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Abhimanyu Kumar Class 10 trainer in Varanasi

Abhimanyu Kumar

Mechanical engineer with 2 years of teaching experience

Chaukaghat, Varanasi, India - 221002.

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Overview

I am a engineer.i am giving home Tuition since last 2 years. I have a degree in mechanical engineering. my teaching skills is different from the other. I start from basic to advance level.
I am passionate about teaching. I can give a lot to the student. My aim is to always provide quality content

Languages Spoken

Hindi Mother Tongue (Native)

English Proficient

Education

Aktu 2018

Bachelor of Technology (B.Tech.)

Address

Chaukaghat, Varanasi, India - 221002

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Teaches

Class 10 Tuition
3 Students

Class Location

Online (video chat via skype, google hangout etc)

Student's Home

Tutor's Home

Years of Experience in Class 10 Tuition

2

Board

ICSE, CBSE, State

CBSE Subjects taught

Science, Mathematics, Computer Practices

ICSE Subjects taught

Physics, Mathematics

Taught in School or College

No

State Syllabus Subjects taught

Mathematics, Science

Class 11 Tuition
3 Students

Class Location

Online (video chat via skype, google hangout etc)

Student's Home

Tutor's Home

Years of Experience in Class 11 Tuition

1

Board

ISC/ICSE, State, CBSE

ISC/ICSE Subjects taught

Mathematics, Computer Science, Physics

CBSE Subjects taught

Computer Science, Mathematics, Physics

Taught in School or College

No

State Syllabus Subjects taught

Computer Science, Physics, Mathematics

Class 12 Tuition
3 Students

Class Location

Online (video chat via skype, google hangout etc)

Student's Home

Tutor's Home

Years of Experience in Class 12 Tuition

2

Board

ISC/ICSE, State, CBSE

ISC/ICSE Subjects taught

Mathematics, Physics

CBSE Subjects taught

Mathematics, Physics

Taught in School or College

No

State Syllabus Subjects taught

Physics, Mathematics

BTech Tuition
3 Students

Class Location

Online (video chat via skype, google hangout etc)

Student's Home

Tutor's Home

Years of Experience in BTech Tuition

1

BTech Mechanical subjects

Composites: Mechanics & Processing, Internal Combustion Engines and Emissions, Material Science and Metallurgy, Analysis and Design of Machine Components, Welding Technology, Heat & Mass Transfer, Strength of Materials, Operations Research, Fluid Mechanics, Mechanics of Machines, Kinematics of Machinery, Destructive & Non Destructive Testing/ Fracture Mechanics, Thermodynamics, Machine Design, Manufacturing Technology

BTech Branch

BTech Mechanical Engineering

Type of class

Crash Course, Regular Classes

Class strength catered to

Group Classes, One on one/ Private Tutions

Taught in School or College

No

BSc Tuition
3 Students

Class Location

Online (video chat via skype, google hangout etc)

Student's Home

Tutor's Home

Years of Experience in BSc Tuition

2

BSc Physics Subjects

Quantum Mechanics, Nuclear and Particle Physics, Mechanics, Statistical Physics, Thermal Physics, Solid State Physics, Numerical Analysis, Optics, Mathematical Physics, Electricity and Magnetism, Atomic and Molecular Physics, Mathematics

BSc Computer Science Subjects

Operational Research

Type of class

Crash Course, Regular Classes

Class strength catered to

Group Classes, One on one/ Private Tutions

Taught in School or College

No

BSc Branch

BSc Physics, BSc Computer Science, BSc Mathematics

BSc Mathematics Subjects

Calculus, Differential Equations and Mathematical Modelling, Probability and Statistics, Mechanics, Number Theory, Physics, Algebra, Numerical Methods and Programming

Reviews (1)

5 out of 5 1 review

Abhimanyu Kumar https://p.urbanpro.com/tv-prod/member/photo/6778184-small.jpg Chaukaghat
5.0051
Abhimanyu Kumar
A

Class 11 Tuition

"Best teacher you will get. His tips and tricks for concepts of physics are awesome. Great Teacher. Thank you very much for your support. Highly recommend. "

Have you attended any class with Abhimanyu?

FAQs

1. Which school boards of Class 10 do you teach for?

ICSE, CBSE and State

2. Do you have any prior teaching experience?

No

3. Which classes do you teach?

I teach BSc Tuition, BTech Tuition, Class 10 Tuition, Class 11 Tuition and Class 12 Tuition Classes.

