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Physics

On Line Self-Quiz

Supplementary Ex.

Simulations

1. Temperature, heat and internal energy

1.1 Calibration of thermometer (liquid-in-glass) (p. 6)
1.2 Models of solid, liquid and gas (p. 7)
1.3 Measuring specific heat capacity of water (p. 18)
1.4 Measuring specific heat capacity of metal (p. 20)

2 Transfer of heat

2.1 Conduction and particle motion (p. 36)
2.2 Convection and particle motion (p. 41)
2.3 Radiation (p. 45)

3 Change of state

3.1 Heating and cooling curve of water (p. 60)
3.2 Particle motion and change of state (p. 61)
3.3 Measuring specific latent heat of fusion of ice (p. 62)
3.4 Measuring specific latent heat of vaporization of water (p. 64)
3.5 Evaporation and particle motion (p. 69)

4 Time and displacement

4.1 Distance and displacement (p. 9)

5 Motion

5.1 Average speed and instantaneous speed (p. 21)
5.2 Displacement-time graphs (p. 30)
5.3 Velocity-time graphs (p. 31)
5.4 Motion graphs (p. 34)
5.5 Drawing your own v-t graphs (p. 34)
5.6 Studying motion using a motion sensor (p. 41)
5.7 Acceleration down a slope (p. 41)
5.8 Acceleration of free fall (p. 55)
5.9 Motion under gravity (p. 57)

6 Force and motion

6.1 Galileo's thought experiment (p. 75)
6.2 Motion under balanced forces - terminal speed (p. 83)
6.3 Friction-compensated runway (p. 87)
6.4 Force and acceleration (p. 88)
6.5 Mass and acceleration (p. 89)
6.6 Mass and weight (p. 100)
6.7 Apparent weight in a lift (p. 102)
6.8 Adding forces (p. 108)
6.9 Resolving forces (p. 111)
6.10 Navigating a spaceship (p. 124)
6.11 Moving against friction (p. 124)
6.12 Throwing a ball up (p. 124)

7 Work, energy and power

7.1 Kinetic energy (p. 142)
7.2 Gravitational potential energy (p. 145)
7.3 Energy changes in a rising/falling ball (p. 150)
7.4 Energy changes in a simple pendulum (p. 151)
7.5 Energy changes in motion on an inclined plane (p. 154)

8 Momentum

8.1 Impact of force (p. 181)
8.2 Inelastic collisions of trolleys (p. 190)
8.3 Elastic collisions of trolleys (p. 191)
8.4 'Explosion' of trolleys (p. 192)
8.5 Exploring inelastic collisions (p. 195)
8.6 Exploring elastic collisions (p. 195)
8.7 'Newton's cradle' (p. 196)
8.8 Adding mass while moving (p. 198)
8.9 Shedding mass while moving (p. 198)
8.10 Kinetic energy in inelastic collisions of trolleys (p. 199)
8.11 Kinetic energy in elastic collisions of trolleys (p. 199)
8.12 Kinetic energy in explosion of trolleys (p. 199)

9 Nature of waves

9.1 Transverse wave (p. 6)
9.2 Longitudinal wave (p. 7)
9.3 Amplitude (p. 9)
9.4 Wavelength (p. 9)
9.5 Frequency (p. 9)
9.6 Particle movement and wave motion (p. 18)

10 Properties of waves

10.1 Reflection by a straight barrier (p. 41)
10.2 Refraction across a straight interface (p. 42)
10.3 Diffraction of waves (p. 45)
10.4 Adding pulses (p. 48)
10.5 Constructive and destructive interference (p. 48)
10.6 Interference patterns (p. 52)

11 Light

11.1 Wave model and ray model of light (p. 86)
11.2 Laws of reflection (p. 89)
11.3 Laterally inverted images (p. 92)
11.4 Image formed by a plane mirror (p. 92)
11.5 Laws of refraction (p. 97)
11.6 Real and apparent depth (p. 102)
11.7 Total internal reflection (p. 105)
11.8 Refraction by a convex lens (p. 117)
11.9 Refraction by a concave lens (p. 117)
11.10 How images are formed by a convex lens (p. 120)
11.11 How images are formed by a concave lens (p. 120)
11.12 Construction rules for a convex lens (p. 124)
11.13 Images formed by a convex lens (p. 124)
11.14 Construction rules for a concave lens (p. 125)
11.15 Images formed by a concave lens (p. 125)

12 Sound

12.1 Fundamental frequency and overtones (p. 150)
12.2 Quality of sound (p. 152)

13 Electrostatics

13.1 Attraction of uncharged objects (p.5)

14 Electric circuits

14.1 Model of a simple circuit (p.32)
14.2 Energy changes in a circuit (p.33)
14.3 Reading an ammeter and a voltmeter (p.34)
14.4 Ohm's law (p.39)
14.5 Resistance of a metal wire (p.41)
14.6 Parallel and series combinations (p.47)

15 Electricity in the home

15.1 Alternating current (p.74)

16 Electromagnetism

16.1 Turning effect on a coil (p.127)
16.2 Simple d.c. motor (p.128)

17 Electromagnetic induction

17.1 Induced current in a rotating coil (p.151)
17.2 Simple a.c. generator (p.152)
17.3 Simple d.c. generator (p.153)
17.4 Mutual inductance (p.159)
17.5 Simple transformer (p.160)

18 Radiation and radioactivity

18.1 Penetrating power (p.206)

19 Atomic structure and radioactive decay

19.1 Rutherford-Bohr model of the atom (p.227)
19.2 Radioactive decay (p.232)
19.3 Radioactive decay and half-life (p.237)

20 Nuclear energy

20.1 Nuclear fission and chain reaction (p.254)
20.2 Nuclear fusion (p.256)
20.3 Nuclear reactor (p.259)

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