MHT CET PYQs for Electromagnetic induction with Solutions: Practice MHT CET Previous Year Questions

Electromagnetic Induction is a Class 12 chapter in the Physics section of the MHT CET for candidates who are preparing for the PCM (Physics, Chemistry, and Mathematics).

The key topics covered in Electromagnetic Induction PYQs are:

Faraday's law and Lenz's law
Motional emf
Self-inductance and mutual inductance
Energy stored in an inductor
Circuits with an inductor

Practising Electromagnetic Induction MHT CET PYQ helps candidates to understand question pattern, improve calculation speed, and identify concepts which were asked in previous exams.

Based on chapter-wise analysis of the MHT CET Physics paper, you can get about 2 marks per paper by covering Electromagnetic Induction. The chapter recorded 186 questions across the 80 shifts in the data, and 80 of them came in the 2025 and 2026 papers, where it contributed about 4.8% per shift.

MHT CET Electromagnetic Induction Chapter: Question Count, Marks and Weightage:

2.29 Average questions per shift (2018-2026)	80 Questions in the 2025 and 2026 papers (33 shifts)
186 Questions in the PDF (2016-2026)	4.6% Estimated Physics paper weightage (4.8% in 2025-2026)

The PDF holds 186 questions from MHT CET 2026 to 2016, newest first, each with its exam date and shift. Options are as printed and answer keys are not included.

Electromagnetic Induction PYQ Statistics (2022-2026)

The table below shows the number of questions asked in MHT CET Electromagnetic Induction PYQs. Every shift has 50 Physics questions, so the last column is the average per shift divided by 50.

Year	Total Questions (across shifts)	Shifts in the Data	Average per Shift	Weightage (out of 50 Physics Qs)
2026	38	16	2.38	4.8%
2025	42	17	2.47	4.9%
2024	44	18	2.44	4.9%
2023	35	12	2.92	5.8%
2022	3	1	3.00	6.0%

The 2018 to 2021 papers in the PDF add 21 more questions: 2021 had 17, 2020 had 3, 2019 had 1, 2018 had none; the papers before 2018 add 1 from 2017, 2 from 2016.

MHT CET Electromagnetic Induction Important Questions: Based on the Last 5 Years

The major types of questions asked from Electromagnetic Induction in MHT CET cover the following topics:

Topic	Questions in the PDF	Questions in 2022-2026	Average per Shift (2022-2026)
Self and mutual inductance and energy in an inductor	91	83	1.30
Induced emf from a changing flux, motional emf and Lenz's law	81	66	1.03
Circuits with an inductor and other questions	14	13	0.20

Pair PYQs with Other Study Material for MHT CET 2027

Click on the link to practise problems and time management skills:

Resource	Link
MHT CET Sample Paper	Check Here
MHT CET Mock Test	Check Here

Question Style in MHT CET Electromagnetic Induction PYQs

Every question in this PDF is a single-correct MCQ. About half are on self or mutual inductance, and the rest are on induced emf.

Question Style	What it Tests
Self-inductance	An air-core inductor of 0.03 mH and the change when an iron core is inserted, and two coils with self-inductances L and 3L whose currents change at the same rate
Energy stored	The magnetic energy stored in an inductor of 4 H carrying a current of 1.5 A
Induced emf from changing flux	A coil of a given effective area at right angles to a field that changes, and a circular disc of radius 20 cm in a uniform field
Motional emf	The potential difference across the wings of an aeroplane of span 30 m flying north at 170 m/s
Circuits with an inductor	A circuit in which the current is 3 A and increasing at 1 A/s, and the potential difference V_AB when dI/dt = -1 A/s

How to Use the Electromagnetic Induction PYQ PDF for MHT CET

Start with the 2025 and 2026 papers first, because they hold 80 of the 186 questions.
Learn ε = -dΦ/dt, ε = Blv and U = (1/2)LI², since they settle most of the questions.
For circuits with an inductor, write the sign of dI/dt carefully before applying the loop rule.
Solve year-wise PYQs by timing yourself, as time management is crucial.
Re-attempt only the questions you got wrong, and note which formula or step you missed.

