1.01 What is Physics?

1.02 Scientific Method

1.03 Scope of Physics

1.04 Excitement of Physics

1.05 What lies behind the phenomenal progress of Physics

1.06 Physics, Technology and Society

1.07 Fundamental Forces in Nature – I

1.08 Fundamental Forces in Nature – II

1.09 Towards Unification of Forces

1.10 Nature of Physical Laws

2.01 Units and Measurement

2.02 The International System of Units

2.03 Measurement of Length

2.04 Measurement of Large Distances: Parallax Method

2.05 Measurement of Small Distances: Size of Molecules

2.06 Measurement of Mass

2.07 Measurement of Time

2.08 Accuracy and Precision of Instruments

2.09 Errors in Measurement

2.10 Absolute Error, Relative Error and Percentage Error: Concept

2.11 Absolute Error, Relative Error and Percentage Error: Numerical

2.12 Combination of Errors: Error of a sum or difference

2.13 Combination of Errors: Error of a product or quotient

2.14 Significant Figures – I

2.15 Rules for Arithmetic Operations with Significant Figures

2.16 Rounding off the Uncertain Digits

2.17 Rules for Determining the Uncertainty in the result of Arithmetic Calculations

2.18 Dimensions of Physical Quantities

2.19 Dimensional Analysis

2.20 Applications of Dimensional Analysis

3.01 Motion in a Straight Line

3.02 Position

3.03 Path Length and Displacement

3.04 Position Time Graph

3.05 Average Velocity and Average Speed

3.06 Numerical’s on Average Velocity and Average Speed

3.07 Instantaneous Velocity and Speed

3.08 Acceleration

3.09 Equation of Motion for constant acceleration: v=v0+at

3.10 Numericals based on v=v0+at

3.11 Equation of Motion for constant acceleration: x = v0t + ½ at2

3.12 Numericals based on x =v0t + ½ at2

3.13 Equation of motion for constant acceleration:v2= v02+2ax

3.14 Numericals based on Third Kinematic equation of motion v2= v02+2ax

3.15 Derivation of Equation of motion with the method of calculus

3.16 Applications of Kinematic Equations for uniformly accelerated motion

3.17 Relative Velocity

3.18 Numericals on Relative Velocity

4.01 Scalars and Vectors – I

4.02 Scalars and Vectors – II

4.03 Multiplication of Vectors by Real Numbers

4.04 Addition and Subtraction of Vectors – Graphical Method

4.05 Resolution of Vectors -I

4.06 Resolution of Vectors – II

4.07 Examples on Resolution of Vectors

4.08 Vector Addition – Analytical Method

4.09 Numericals on Analytical Method of Vector Addition

4.10 Addition of vectors in terms of magnitude and angle θ

4.11 Numericals on Addition of vectors in terms of magnitude and angle θ

4.12 Motion in a Plane – Position Vector and Displacement

4.13 Motion in a Plane – Velocity

4.14 Motion in a Plane – Acceleration

4.15 Motion in a Plane with Constant Acceleration

4.16 Motion in a Plane with Constant Acceleration: Numericals

4.17 Relative Velocity in Two Dimensions

4.18 Projectile Motion: Horizontal Motion, Vertical Motion, and Velocity

4.19 Projectile Motion: Equation of Path of a Projectile

4.20 Projectile Motion: tm , Tf and their Relation

5.01 Laws of Motion: Aristotle’s Fallacy

5.02 The Law of Inertia

5.03 Newton’s First Law of Motion

5.04 Newton’s Second Law of Motion – I

5.05 Newton’s Second Law of Motion – II

5.06 Newton’s Second Law of Motion: Numericals

5.07 Newton’s Third Law of Motion

5.08 Numericals on Newton’s Third Law of Motion