4. Do you provide a demo class?

Yes, I provide a free demo class.

5. How many years of experience do you have?

I have been teaching for 2 years.

Answers by Abhimanyu (8)

Answered on 21/10/2019 Learn CBSE/Class 12/Science/Physics/Unit 1-Electrostatics/ELECTROSTATIC POTENTIAL AND CAPACITANCE/NCERT Solutions/Exercise 2

We know, capacitance = dielectric constant × C₀C = KC₀ = 6 × 18pF = 108pF (a) if the voltage supply remained connected , then the potential difference across the capacitor will remain the same. e.g., V = 100V and hence, charge on the capacitor becomes Q = CV = 108pF × 100VQ = 108 ×... ...more

We know, capacitance = dielectric constant × C₀
C = KC₀ = 6 × 18pF = 108pF [ see question - 2.8]
(a) if the voltage supply remained connected , then the potential difference across the capacitor will remain the same. e.g., V = 100V and hence, charge on the capacitor becomes Q = CV = 108pF × 100V
Q = 108 × 10⁻¹² × 100 = 1.08 × 10⁻⁸ C

(b) if the voltage supply was disconnected , then charge on the capacitor reamins the same. e.g., Q = 1.8 × 10⁻⁹C [ see question - 2.8]
And hence the potential difference across the capacitor becomes
V = Q/C = 1.8 × 10⁻⁹/1.08 × 10⁻¹⁰ = 16.6V

 

Answers 6 Comments
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Answered on 18/10/2019 Learn CBSE/Class 12/Science/Physics/Unit 1-Electrostatics/ELECTROSTATIC POTENTIAL AND CAPACITANCE/NCERT Solutions/Exercise 2

A regular hexagon ABCDEF of side 10cm has a charge 5 μC at each of its vertices as shown in the figure.Potential due to charge placed at A, at the centre is Kq/rPotential due to charge placed at B, at the centre is Kq/rPotential due to Charge placed at F , at centre is Kq/rso, total potential at centre... ...more

A regular hexagon ABCDEF of side 10cm has a charge 5 μC at each of its vertices as shown in the figure.
Potential due to charge placed at A, at the centre is Kq/r
Potential due to charge placed at B, at the centre is Kq/r

Potential due to Charge placed at F , at centre is Kq/r
so, total potential at centre of regular hexagon , V = V₁ + V₂ + V₃ + V₄ + V₅ + V₆
so, V = kq/r + kq/r + kq/r + kq/r + kq/r + Kq/r
V = 6kq/r
Hence, k = 9 × 10⁹Nm²/C² , q = 5 × 10⁻⁶C and r = 10cm = 0.1 m
Now, V = 6 × 9 × 10⁹ × 5 × 10⁻⁶/0.1 = 2.7 × 10⁶ Volts.

Answers 6 Comments
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Answered on 18/10/2019 Learn CBSE/Class 12/Science/Physics/Unit 1-Electrostatics/ELECTROSTATIC POTENTIAL AND CAPACITANCE/NCERT Solutions/Exercise 2

initially d, therefore, C= EA/d=8 -(1) now d1=d/2, and dielectric is put, therefore C1=KEA/d1. -(2) here k=6 which is dielectric constant we know d1=d/2 substituting it in (1) C1=6EA/(d/2)=12EA/d. -(3) (3)÷(1) C1÷8=12EA/d÷EA/d C1=96 uF ...more

initially d,

therefore, C= EA/d=8 -(1)

now d1=d/2, and dielectric is put,

therefore C1=KEA/d1. -(2) here k=6 which is dielectric constant

we know d1=d/2 substituting it in (1)

C1=6EA/(d/2)=12EA/d. -(3)

(3)÷(1)

C1÷8=12EA/d÷EA/d

C1=96 uF

 

