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Previous year question hub

Electrostatics and Dielectrics - Electromagnetic Fields - Electrical Engineering Previous Year Questions

Practice Electrostatics and Dielectrics - Electromagnetic Fields - Electrical Engineering previous year questions organised from real papers, with year-wise coverage and clear topic navigation.

21Papers
14Years
33Questions
1Topics

Electrostatics and Dielectrics question pattern

Every graph below is calculated only from this selection.

Questions by year

Year-wise coverage for Electrostatics and Dielectrics. Each bar uses a separate theme-derived color.

Difficulty distribution

How the classified questions are distributed by difficulty.

Easy 18 54.5%
Medium 15 45.5%

Question type distribution

MCQ, numerical, multiple-select and other formats found in these papers.

MCQ 26 78.8%
Numerical Answer Type (NAT) 6 18.2%
MSQ 1 3%

Subject weightage

Top subjects by unique question coverage.

Electrical Engineering
33 Qs

Most asked topics

Top topics across the included previous year papers.

Electromagnetic Fields
33 Qs

Subtopic coverage

Top subtopics inside this exact selection.

Electrostatics and Dielectrics
33 Qs

Paper coverage

Question coverage for the most populated papers. Every active PYP paper remains listed below.

Electrical Engineering (EE) 2024
1 Qs
Electrical Engineering (EE) 2021
2 Qs
Electrical Engineering (EE) 2020
2 Qs
Electrical Engineering (EE) 2019
1 Qs
Electrical Engineering (EE) 2018
2 Qs
Electrical Engineering (EE) 2017 [Session 2]
3 Qs
Electrical Engineering (EE) 2017 [Session 1]
1 Qs
Electrical Engineering (EE) 2016 [Session 1]
2 Qs
Electrical Engineering (EE) 2016 [Session 2]
2 Qs
Electrical Engineering (EE) 2014 [Session 3]
2 Qs
Electrical Engineering (EE) 2014 [Session 1]
1 Qs
Electrical Engineering (EE) 2014 [Session 2]
1 Qs
Electrical Engineering (EE) 2013 [Session 4]
3 Qs
Electrical Engineering (EE) 2013 [Session 3]
2 Qs
Electrical Engineering (EE) 2013 [Session 1]
1 Qs
Electrical Engineering (EE) 2013 [Session 2]
1 Qs
Electrical Engineering (EE) 2012
1 Qs
Electrical Engineering (EE) 2011
1 Qs
Electrical Engineering (EE) 2010
1 Qs
Electrical Engineering (EE) 2008
2 Qs
Electrical Engineering (EE) 2007
1 Qs

Included previous year papers

Newest papers appear first. Sort by year, question coverage or name.

PaperYear / sessionQuestions in this viewOpen
Electrical Engineering (EE) 202420241View paper
Electrical Engineering (EE) 202120212View paper
Electrical Engineering (EE) 202020202View paper
Electrical Engineering (EE) 201920191View paper
Electrical Engineering (EE) 201820182View paper
Electrical Engineering (EE) 2017 [Session 1]20171View paper
Electrical Engineering (EE) 2017 [Session 2]20173View paper
Electrical Engineering (EE) 2016 [Session 1]20162View paper
Electrical Engineering (EE) 2016 [Session 2]20162View paper
Electrical Engineering (EE) 2014 [Session 1]20141View paper
Electrical Engineering (EE) 2014 [Session 2]20141View paper
Electrical Engineering (EE) 2014 [Session 3]20142View paper
Electrical Engineering (EE) 2013 [Session 1]20131View paper
Electrical Engineering (EE) 2013 [Session 2]20131View paper
Electrical Engineering (EE) 2013 [Session 3]20132View paper
Electrical Engineering (EE) 2013 [Session 4]20133View paper
Electrical Engineering (EE) 201220121View paper
Electrical Engineering (EE) 201120111View paper
Electrical Engineering (EE) 201020101View paper
Electrical Engineering (EE) 200820082View paper
Electrical Engineering (EE) 200720071View paper

All Electrostatics and Dielectrics previous year questions

Practice every matching question in batches of 20, with every available option.