5.09 Law of Conservation of Momentum

5.10 Equilibrium of a Particle

5.11 Equilibrium of a Particle: Numericals

5.12 Common Forces in Mechanics

5.13 Friction: Static Friction

5.14 Friction: Kinetic Friction

5.15 Friction: Rolling Friction

5.16 Circular Motion: Motion of Car on Level Road

5.17 Circular Motion: Motion of a Car on Level Road – Numericals

5.18 Circular Motion: Motion of a Car on Banked Road

5.19 Circular Motion: Motion of a Car on Banked Road – Numerical

5.20 Solving Problems in Mechanics

6.01 The Scalar Product – Introduction

6.02 The Scalar Product – Properties

6.03 The Scalar Product – Numericals

6.04 The Work-Energy Theorem

6.05 Work

6.06 Work: Numericals

6.07 Kinetic Energy

6.08 Work Done by Variable Force

6.09 Work Energy Theorem For a Variable Force

6.10 The Concept of Potential Energy – I

6.11 The Concept of Potential Energy – II

6.12 Conservative and Non-Conservative Forces

6.13 Conservation of Mechanical Energy

6.14 Conservation of Mechanical Energy: Example

6.15 The Spring Force

6.16 Potential Energy of Spring

6.17 Potential Energy of Spring: Numericals

6.18 Various Forms of Energy: Law of Conservation of Energy

6.19 Power

6.20 Collisions: Elastic and Inelastic Collisions

7.21 Theorems of Perpendicular Axes and Parallel Axes

7.22 Kinematics of the Rotational Motion

7.23 Rotational Dynamics about a Fixed axis – I

7.24 Rotational Dynamics about a Fixed axis – II

7.25 Rotational Dynamics about a Fixed axis – III

7.26 Rotational Dynamics About a Fixed Axis: Numericals

7.27 Angular Momentum of a body rotating about a fixed axis

7.28 Rolling Motion

7.29 Kinetic Energy of Rolling Motion

8.01 Historical Introduction of Gravitation

8.02 Kepler’s Laws

8.03 Universal Law of Gravitation

8.04 The Gravitational Constant

8.05 Numericals on Universal Law of Gravitation

8.06 Acceleration due to Gravity on the surface of Earth

8.07 Acceleration due to gravity above the Earth’s surface

8.08 Acceleration due to gravity below the Earth’s surface

8.09 Acceleration due to gravity: Numericals

8.10 Gravitational Potential Energy

8.11 Escape Velocity

8.12 Earth Satellites

8.13 Energy of An Orbiting Satellite

8.14 Geostationary and Polar Satellites

8.15 Weightlessness

10.01 Fluids

10.02 Pressure in a Fluid

10.03 Pascal’s Law

10.04 Variation of Pressure with Depth

10.05 Atmospheric Pressure and Gauge Pressure

10.06 Fluid Pressure: Numericals

10.07 Hydraulic Machines

10.08 Hydraulic Machines: Numericals

10.09 Streamline Flow and Turbulent Flow

10.10 Equation of Continuity

10.11 Bernoulli’s Principle

10.12 Speed of Efflux: Torricelli’s Law

10.13 Venturi-meter

10.14 Blood Flow and Heart Attack

10.15 Dynamic Lift

10.16 Viscosity

10.17 Stokes’ Law

10.18 Viscosity and Stokes’ Law: Numericals

10.19 Reynolds Number

10.20 Surface Tension: Concept Explanation

Temperature and Heat

14.02 Measurement of Temperature

11.03 Ideal-Gas Equation and Absolute Temperature

11.04 Thermal Expansion – I

11.05 Thermal Expansion – II

11.06 Ideal Gas Equation: Numericals

11.07 Specific Heat Capacity

11.08 Specific Heat Capacity: Numericals

11.09 Calorimetry

11.10 Change of State: Solid to Liquid

11.11 Change of State: Liquid to Gas

11.12 Triple Point

11.13 Latent Heat

11.14 Change of State: Numericals