Answers 5 Comments
Dislike Bookmark

Answered on 18/10/2019 Learn CBSE/Class 12/Science/Physics/Unit 1-Electrostatics/ELECTROSTATIC POTENTIAL AND CAPACITANCE/NCERT Solutions/Exercise 2

a) We know, charge have nature to reside outer surface of the conductor. It means, charge inside the surface equals zero.According to Gaussian theorem,Ф = q/ε ₀, here q is charged inclosed the Gaussian surface.∵ q = 0so, Ф = 0 and flux , Ф = E.A = 0so, E = 0Hence, inside the sphere, the electric... ...more

a) We know, charge have nature to reside outer surface of the conductor. It means, charge inside the surface equals zero.
According to Gaussian theorem,
Ф = q/ε ₀, here q is charged inclosed the Gaussian surface.
∵ q = 0
so, Ф = 0 and flux , Ф = E.A = 0
so, E = 0
Hence, inside the sphere, the electric field equals zero.
(b) Take a Gaussian surface of radius r > R = 12cm
then, charged inclosed into the Gaussian surface is q = 1.6 × 10⁻⁷ C
So, Ф = q/ε₀
So, EA = q/ε₀
E = q/ε₀A, here A is the surface area of Gaussian spherical surface
e.g., A = 4πr²
So, E = q/4πε₀r² = 9 × 10⁹ × 1.6 × 10⁻⁷/(12 × 10⁻²)²
= 10⁵ N/C
(C) Similarly explanation of (B),
So, E = kq/r²
Here , k = 9 × 10⁹ Nm²/C² , q = 1.6 × 10⁻⁷C and r = 18cm
So, E = 9 × 10⁹ × 1.6 × 10⁻⁷/(18 × 10⁻²)²
= 4.44 × 10⁴ N/C.

Answers 6 Comments
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Answered on 18/10/2019 Learn CBSE/Class 12/Science/Physics/Unit 1-Electrostatics/ELECTROSTATIC POTENTIAL AND CAPACITANCE/NCERT Solutions/Exercise 2

(a) an equipotential surface is a plane on which potential is zero everywhere.This plane is normal to the plane in which two point charges are placed.Let normal plane be placed at C of x distance from +2μC charge.Then, potential due to 2μC + potential due to -2μC = 0Kq/x + k(-q)/(6 - x) = 0x... ...more

(a) an equipotential surface is a plane on which potential is zero everywhere.
This plane is normal to the plane in which two point charges are placed.
Let normal plane be placed at C of x distance from +2μC charge.
Then, potential due to 2μC + potential due to -2μC = 0
Kq/x + k(-q)/(6 - x) = 0
x = 3 cm
Hence, the equipotential surface of the system appears at midpoint of the system of two given charges, and it is normal to the plane of charges.
(B) we know, the direction of the electric field from positive to negative charge.
So, the direction of the electric field at every point on the surface is normal to the plane in the direction AB.
 

Answers 12 Comments
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Teaches

Class 10 Tuition
3 Students

Class Location

Online (video chat via skype, google hangout etc)

Student's Home

Tutor's Home

Years of Experience in Class 10 Tuition

2

Board

ICSE, CBSE, State

CBSE Subjects taught

Science, Mathematics, Computer Practices

ICSE Subjects taught

Physics, Mathematics

Taught in School or College

No

State Syllabus Subjects taught

Mathematics, Science

Class 11 Tuition
3 Students

Class Location

Online (video chat via skype, google hangout etc)

Student's Home

Tutor's Home

Years of Experience in Class 11 Tuition

1

Board

ISC/ICSE, State, CBSE

ISC/ICSE Subjects taught

Mathematics, Computer Science, Physics

CBSE Subjects taught

Computer Science, Mathematics, Physics

Taught in School or College

No

State Syllabus Subjects taught

Computer Science, Physics, Mathematics

Class 12 Tuition
3 Students

Class Location

Online (video chat via skype, google hangout etc)

Student's Home

Tutor's Home

Years of Experience in Class 12 Tuition

2

Board

ISC/ICSE, State, CBSE

ISC/ICSE Subjects taught

Mathematics, Physics

CBSE Subjects taught

Mathematics, Physics

Taught in School or College

No

State Syllabus Subjects taught

Physics, Mathematics

BTech Tuition
3 Students

Class Location

Online (video chat via skype, google hangout etc)

Student's Home

Tutor's Home

Years of Experience in BTech Tuition

1

BTech Mechanical subjects

Composites: Mechanics & Processing, Internal Combustion Engines and Emissions, Material Science and Metallurgy, Analysis and Design of Machine Components, Welding Technology, Heat & Mass Transfer, Strength of Materials, Operations Research, Fluid Mechanics, Mechanics of Machines, Kinematics of Machinery, Destructive & Non Destructive Testing/ Fracture Mechanics, Thermodynamics, Machine Design, Manufacturing Technology