1
2007 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2007
A solid sphere made of insulating material has a radius R and has a total charge Q distributed uniformly in its volume. What is the magnitude of the electric field intensity, E, at a distance r (0 < r < R) inside the sphere?
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2
2008 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2008
A capacitor consists of two metal plates each 500 x 500 mm² and spaced 6 mm apart. The space between the metal plates is filled with a glass plate of 4 mm thickness and a layer of paper of 2 mm thickness. The relative permittivities of the glass and paper are 8 and 2 respectively. Neglecting the fringing effect, the capacitance will be (Given that ε0 = 8.85 x 10⁻¹² F/m)
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3
2008 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2008
Two point charges Q1 = 10 μC and Q2 = 20 μC are placed at coordinates (1, 1, 0) and (-1, -1, 0) respectively. The total electric flux passing through a plane z = 20 will be
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4
2010 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2010
Divergence of the three-dimensional radial vector field \( \vec{F} \) is
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5
2011 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2011
A capacitor is made with a polymeric dielectric having an \(\varepsilon_r\) of 2.26 and a dielectric breakdown strength of 50 kV/cm. The permittivity of free space is 8.85 pF/m. If the rectangular plates of the capacitor have a width of 20 cm and a length of 40 cm, then the maximum electric charge in the capacitor is
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6
2012 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2012
The direction of vector A is radially outward from the origin, with |A| = k rn where r2 = x2 + y2 + z2 and k is a constant. The value of n for which ∇·A = 0 is
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7
2013 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2013 [Session 1]
A dielectric slab with 500 mm × 500 mm cross-section is 0.4 m long. The slab is subjected to a uniform electric field of $\mathbf{E} = 6\mathbf{a}_x + 8\mathbf{a}_y$ kV/mm. The relative permittivity of the dielectric material is equal to 2. The value of constant $\epsilon_0$ is $8.85 \times 10^{-12}$ F/m. The energy stored in the dielectric in Joules is
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8
2013 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2013 [Session 2]
A dielectric slab with 500 mm × 500 mm cross-section is 0.4 m long. The slab is subjected to a uniform electric field of E = 6a_x + 8a_y kV/mm. The relative permittivity of the dielectric material is equal to 2. The value of constant ε₀ is 8.85 × 10⁻¹² F/m. The energy stored in the dielectric in Joules is
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9
2013 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2013 [Session 3]
The curl of the gradient of the scalar field defined by \( V = 2x^2 y + 3y^2 z + 4z^2 x \) is
Open complete paper
10
2013 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2013 [Session 3]
A dielectric slab with 500 mm × 500 mm cross-section is 0.4 m long. The slab is subjected to a uniform electric field of \(\mathbf{E}=6\mathbf{a_x}+8\mathbf{a_y}\) kV/mm. The relative permittivity of the dielectric material is equal to 2. The value of constant \(\epsilon_0\) is \(8.85\times10^{-12}\) F/m. The energy stored in the dielectric in Joules is
Open complete paper
11
2013 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2013 [Session 4]
Given a vector field \( \mathbf{F} = y^2 x \mathbf{a}_x - yz \mathbf{a}_y - x^2 \mathbf{a}_z \), the line integral \( \int \mathbf{F} \cdot d\mathbf{l} \) evaluated along a segment on the x-axis from \( x = 1 \) to \( x = 2 \) is
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12
2013 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2013 [Session 4]
The curl of the gradient of the scalar field defined by \(V = 2x^2 y + 3y^2 z + 4z^2 x\) is
Open complete paper
13
2013 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2013 [Session 4]
A dielectric slab with 500 mm × 500 mm cross-section is 0.4 m long. The slab is subjected to a uniform electric field of \(\mathbf{E} = 6\mathbf{a}_x + 8\mathbf{a}_y\) kV/mm. The relative permittivity of the dielectric material is equal to 2. The value of constant \(\varepsilon_0\) is \(8.85\times10^{-12}\) F/m. The energy stored in the dielectric in Joules is

Question diagram

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14
2014 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2014 [Session 1]
$C_0$ is the capacitance of a parallel plate capacitor with air as dielectric (as in figure (a)). If, half of the entire gap as shown in figure (b) is filled with a dielectric of permittivity $\varepsilon_r$, the expression for the modified capacitance is
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15
2014 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2014 [Session 2]
A parallel plate capacitor consisting two dielectric materials is shown in the figure. The middle dielectric slab is placed symmetrically with respect to the plates. If the potential difference between one of the plates and the nearest surface of dielectric interface is 2 Volts, then the ratio \(\epsilon_1 : \epsilon_2\) is

Question diagram

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16
2014 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2014 [Session 3]
A perfectly conducting metal plate is placed in x-y plane in a right handed coordinate system. A charge of +32πε0 √2 coulombs is placed at coordinate (0, 0, 2). ε0 is the permittivity of free space. Assume î, ĵ, k̂ to be unit vectors along x, y and z axes respectively. At the coordinate (√2, √2, 0), the electric field vector E⃗ (Newtons/Coulomb) will be
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17
2014 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2014 [Session 3]
A hollow metallic sphere of radius r is kept at potential of 1 Volt. The total electric flux coming out of the concentric spherical surface of radius R (> r) is
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18
2016 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2016 [Session 1]
In cylindrical coordinate system, the potential produced by a uniform ring charge is given by \(\varphi = f(r, z)\), where \(f\) is a continuous function of \(r\) and \(z\). Let \(\vec{E}\) be the resulting electric field. Then the magnitude of \(\nabla \times \vec{E}\)
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19
2016 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2016 [Session 1]
Two electric charges q and −2q are placed at (0,0) and (6,0) on the x–y plane. The equation of the zero equipotential curve in the x–y plane is
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20
2016 · Electrical Engineering · Electromagnetic Fields · Electrostatics and Dielectrics
Electrical Engineering (EE) 2016 [Session 2]
A parallel plate capacitor filled with two dielectrics is shown in the figure below. If the electric field in the region A is 4 kV/cm, the electric field in the region B, in kV/cm, is
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Showing 20 of 33 questions