11.15 Heat Transfer: Conduction

11.16 Heat Transfer: Convection

11.17 Heat Transfer: Radiation

11.18 Heat Transfer: Numericals

11.19 Newton’s Law of Cooling – I

11.20 Newton’s Law of Cooling – II

12.01 Thermodynamics: Introduction

12.02 Thermal Equilibrium

12.03 Zeroth Law of Thermodynamics

12.04 Heat, Internal Energy and Work

12.05 First Law of Thermodynamics

12.06 Specific Heat Capacity

12.07 Specific Heat Capacity of Water

12.08 Thermodynamic State Variables and Equation of State

12.09 Thermodynamic Processes: Quasi-Static Process

12.10 Thermodynamic Processes: Isothermal Process

12.11 Thermodynamic Processes: Adiabatic Process – I

12.12 Thermodynamic Processes: Adiabatic Process – II

12.13 Thermodynamic Processes: Isochoric, Isobaric and Cyclic Processes

12.14 Heat Engines

12.15 Refrigerators and Heat Pumps

12.16 Second Law of Thermodynamics

12.17 Reversible and Irreversible Process

12.18 Carnot Engine: Concept of Carnot Cycle

12.19 Carnot Engine: Work done and Efficiency

12.20 Carnot Engine: Carnot Theorem

13.01 Kinetic Theory of Gases: Introduction

13.02 Assumptions of Kinetic Theory of Gases

13.03 Behaviour of Gases – I

13.04 Behaviour of Gases- II

13.05 Behaviour of Gases- III

13.06 Behaviour of Gases: Examples

13.07 Kinetic Theory of an Ideal Gas: Pressure of an Ideal Gas

13.08 Kinetic Interpretation of Temperature

13.09 Mean Velocity, Mean square velocity and R.M.S. Velocity

13.10 Kinetic Interpretation of Temperature: Numericals

13.11 Degrees of Freedom

13.12 Law of Equipartition of Energy

13.13 Specific Heat Capacity of Monatomic gas

13.14 Specific Heat Capacity of Diatomic gas

13.15 Specific Heat Capacity of Polyatomic gas

13.16 Specific heat capacities of Solids and Liquids

13.17 Mean Free Path

14.01 Introduction to Oscillatory Motion

14.02 Periodic and Oscillatory Motion

14.03 Period and Frequency of Oscillation

14.04 Displacement in Oscillatory Motion

14.05 Simple Harmonic Motion

14.06 Terms Related to Simple Harmonic Motion

14.07 Simple Harmonic Motion and Uniform Circular Motion

14.08 Velocity and Acceleration in Simple Harmonic Motion

14.09 Force Law for Simple Harmonic Motion

14.10 Energy in Simple Harmonic Motion – I

14.11 Energy in Simple Harmonic Motion – II

14.12 Oscillation due to Spring

14.13 The Simple Pendulum

14.14 Angular acceleration, Angular frequency and Time period of Simple Pendulum

14.15 Damped Simple Harmonic Motion

14.16 Forced Oscillations and Resonance – I

14.17 Forced Oscillations and Resonance – II

14.18 Simple Harmonic Motion: Numericals

15.01 What are Waves?

15.02 Importance of Waves

15.03 Types of Waves

15.04 Characteristics of Wave Motion

15.05 Transverse Waves

15.06 Longitudinal Waves

15.07 Displacement Equation of Progressive Wave

15.08 Important terms in wave motion -I

15.09 Important terms in wave motion -II

15.10 Equation of a progressive wave: Numerical

15.11 The Speed of the Travelling Wave

15.12 The Speed of a Transverse Wave

15.13 The Speed of a Longitudinal Wave

15.14 Comparison of speed of waves in Solid, Liquid and Gases

15.15 The Principle of Superposition of Waves

15.16 Interference

15.17 Reflection of Waves

15.18 Standing Waves or Stationary Waves

15.19 Normal Modes of Standing Waves – I

15.20 Normal Modes of Standing Waves – II