BTech Branch

BTech Mechanical Engineering

Type of class

Crash Course, Regular Classes

Class strength catered to

Group Classes, One on one/ Private Tutions

Taught in School or College

No

BSc Tuition
3 Students

Class Location

Online (video chat via skype, google hangout etc)

Student's Home

Tutor's Home

Years of Experience in BSc Tuition

2

BSc Physics Subjects

Quantum Mechanics, Nuclear and Particle Physics, Mechanics, Statistical Physics, Thermal Physics, Solid State Physics, Numerical Analysis, Optics, Mathematical Physics, Electricity and Magnetism, Atomic and Molecular Physics, Mathematics

BSc Computer Science Subjects

Operational Research

Type of class

Crash Course, Regular Classes

Class strength catered to

Group Classes, One on one/ Private Tutions

Taught in School or College

No

BSc Branch

BSc Physics, BSc Computer Science, BSc Mathematics

BSc Mathematics Subjects

Calculus, Differential Equations and Mathematical Modelling, Probability and Statistics, Mechanics, Number Theory, Physics, Algebra, Numerical Methods and Programming

5 out of 5 1 review

Abhimanyu Kumar
A

Class 11 Tuition

"Best teacher you will get. His tips and tricks for concepts of physics are awesome. Great Teacher. Thank you very much for your support. Highly recommend. "

Have you attended any class with Abhimanyu?

Answers by Abhimanyu Kumar (8)

Answered on 21/10/2019 Learn CBSE/Class 12/Science/Physics/Unit 1-Electrostatics/ELECTROSTATIC POTENTIAL AND CAPACITANCE/NCERT Solutions/Exercise 2

We know, capacitance = dielectric constant × C₀C = KC₀ = 6 × 18pF = 108pF (a) if the voltage supply remained connected , then the potential difference across the capacitor will remain the same. e.g., V = 100V and hence, charge on the capacitor becomes Q = CV = 108pF × 100VQ = 108 ×... ...more

We know, capacitance = dielectric constant × C₀
C = KC₀ = 6 × 18pF = 108pF [ see question - 2.8]
(a) if the voltage supply remained connected , then the potential difference across the capacitor will remain the same. e.g., V = 100V and hence, charge on the capacitor becomes Q = CV = 108pF × 100V
Q = 108 × 10⁻¹² × 100 = 1.08 × 10⁻⁸ C

(b) if the voltage supply was disconnected , then charge on the capacitor reamins the same. e.g., Q = 1.8 × 10⁻⁹C [ see question - 2.8]
And hence the potential difference across the capacitor becomes
V = Q/C = 1.8 × 10⁻⁹/1.08 × 10⁻¹⁰ = 16.6V

 

Answers 6 Comments
Dislike Bookmark

Answered on 18/10/2019 Learn CBSE/Class 12/Science/Physics/Unit 1-Electrostatics/ELECTROSTATIC POTENTIAL AND CAPACITANCE/NCERT Solutions/Exercise 2

A regular hexagon ABCDEF of side 10cm has a charge 5 μC at each of its vertices as shown in the figure.Potential due to charge placed at A, at the centre is Kq/rPotential due to charge placed at B, at the centre is Kq/rPotential due to Charge placed at F , at centre is Kq/rso, total potential at centre... ...more

A regular hexagon ABCDEF of side 10cm has a charge 5 μC at each of its vertices as shown in the figure.
Potential due to charge placed at A, at the centre is Kq/r
Potential due to charge placed at B, at the centre is Kq/r

Potential due to Charge placed at F , at centre is Kq/r
so, total potential at centre of regular hexagon , V = V₁ + V₂ + V₃ + V₄ + V₅ + V₆
so, V = kq/r + kq/r + kq/r + kq/r + kq/r + Kq/r
V = 6kq/r
Hence, k = 9 × 10⁹Nm²/C² , q = 5 × 10⁻⁶C and r = 10cm = 0.1 m
Now, V = 6 × 9 × 10⁹ × 5 × 10⁻⁶/0.1 = 2.7 × 10⁶ Volts.