Video: Electromagnetic Induction PYQs and MCQs

Source: Ajju Sir Physics

Electromagnetic Induction PYQ for MHT CET Physics FAQs

Ques. How many questions come from Electromagnetic Induction every year?

Ans. In this PDF, the questions are 38 from 2026, 42 from 2025, 44 from 2024, 35 from 2023 and 3 from 2022 and the rest from earlier papers. In 2025 and 2026 together the chapter had 80 questions across 33 shifts, about 2.42 per shift.

Ques. Which topics are asked most frequently in MHT CET Electromagnetic Induction?

Ans. Self and mutual inductance and energy in an inductor is the largest group with 91 of the 186 questions, about 49%.

Ques. What kind of questions are asked from Electromagnetic Induction?

Ans. Single-correct MCQs, mostly numerical. Common ones ask for the emf induced in a coil or a moving rod, the self-inductance of a solenoid, or the energy stored in an inductor.

Ques. What is the best way to practise Electromagnetic Induction PYQs?

Ans. First solve the 2025 and 2026 questions completely, then the older ones, and finally re-attempt the questions you got wrong.

Ques. Can I score full marks from Electromagnetic Induction?

Ans. In 2025 and 2026 together the chapter had 80 questions across 33 shifts. Learning Faraday's law, motional emf and the inductor energy formula is enough to secure it. Each Physics question in MHT CET is worth 1 mark.

Ques. Does the Electromagnetic Induction PYQ PDF include solutions?

Ans. No. The PDF contains the questions with their exam date and shift, without answer keys or solutions.

MHT CET PYQs for Electromagnetic induction with Solutions: Practice MHT CET Previous Year Questions

Electromagnetic Induction PYQ Statistics (2022-2026)

MHT CET Electromagnetic Induction Important Questions: Based on the Last 5 Years

Pair PYQs with Other Study Material for MHT CET 2027

Question Style in MHT CET Electromagnetic Induction PYQs

How to Use the Electromagnetic Induction PYQ PDF for MHT CET

Video: Electromagnetic Induction PYQs and MCQs

Electromagnetic Induction PYQ for MHT CET Physics FAQs

1.
A long rectangular conducting loop of width $l$, mass $m$ and resistance $R$ is placed partly in a perpendicular magnetic field $B$. It is pushed downwards with velocity $V$ so that it may continue to fall freely. The velocity $V$ is

2.
Two coils P and Q are kept near each other. When current in coil Q increases at the rate 10 $A/s$, the emf in coil P is 12 mV. When current of 1.5 A flows through coil P, the magnetic flux linked with coil Q in mWb is

3.
A coil having 'n' turns and resistance 'R' is connected with a galvanometer of resistance '2R'. This combination is moved in time 't' from flux \(φ_1\) to \(φ_2\) Wb. The induced current in the circuit is

4.
The plot of magnetic flux $\phi$ versus current I is shown for two inductors $L_{1}$ and $L_{2}$. The self inductance of}

5.
Magnetic flux linked with the coil in weber is given by the equation \(\Phi = 5t^2+6t+11\). The e.m.f. induced in the coil in the \(5^{\text{th}}\) second will be

6.
A coil of 'n' turns and resistance $R \Omega$ is connected in series with a resistance $R/2$. The combination is moved for time 't' second through magnetic flux $\phi_1$ to $\phi_2$. The induced current in the circuit is ______.

7.
A conducting ring of certain resistance is falling towards a current carrying straight long conductor. The ring and conductor are in the same plane. Then

8.
The coefficient of mutual induction is $2\text{ H}$ and induced e.m.f. across secondary is $2\text{ kV}$ . Current in the primary is reduced from $6\text{ A}$ to $3\text{ A}$ . The time required for the change of current is

9.
A magnetic field $4 \times 10^{-2}$ T acts at right angles to a coil of area $100$ cm$^2$ with 50 turns. The average e.m.f. induced in the coil is 0.1 V, when it is removed from the field in time 't'. The value of 't' is ______.

