MHT CET PYQs for Electric Field with Solutions: Practice MHT CET Previous Year Questions

Electric Field is a topic from the Electrostatics chapter of Class 12 Physics, and it is part of the Physics section of the MHT CET for candidates who are preparing for the PCM (Physics, Chemistry, and Mathematics).

The key topics covered in Electric Field PYQs are:

Potential energy of a system of two point charges
Work done in moving a charge
Coulomb's law

Practising Electric Field 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 less than 1 mark per paper by covering Electric Field. The chapter recorded 1 question across the 80 shifts in the data, and 1 of them came in the 2025 and 2026 papers, where it contributed about 0.1% per shift.

MHT CET Electric Field Chapter: Question Count, Marks and Weightage:

0.01 Average questions per shift (2018-2026)	1 Questions in the 2025 and 2026 papers (33 shifts)
1 Questions in the PDF (2026-2026)	0.0% Estimated Physics paper weightage (0.1% in 2025-2026)

The PDF holds 1 questions from MHT CET 2026 to 2026, newest first, each with its exam date and shift. Options are as printed and answer keys are not included.

Electric Field PYQ Statistics (2022-2026)

The table below shows the number of questions asked in MHT CET Electric Field 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	1	16	0.06	0.1%
2025	0	17	0.00	0.0%
2024	0	18	0.00	0.0%
2023	0	12	0.00	0.0%
2022	0	1	0.00	0.0%

The 2018 to 2021 papers in the PDF add 0 more questions: 2021 had none, 2020 had none, 2019 had none, 2018 had none.

MHT CET Electric Field Important Questions: Based on the Last 5 Years

The major types of questions asked from Electric Field in MHT CET cover the following topics:

Topic	Questions in the PDF	Questions in 2022-2026	Average per Shift (2022-2026)
Increase in potential energy when a point charge is moved	1	1	0.02

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 Electric Field PYQs

The single question in this PDF is a single-correct MCQ with a numerical answer.

Question Style	What it Tests
Potential energy of two charges	Two charges of 6 μC and 4 μC placed 10 cm apart in air, and the increase in potential energy of the system when one charge is moved

How to Use the Electric Field PYQ PDF for MHT CET

Start with the 2025 and 2026 papers first, because they hold 1 of the 1 questions.
Use U = kq₁q₂/r for the initial and final positions and subtract them.
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: Electric Field PYQs and MCQs

Source: Physics Paathshaala

Electric Field PYQ for MHT CET Physics FAQs

Ques. How many questions come from Electric Field every year?

Ans. In this PDF, the question is from 2026. In 2025 and 2026 together the chapter had 1 question across 33 shifts, about 0.03 per shift.

Ques. Which topics are asked most frequently in MHT CET Electric Field?

Ans. Increase in potential energy when a point charge is moved is the largest group with 1 of the 1 questions.

Ques. What kind of questions are asked from Electric Field?

Ans. A numerical question on the change in electrostatic potential energy of two point charges when one of them is moved.

Ques. What is the best way to practise Electric Field 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 Electric Field?

Ans. In 2025 and 2026 together the chapter had 1 question across 33 shifts. Learning U = kq₁q₂/r is enough to secure it. Each Physics question in MHT CET is worth 1 mark.

Ques. Does the Electric Field 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 Electric Field with Solutions: Practice MHT CET Previous Year Questions

Electric Field PYQ Statistics (2022-2026)

MHT CET Electric Field Important Questions: Based on the Last 5 Years

Pair PYQs with Other Study Material for MHT CET 2027

Question Style in MHT CET Electric Field PYQs

How to Use the Electric Field PYQ PDF for MHT CET

Video: Electric Field PYQs and MCQs

Electric Field PYQ for MHT CET Physics FAQs

1.
Two charged metallic spheres are joined by a very thin metal wire. If the radius of the larger sphere is four times that of the smaller sphere, the electric field near the larger sphere is

2.
The electric potential '$V$' is given as a function of distance '$x$' (metre) by $V = (4x^2 + 8x - 3)V$. The value of electric field at $x = 0.5 \text{ m}$, in $\text{V/m}$ is

3.
\( \sigma \) is the uniform surface charge density of a thin spherical shell of radius \( R \). The electric field at any point on the surface of the spherical shell is:

4.
A charged particle of mass '$m$' and charge '$q$' is at rest. It is accelerated in a uniform electric field of intensity '$E$' for time '$t$'. The kinetic energy of the particles after time $t$ is

5.
The electric potential '$V$' is given as a function of distance '$x$' (metre) by $V = (4x^2 + 8x - 3)V$. The value of electric field at $x = 0.5 \text{ m}$, in $\text{V/m}$ is

7.
A charged particle of mass '$m$' and charge '$q$' is at rest. It is accelerated in a uniform electric field of intensity '$E$' for time '$t$'. The kinetic energy of the particles after time $t$ is

8.
A metallic sphere of radius \( R \) is charged to a potential \( V \). The magnitude of the electric field at a distance \( r \, (r > R) \) from the center of the sphere is:

9.
Point charges +q, -q, -q, q, +Q and -q are at the vertices of a hexagon. The E-field at O due to A, B, C, D, F is twice the field due to +Q at E. The value of Q is:

10.
For a uniformly charged plane sheet, the variation of electric field (E) with distance (d) is correctly shown graphically in graph

11.
A charge of magnitude '2e' and mass '4m' is moving in an electric field $\vec{E}$. The acceleration imparted to the above charge is

13.
A charge of \( 2 \, \mu\text{C} \) is placed in an electric field of intensity \( 4 \times 10^3 \, \text{N/C} \). What is the force experienced by the charge?