Answers 6 Comments
Dislike Bookmark

Answered on 18/10/2019 Learn CBSE/Class 12/Science/Physics/Unit 1-Electrostatics/ELECTROSTATIC POTENTIAL AND CAPACITANCE/NCERT Solutions/Exercise 2

initially d, therefore, C= EA/d=8 -(1) now d1=d/2, and dielectric is put, therefore C1=KEA/d1. -(2) here k=6 which is dielectric constant we know d1=d/2 substituting it in (1) C1=6EA/(d/2)=12EA/d. -(3) (3)÷(1) C1÷8=12EA/d÷EA/d C1=96 uF ...more

initially d,

therefore, C= EA/d=8 -(1)

now d1=d/2, and dielectric is put,

therefore C1=KEA/d1. -(2) here k=6 which is dielectric constant

we know d1=d/2 substituting it in (1)

C1=6EA/(d/2)=12EA/d. -(3)

(3)÷(1)

C1÷8=12EA/d÷EA/d

C1=96 uF

 

Answers 5 Comments
Dislike Bookmark

Answered on 18/10/2019 Learn CBSE/Class 12/Science/Physics/Unit 1-Electrostatics/ELECTROSTATIC POTENTIAL AND CAPACITANCE/NCERT Solutions/Exercise 2

a) We know, charge have nature to reside outer surface of the conductor. It means, charge inside the surface equals zero.According to Gaussian theorem,Ф = q/ε ₀, here q is charged inclosed the Gaussian surface.∵ q = 0so, Ф = 0 and flux , Ф = E.A = 0so, E = 0Hence, inside the sphere, the electric... ...more

a) We know, charge have nature to reside outer surface of the conductor. It means, charge inside the surface equals zero.
According to Gaussian theorem,
Ф = q/ε ₀, here q is charged inclosed the Gaussian surface.
∵ q = 0
so, Ф = 0 and flux , Ф = E.A = 0
so, E = 0
Hence, inside the sphere, the electric field equals zero.
(b) Take a Gaussian surface of radius r > R = 12cm
then, charged inclosed into the Gaussian surface is q = 1.6 × 10⁻⁷ C
So, Ф = q/ε₀
So, EA = q/ε₀
E = q/ε₀A, here A is the surface area of Gaussian spherical surface
e.g., A = 4πr²
So, E = q/4πε₀r² = 9 × 10⁹ × 1.6 × 10⁻⁷/(12 × 10⁻²)²
= 10⁵ N/C
(C) Similarly explanation of (B),
So, E = kq/r²
Here , k = 9 × 10⁹ Nm²/C² , q = 1.6 × 10⁻⁷C and r = 18cm
So, E = 9 × 10⁹ × 1.6 × 10⁻⁷/(18 × 10⁻²)²
= 4.44 × 10⁴ N/C.

Answers 6 Comments
Dislike Bookmark

Answered on 18/10/2019 Learn CBSE/Class 12/Science/Physics/Unit 1-Electrostatics/ELECTROSTATIC POTENTIAL AND CAPACITANCE/NCERT Solutions/Exercise 2

(a) an equipotential surface is a plane on which potential is zero everywhere.This plane is normal to the plane in which two point charges are placed.Let normal plane be placed at C of x distance from +2μC charge.Then, potential due to 2μC + potential due to -2μC = 0Kq/x + k(-q)/(6 - x) = 0x... ...more

(a) an equipotential surface is a plane on which potential is zero everywhere.
This plane is normal to the plane in which two point charges are placed.
Let normal plane be placed at C of x distance from +2μC charge.
Then, potential due to 2μC + potential due to -2μC = 0
Kq/x + k(-q)/(6 - x) = 0
x = 3 cm
Hence, the equipotential surface of the system appears at midpoint of the system of two given charges, and it is normal to the plane of charges.
(B) we know, the direction of the electric field from positive to negative charge.
So, the direction of the electric field at every point on the surface is normal to the plane in the direction AB.
 

Answers 12 Comments
Dislike Bookmark

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Abhimanyu Kumar describes himself as Mechanical engineer with 2 years of teaching experience. He conducts classes in BSc Tuition, BTech Tuition and Class 10 Tuition. Abhimanyu is located in Chaukaghat, Varanasi. Abhimanyu takes at students Home. He has 2 years of teaching experience . Abhimanyu has completed Bachelor of Technology (B.Tech.) from Aktu in 2018. He is well versed in English and Hindi. Abhimanyu has got 1 reviews till now with 100% positive feedback.

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