10.
The magnetic flux through a coil is $4 \times 10^{-4} \text{ Wb}$ at time $t = 0$. It reduces to $30%$ of its original value in time $t$ second. If e.m.f. induced in the coil is $0.56 \text{ mV}$ then the value of $t$ is

11.
A circular coil of radius 'r' is placed on another circular coil whose radius is 'R' and the current flowing through it is changing and their centers coincide. (\(R≫r\)). If both the coils are coplanar, then the mutual inductance between them is proportional to

12.
A circular disc of radius 20 cm is placed in uniform magnetic field of induction \(\frac{7}{22} \text{Wb/m}^2\) in such a way that its axis makes an angle of \(60^{\circ}\) with \(\overset{⃗}{B}\). The magnetic flux linked with the disc is \((cos60^{\circ} = 0.5)\)

14.
The current flowing through an inductor of self-inductance L is continuously increasing at constant rate. The variation of induced e.m.f. (e) verses $\text{dI}/\text{dt}$ is shown graphically by figure}

15.
When magnetic flux changes from $6.5 \times 10^{-2}$ Wb to $11 \times 10^{-2}$ Wb and the change in current is 0.03 A, the coefficient of mutual inductance will be ______.

Comments

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Electromagnetic Induction PYQ Statistics (2022-2026)

MHT CET Electromagnetic Induction Important Questions: Based on the Last 5 Years

Pair PYQs with Other Study Material for MHT CET 2027

Question Style in MHT CET Electromagnetic Induction PYQs

How to Use the Electromagnetic Induction PYQ PDF for MHT CET

Video: Electromagnetic Induction PYQs and MCQs

Electromagnetic Induction PYQ for MHT CET Physics FAQs

1.A long rectangular conducting loop of width $l$, mass $m$ and resistance $R$ is placed partly in a perpendicular magnetic field $B$. It is pushed downwards with velocity $V$ so that it may continue to fall freely. The velocity $V$ is

2.Two coils P and Q are kept near each other. When current in coil Q increases at the rate 10 $A/s$, the emf in coil P is 12 mV. When current of 1.5 A flows through coil P, the magnetic flux linked with coil Q in mWb is

3.A coil having 'n' turns and resistance 'R' is connected with a galvanometer of resistance '2R'. This combination is moved in time 't' from flux \(φ_1\) to \(φ_2\) Wb. The induced current in the circuit is

4.The plot of magnetic flux $\phi$ versus current I is shown for two inductors $L_{1}$ and $L_{2}$. The self inductance of}

5.Magnetic flux linked with the coil in weber is given by the equation \(\Phi = 5t^2+6t+11\). The e.m.f. induced in the coil in the \(5^{\text{th}}\) second will be

6.A coil of 'n' turns and resistance $R \Omega$ is connected in series with a resistance $R/2$. The combination is moved for time 't' second through magnetic flux $\phi_1$ to $\phi_2$. The induced current in the circuit is ______.

7.A conducting ring of certain resistance is falling towards a current carrying straight long conductor. The ring and conductor are in the same plane. Then

8.The coefficient of mutual induction is $2\text{ H}$ and induced e.m.f. across secondary is $2\text{ kV}$ . Current in the primary is reduced from $6\text{ A}$ to $3\text{ A}$ . The time required for the change of current is

9.A magnetic field $4 \times 10^{-2}$ T acts at right angles to a coil of area $100$ cm$^2$ with 50 turns. The average e.m.f. induced in the coil is 0.1 V, when it is removed from the field in time 't'. The value of 't' is ______.