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Electric Field PYQ Statistics (2022-2026)

MHT CET Electric Field Important Questions: Based on the Last 5 Years

Pair PYQs with Other Study Material for MHT CET 2027

Question Style in MHT CET Electric Field PYQs

How to Use the Electric Field PYQ PDF for MHT CET

Video: Electric Field PYQs and MCQs

Electric Field PYQ for MHT CET Physics FAQs

1.Two charged metallic spheres are joined by a very thin metal wire. If the radius of the larger sphere is four times that of the smaller sphere, the electric field near the larger sphere is

2.The electric potential '$V$' is given as a function of distance '$x$' (metre) by $V = (4x^2 + 8x - 3)V$. The value of electric field at $x = 0.5 \text{ m}$, in $\text{V/m}$ is

3.\( \sigma \) is the uniform surface charge density of a thin spherical shell of radius \( R \). The electric field at any point on the surface of the spherical shell is:

4.A charged particle of mass '$m$' and charge '$q$' is at rest. It is accelerated in a uniform electric field of intensity '$E$' for time '$t$'. The kinetic energy of the particles after time $t$ is

5.The electric potential '$V$' is given as a function of distance '$x$' (metre) by $V = (4x^2 + 8x - 3)V$. The value of electric field at $x = 0.5 \text{ m}$, in $\text{V/m}$ is

7.A charged particle of mass '$m$' and charge '$q$' is at rest. It is accelerated in a uniform electric field of intensity '$E$' for time '$t$'. The kinetic energy of the particles after time $t$ is

8.A metallic sphere of radius \( R \) is charged to a potential \( V \). The magnitude of the electric field at a distance \( r \, (r > R) \) from the center of the sphere is:

9.Point charges +q, -q, -q, q, +Q and -q are at the vertices of a hexagon. The E-field at O due to A, B, C, D, F is twice the field due to +Q at E. The value of Q is:

10.For a uniformly charged plane sheet, the variation of electric field (E) with distance (d) is correctly shown graphically in graph

11.A charge of magnitude '2e' and mass '4m' is moving in an electric field $\vec{E}$. The acceleration imparted to the above charge is

13.A charge of \( 2 \, \mu\text{C} \) is placed in an electric field of intensity \( 4 \times 10^3 \, \text{N/C} \). What is the force experienced by the charge?

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1.
Two charged metallic spheres are joined by a very thin metal wire. If the radius of the larger sphere is four times that of the smaller sphere, the electric field near the larger sphere is

2.
The electric potential '$V$' is given as a function of distance '$x$' (metre) by $V = (4x^2 + 8x - 3)V$. The value of electric field at $x = 0.5 \text{ m}$, in $\text{V/m}$ is

3.
\( \sigma \) is the uniform surface charge density of a thin spherical shell of radius \( R \). The electric field at any point on the surface of the spherical shell is:

4.
A charged particle of mass '$m$' and charge '$q$' is at rest. It is accelerated in a uniform electric field of intensity '$E$' for time '$t$'. The kinetic energy of the particles after time $t$ is

5.
The electric potential '$V$' is given as a function of distance '$x$' (metre) by $V = (4x^2 + 8x - 3)V$. The value of electric field at $x = 0.5 \text{ m}$, in $\text{V/m}$ is

7.
A charged particle of mass '$m$' and charge '$q$' is at rest. It is accelerated in a uniform electric field of intensity '$E$' for time '$t$'. The kinetic energy of the particles after time $t$ is

8.
A metallic sphere of radius \( R \) is charged to a potential \( V \). The magnitude of the electric field at a distance \( r \, (r > R) \) from the center of the sphere is:

9.
Point charges +q, -q, -q, q, +Q and -q are at the vertices of a hexagon. The E-field at O due to A, B, C, D, F is twice the field due to +Q at E. The value of Q is:

10.
For a uniformly charged plane sheet, the variation of electric field (E) with distance (d) is correctly shown graphically in graph

11.
A charge of magnitude '2e' and mass '4m' is moving in an electric field $\vec{E}$. The acceleration imparted to the above charge is

13.
A charge of \( 2 \, \mu\text{C} \) is placed in an electric field of intensity \( 4 \times 10^3 \, \text{N/C} \). What is the force experienced by the charge?