2.0. THERMAL EQUILIBRIUM AND ZEROTH LAW OF THERMODYNAMICS

1.0. HEAT AND TEMPERATURE

11.0. SPHERICAL MIRROR

12.0. RELATIONSHIP BETWEEN FOCAL LENGTH AND RADIUS OF CURVATURE

13.0. RULES FOR CONSTRUCTING RAY DIAGRAMS

14.0. CONCAVE MIRROR WITH VIRTUAL IMAGE

15.0. MIRROR FORMULA FOR CONVEX MIRROR

16.0. MAGNIFICATION

17.0. POSITION, NATURE OF SIZE OF IMAGE FROMED BY CONCAVE MIRROR

1.0. REFRACTION OF LIGHT

2.0. REAL AND APPARENT DEPTH

3.0. REFRACTION THROUGH SEVERAL PARALLEL MEDIA

4.4. LATERAL SHIFT, REAL AND APPARENT DEPTH

5.5. RELATION BETWEEN REFRACTIVE INDEX, CRITICAL ANGLE AND TOTAL INTERNAL REFLECTION

6.0. MINIMUM DEVIATION

8.0. LAW OF REFRACTION OF LIGHT AND REFRACTIVE INDEX

1.0. PRISM

2.0. MINIMUM DEVIATION

3.0. LENS FORMULA FOR VIRTUAL IMAGE BY CONVEX LENS

4.0. NUMERICAL PROBLEMS

1.0. LENS MAKER'S FORMULA

2.0. LENSES - NUMERICAL PROBLEMS

1.0. DISPERSION AND ITS CAUSES

2.0. PURE AND IMPURE SPECTRUM

5.0. CHROMATIC ABERRATION

6.0. ACHROMATISM

30.0. DISPERSION OF LIGHT -NUMERICAL PROBLEMS

2.0. HUMAN EYE

3.0. SIMPLE MICROSCOPE

4.0. TERRESTRIAL TELESCOPE

4.0. OPTICAL INSTRUMENTS - NUMERICAL PROBLEMS

5.0. OPTICAL INSTRUMENTS - COMPOUND MICROSCOPES

1.0. REAL AND APPARENT EXPANSION

2.0. DETERMINATION OF COEFFICIENT OF LINEAR EXPANSION OF A SOLID BY USING PULLINGER'S APPARATUS

3.0. DETERMINATION OF COEFFICIENT OF LINEAR EXPANSION USING DULONG AND PETIT'S METHOD

4.0. THERMAL EXPANSION OF SOLIDS

5.0. DIFFERENTIAL EXPANSION

6.0. ANAMOULOUS EXPANSION OF WATER

7.0. THERMAL EXPANSION - NUMERICAL PROBLEM

6.0. CHANGE OF PHASE AND LATENT HEAT

2.0. DETERMINATION OF SPECIFIC HEAT CAPACITY OF SOLID BY METHOD OF MIXTURE

4.0. NEWTON'S LAW OF COOLING

7.0. DETERMINATION OF LATENT HEAT OF FUSION OF ICE BY METHOD OF MIXTURE

5.0. SPECIFIC HEAT CAPACITY OF LIQUID BY METHOD OF COOLING

9.0. QUANTITY OF HEAT ENERGY - NUMERICAL PROBLEMS

8.0. DETERMINATION OF LATENT HEAT OF VAPORISATION OF WATER

1.0. BOYLE'S LAW AND CHARLES' LAW

2.0. IDEAL GAS EQUATION AND DALTON'S LAW OF PARTIAL PRESSURE

3.0. EQUALITY OF VOLUME AND PRESSURE COFFIECIENT - KINETIC THEORY OF GASES

4.0. PRESSURE EXERTED BY GAS

1.0. CONDUCTION

2.0. CONDUCTIVITY OF A METAL ROD BY SEARLE'S METHOD

3.0. BLACK BODY RADIATION

4.0. STEFAN'S LAW OF BLACK BODY RADIATION 

5.0. TRANSFER OF HEAT - NUMERICAL PROBLEMS

1.0. RUTHERFORD'S ALPHA PARTICLE SCATTERING EXPERIMENT

2.0. NUCLEUS AND ITS PROPERTIES

3.0. EINSTEIN'S MASS ENERGY EQUIVALENCE

4.0. MASS DEFECT AND BINDING ENERGY

5.0. NUCLEAR REACTION - NUCLEAR FUSION AND NUCLEAR FISSION REACTION

1.0. ELECTRIC CHARGES AND ELECTROSTATIC INDUCTION

2.0. CHARGING A BODY POSITIVELY AND NEGATIVELY BY INDUCTION, SURFACE CHARGE DENSITY, AND THE ACTION OF POINTS

1.0. CAPACITORS AND CAPACITANCE

2.0. PARALLEL PLATE CAPACITOR AND DIELECTRIC CONSTANT

3.0. SERIES AND PARALLEL COMBINATION OF CAPACITOR

4.0. SERIES AND PARALLEL COMBINATION OF RESISTANCE

5.0. SHARING OF CHARGE BETWEEN TWO CONDUCTORS

1.0. OHM'S LAW, OHMIC AND NON-OHMIC CONDUCTORS

2.0. ELECTRIC CURRENT AND SOME TERMINOLOGIES

3.0. EMF, TERMINAL POTENTIAL DIFFERENCE, INTERNAL RESISTANCE

4.0. NUMERICAL PROBLEMS

5.0. VARIATION OF RESISTANCE WITH TEMPERATURE

6.1. DRIFT VELOCITY

7.0. POTENTIAL DIVIDER CIRCUIT, RESISTER AND ITS TYPES

1.0. TYPES OF SOLIDS AND ENERGY BANDS

2.2. INTRINSIC AND EXTRINSIC SEMI-CONDUCTOR

1.0. CONSERVATION LAWS FOR ELEMENTARY PARTICLES

2.0. TERMINOLOGIES AND TYPES OF INTERACTIONS

3.0. QUARK AND QUARK MODEL

4.0. CRITICAL DENSITY

5.0. THREE GENERATION OF QUARKS AND BIG BANG THEORY

6.0. DARK MATTER AND DARK ENERGY

1.0. BLACK HOLES AND GRAVITATIONAL WAVES

1.0. GRAVITATIONAL POTENTIAL FIELD, ENERGY AND INTENSITY

1.0. INTRODUCTION-PART 1

2.0. INTRODUCTION-PART 2

1.0. INTRODUCTION AND ATOMIC VIEW OF ELASTICITY

1.1. QUANTITIES AND DIMENSIONAL ANALYSIS

1.0. APPLICATION OF CIRCULAR MOTION

1.0. FRICTIONAL FORCE