday's and Lenz law
- 9The magnetic energy stored in an inductor of inductance 4 H carrying a current of 2 A is:2023 (All India)Inductance
- 10An emf is generated by an ac generator having 100 turn coil, of loop area . The coil rotates at a speed of one revolution per second and pla2023 (Manipur)Induced Electric Field
- 11A square loop of side 1 m and resistance 1 is placed in a magnetic field of 0 . 5 T . If the plane of loop is perpendicular to the direction2022 (Phase 1)Magnetic Flux, Faraday's and Lenz law
- 12A big circular coil of 1000 turns and average radius 10 m is rotating about its horizontal diameter at 2 rad s - 1 . If the vertical compone2022 (Phase 1)Magnetic Flux, Faraday's and Lenz law
- 13The magnetic flux linked to a circular coil of radius is: The magnitude of induced emf in the coil at is:2022 (Phase 2)Magnetic Flux, Faraday's and Lenz law
- 14Two conducting circular loops of radii R 1 and R 2 are placed in the same plane with their centres coinciding. If R 1 R 2 , the mutual induc2021Self and Mutual Inductance
- 15The magnetic flux linked with a coil (in Wb ) is given by the equation = 5 t 2 + 3 t + 16 . The magnitude of induced emf in the coil at the 2020 (Phase 2)Magnetic Flux, Faraday's and Lenz law
- 16A wheel with 20 metallic spokes each 1 m long is rotated with a speed of 120 rpm in a plane perpendicular to a magnetic field of 0 . 4 G . T2020 (Phase 2)Induced Electric Field
- 17A 800 turn coil of the effective area 0.05 m 2 is kept perpendicular to the magnetic field 5 10 - 5 T . When the plane of the coil is rotate2019 (All India)Magnetic Flux, Faraday's and Lenz law
- 18In which of the following devices, the eddy current effect is not used?2019 (All India)Motional and Rotational EMF
- 19The variation of EMF with time for four types of generators are shown in the figures. Which amongst them can be called AC? (a) (b) (c) (d)2019 (Odisha)Magnetic Flux, Faraday's and Lenz law
- 20A cycle wheel of radius is rotated with constant angular velocity of in a region of magnetic field of which is perpendicular to the plane of2019 (Odisha)Magnetic Flux, Faraday's and Lenz law
- 21A long solenoid of diameter 0 . 1 m has 2 10 4 turns per meter. At the centre of the solenoid, a coil of 100 turns and radius 0 . 01 m is pl2017Induced Electric Field
- 22A long solenoid has 1000 turns. When a current of 4 A flows through it the magnetic flux linked with each turn of the solenoid is 4 10 - 3 W2016 (Phase 1)Self and Mutual Inductance
- 23A uniform magnetic field is restricted within a region of radius, r . The magnetic field changes with time at a rate, d B d t . Loop one of 2016 (Phase 2)Magnetic Flux, Faraday's and Lenz law
- 24A conducting square frame of side a and a long straight wire carrying current I are located in the same plane as shown in the figure. The fr2015 (Phase 1)Motional and Rotational EMF
- 25A thin semicircular conducting ring P Q R of radius r is falling with its plane vertical in a horizontal magnetic field B , as shown in figu2014Motional and Rotational EMF
- 26A wire loop is rotated in a magnetic field. The frequency of change of direction of the induced emf is2013 (All India)Magnetic Flux, Faraday's and Lenz law
- 27A current of flows through a coil of inductance . The magnetic flux linked with the coil is:2013 (Karnataka)Magnetic Flux, Faraday's and Lenz law
- 28In a coil of resistance , the induced current developed by changing magnetic flux through it, is shown in figure as a function of time. The 2012 (Mains)Magnetic Flux, Faraday's and Lenz law
- 29A coil of resistance is placed in a magnetic field. If the magnetic flux linked with the coil varies with time (sec) as The current in the c2012 (Screening)Magnetic Flux, Faraday's and Lenz law
- 30The current in a coil varies with time as shown in the figure. The variation of induced emf with time would be2011 (Screening)Induced Electric Field