10.The magnetic flux through a coil is $4 \times 10^{-4} \text{ Wb}$ at time $t = 0$. It reduces to $30%$ of its original value in time $t$ second. If e.m.f. induced in the coil is $0.56 \text{ mV}$ then the value of $t$ is

11.A circular coil of radius 'r' is placed on another circular coil whose radius is 'R' and the current flowing through it is changing and their centers coincide. (\(R≫r\)). If both the coils are coplanar, then the mutual inductance between them is proportional to

12.A circular disc of radius 20 cm is placed in uniform magnetic field of induction \(\frac{7}{22} \text{Wb/m}^2\) in such a way that its axis makes an angle of \(60^{\circ}\) with \(\overset{⃗}{B}\). The magnetic flux linked with the disc is \((cos60^{\circ} = 0.5)\)

14.The current flowing through an inductor of self-inductance L is continuously increasing at constant rate. The variation of induced e.m.f. (e) verses $\text{dI}/\text{dt}$ is shown graphically by figure}

15.When magnetic flux changes from $6.5 \times 10^{-2}$ Wb to $11 \times 10^{-2}$ Wb and the change in current is 0.03 A, the coefficient of mutual inductance will be ______.

Comments

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1.
A long rectangular conducting loop of width $l$, mass $m$ and resistance $R$ is placed partly in a perpendicular magnetic field $B$. It is pushed downwards with velocity $V$ so that it may continue to fall freely. The velocity $V$ is

2.
Two coils P and Q are kept near each other. When current in coil Q increases at the rate 10 $A/s$, the emf in coil P is 12 mV. When current of 1.5 A flows through coil P, the magnetic flux linked with coil Q in mWb is

3.
A coil having 'n' turns and resistance 'R' is connected with a galvanometer of resistance '2R'. This combination is moved in time 't' from flux \(φ_1\) to \(φ_2\) Wb. The induced current in the circuit is

4.
The plot of magnetic flux $\phi$ versus current I is shown for two inductors $L_{1}$ and $L_{2}$. The self inductance of}

5.
Magnetic flux linked with the coil in weber is given by the equation \(\Phi = 5t^2+6t+11\). The e.m.f. induced in the coil in the \(5^{\text{th}}\) second will be

6.
A coil of 'n' turns and resistance $R \Omega$ is connected in series with a resistance $R/2$. The combination is moved for time 't' second through magnetic flux $\phi_1$ to $\phi_2$. The induced current in the circuit is ______.

7.
A conducting ring of certain resistance is falling towards a current carrying straight long conductor. The ring and conductor are in the same plane. Then

8.
The coefficient of mutual induction is $2\text{ H}$ and induced e.m.f. across secondary is $2\text{ kV}$ . Current in the primary is reduced from $6\text{ A}$ to $3\text{ A}$ . The time required for the change of current is

9.
A magnetic field $4 \times 10^{-2}$ T acts at right angles to a coil of area $100$ cm$^2$ with 50 turns. The average e.m.f. induced in the coil is 0.1 V, when it is removed from the field in time 't'. The value of 't' is ______.

10.
The magnetic flux through a coil is $4 \times 10^{-4} \text{ Wb}$ at time $t = 0$. It reduces to $30%$ of its original value in time $t$ second. If e.m.f. induced in the coil is $0.56 \text{ mV}$ then the value of $t$ is

11.
A circular coil of radius 'r' is placed on another circular coil whose radius is 'R' and the current flowing through it is changing and their centers coincide. (\(R≫r\)). If both the coils are coplanar, then the mutual inductance between them is proportional to

12.
A circular disc of radius 20 cm is placed in uniform magnetic field of induction \(\frac{7}{22} \text{Wb/m}^2\) in such a way that its axis makes an angle of \(60^{\circ}\) with \(\overset{⃗}{B}\). The magnetic flux linked with the disc is \((cos60^{\circ} = 0.5)\)

14.
The current flowing through an inductor of self-inductance L is continuously increasing at constant rate. The variation of induced e.m.f. (e) verses $\text{dI}/\text{dt}$ is shown graphically by figure}

15.
When magnetic flux changes from $6.5 \times 10^{-2}$ Wb to $11 \times 10^{-2}$ Wb and the change in current is 0.03 A, the coefficient of mutual inductance will be ______.