- 31A thin ring of radius metre has charge coulomb uniformly spread on it. The ring rotates about its axis with a constant frequency of revoluti2010 (Screening)Motional and Rotational EMF
- 32A conducting circular loop is placed in a uniform magnetic field, with its plane perpendicular to the loop. The radius of the loop is made t2010 (Screening)Motional and Rotational EMF
- 33A conducting circular loop is placed in a uniform magnetic field with its plane perpendicular to the magnetic field. The radius of the loop 2009 (Mains)Magnetic Flux, Faraday's and Lenz law
- 34A rectangular, a square, a circular and an elliptical loop, all in the plane, are moving out of a uniform magnetic field with a constant vel2009 (Mains)Motional and Rotational EMF
- 35A conducting circular loop is placed in a uniform magnetic field with its plane perpendicular to the magnetic field. The radius of the loop 2009 (Screening)Motional and Rotational EMF
- 36A rectangular, a square, a circular and an elliptical loop, all in the plane, are moving out of a uniform magnetic field with a constant vel2009 (Screening)Motional and Rotational EMF
- 37A circular disc of radius 0.2 meter is placed in a uniform magnetic field of induction linked with the disc is2008 (Mains)Magnetic Flux, Faraday's and Lenz law
- 38A long solenoid has 500 turns. When a current of 2 ampere is passed through it, the resulting magnetic flux linked with each turn of the sol2008 (Mains)Self and Mutual Inductance
- 39A long solenoid has 500 turns. When a current of is passed through it, the resulting magnetic flux linked with each turn of the solenoid is 2008 (Screening)Self and Mutual Inductance
- 40A circular disc of radius is placed in a uniform magnetic field of induction in such a way that its axis makes an angle of with . The magnet2008 (Screening)Magnetic Flux, Faraday's and Lenz law
- 41Two coils of self inductance and 8 are placed so close together that the effective flux in one coil is completely linked with the other. The2006Self and Mutual Inductance
- 42A coil of 40 henry inductance is connected in series with a resistance of and the combination is joined to the terminals of a 2 volt battery2004LR Circuit
- 43The magnetic flux through a circuit of resistance changes by an amount in a time . Then the total quantity of electric charge that passes an2004Induced Electric Field
Frequently Asked Questions
1.How many questions are available for Electromagnetic Induction?
This chapter includes 43 questions compiled from NEET papers spanning 2004 to 2026.
2.Are these questions only from NEET, or from other exams too?
These are NEET questions specifically for the Electromagnetic Induction chapter. Questions from other exams like AIIMS or JIPMER are organised separately under their respective exam sections.
3.Is Electromagnetic Induction an important chapter for NEET Physics?
Electromagnetic Induction has appeared in 20 of the 25 years of NEET papers covered here, with 43 questions across 30 papers - about one per paper it appears in.
4.What is the difficulty level of Electromagnetic Induction questions in NEET?
Of the 43 questions analysed for this chapter, 63% are easy, 28% moderate and 9% tough. 2026 had the most, with 4 questions.
5.Which topics in Electromagnetic Induction should I focus on?
These topics have carried the most weightage in Electromagnetic Induction:
- Magnetic Flux, Faraday's and Lenz law - 18 questions (42%)
- Motional and Rotational EMF - 9 questions (21%)
- Self and Mutual Inductance - 7 questions (16%)
- Motional and Rotational EMF has produced the most tough questions (2).
6.Is Electromagnetic Induction's weightage in NEET going up or down?
Across all 30 papers analysed, Electromagnetic Induction has averaged about 1.4 questions per paper. In the last three years (2024–2026), that average has fallen, at about 0.5 questions per paper. Use the year-wise numbers on this page for the exact trend before you decide how much time to give it.