1. Oscillations
Description: Explanation of periodic motion and oscillatory motion.
Core Concepts: Oscillations.
Link: Video on Oscillation
2. Oscillations
Description: Description on motion of simple oscillating system(displacement, velocity and acceleration); Relation between simple harmonic motion and uniform circular motion.
Core Concepts: Oscillations.
3. Energy in Simple Harmonic Motion
Description: Explanation of energy in simple harmonic motion: Block- spring system.
Core Concepts: Oscillations.
Link: Simulation on simple harmonic motion: Mass on a spring
4. Motion of a simple pendulum
Description: Experimentation on simple pendulum to determine the oscillations.
Core Concepts: Oscillations.
5. Forced oscillation and resonance
Description: Explanation of concept of resonance through experimentation.
Core Concepts: Newtonian mechanics: Oscillations.
6. Falling body
Description: Explanation on motion of bodies falling in a uniform gravitational field with fluid resistance.
Core Concepts: Fluid mechanics: Surface tension.
7. Surface tension
Description: Explanation of surface tension.
Core Concepts: Fluid mechanics: Surface tension.
8. Viscosity of fluids
Description: This video contains experiment to measure the viscosity of different fluids.
Core Concepts: Fluid mechanics: Viscosity of fluids.
9. Bernoulli’s Principle
Description: Verification of Bernoulli’s principle through simulation.
Core Concepts: Fluid mechanics: Viscosity of fluids.
Link: Simulation on fluid dynamics and the Bernoulli equation
10. Gas laws
Description: Explanation of Boyle’s law and Charles’ law.
Core Concepts: Kinetic theory of gases: Behaviour of gases.
Link: Simulation on gas law
11. Ideal Gas
Description: Explains the difference between real gas and ideal gas.
Core Concepts: Kinetic theory of gases: Behaviour of gases.
12. Pressure of an ideal gas
Description: Derivation of kinetic gas equation.
Core Concepts: Kinetic theory of gases: Kinetic theory of an ideal gas.
13. Coulomb’s law
Description: Derivation and explanation of Coulomb’s law.
Core Concepts: Electricity: Basic properties of electric charge.
14. Coulomb’s law
Description: Derivation and explanation of Coulomb’s law.
Core Concepts: Electricity: Basic properties of electric charge.
15. Electric field
Description: Explanation on interaction between the two types of charges; Properties of electric field lines.
Core Concepts: Electricity: Electric field.
16. Electric flux
Description: Explanation of concept of electric flux.
Core Concepts: Electricity: Electric field.
Link: Video on electric flux
17. Charged particle Moving in a Uniform electric field
Description: Explanation on factors affecting the path of a charged particle moving in a uniform electric field.
Core Concepts: Electricity: Electric field.
18. Capacitor and capacitance
Description: Explanation of construction and working of capacitors.
Core Concepts: Capacitors: Capacitors and capacitance.
Links:
19. Capacitor and capacitance
Description: Explanation on working of capacitor.
Core Concepts: Capacitors: Capacitors and capacitance.
Link: Simulation on capacitor
20. Capacitor and capacitance
Description: Explanation and derivations on combination of capacitors.
Core Concepts: Capacitors: Describe combination of capacitors.
21. Capacitor and capacitance
Description: Explanation on combination of capacitors and its applications in every day life.
Core Concepts: Capacitors: Describe combination of capacitors.
22. Capacitor and capacitance
Description: Explanation on combination of capacitors using simulation.
Core Concepts: Capacitors: Describe combination of capacitors.
23. Electromagnetic induction
Description: Faraday’s law of electromagnetic induction and Lenz’s law simulation.
Core Concepts: Electromagnetic induction: The experiment of Faraday and Henry.
24. Magnetic flux
Description: Definition and expression of magnetic flux.
Core Concepts: Electromagnetic induction: Magnetic flux.
Link: Video on magnetic flux
25. Magnetic circuit
Description: Explanation of terminologies used in magnetic circuit.
Core Concepts: Electromagnetic induction: Magnetic flux.
26. AC generator
Description: Explanation on working off an AC generator through animated video.
Core Concepts: Electromagnetic induction: AC Generator.
Link: Video on AC generator || 3D animation video || 3D video
27. Inductance and transformer
Description: Explanation of inductance, self inductance, mutual inductance, coefficient of self inductance and mutual inductance, transformer and transformer ratio.
Core Concepts: Electromagnetic induction: Inductance.
28. Working of a transformer
Description: Working of a transformer; Types of transformer: Step-up and step-down transformer.
Core Concepts: Electromagnetic induction: Inductance.
29. Classification of substances into conductors, insulators and semiconductors
Description: Explanation on conductors, insulators and semiconductors.
Core Concepts: Electric circuit: Classification of substances into conductors, insulators and semiconductors.
Link: Website on difference between conductor, semiconductor and insulator
30. Classification of substances into conductors, insulators and semiconductors
Description: Explanation on conductors, insulators and semiconductors.
Core Concepts: Electric circuit: Classification of substances into conductors, insulators and semiconductors.
31. Superconductor
Description: Explanation on superconductors.
Core Concepts: Electric circuit: Classification of substances into conductors, insulators and semiconductors.
32. Applications of superconductor
Description: Explanation on the applications of superconductors.
Core Concepts: Electric circuit: Classification of substances into conductors, insulators and semiconductors.
33. Semiconductors
Description: Semiconductors; Intrinsic and extrinsic semiconductors; n-type and p-type semiconductors.
Core Concepts: Electric circuit: Semiconductors.
Link: Video on what are semiconductors? Intrinsic and extrinsic semiconductors
34. Semiconductors
Description: Explanation on types of semiconductors; Intrinsic and extrinsic semiconductors; n-type and p-type semiconductors; Applications of semiconductors.
Core Concepts: Electric circuit: Semiconductors.
35. Semiconductors
Description: Explanation on semiconductors; Intrinsic and extrinsic semiconductors; n-type and p-type semiconductors; Applications of semiconductors.
Core Concepts: Electric circuit: Semiconductors.
Links:
36. Kirchhoff’s law
Description: Explanation of Kirchhoff’s junction rule.
Core Concepts: Electric circuit: DC Circuits.
37. Kirchhoff’s law
Description: Explanation of Kirchhoff’s loop rule.
Core Concepts: Electric circuit: DC Circuits.
38. Potential divider
Description: Explanation of potential divider and its applications.
Core Concepts: Electric circuit: DC Circuits.
39. Circuit construction kit
Description: This simulation link contains circuit construction kit to verify Kirchhoff’s rule and construct potential dividers.
Core Concepts: Electric circuit: DC Circuits.
40. Circuit construction kit
Description: This simulation links contains circuit connection kit to construct an AC circuit to verify the sinusoidal variation of voltage and current in an AC.
Core Concepts: Electric circuit: DC Circuits.
41. RMS values
Description: Explanation on RMS value and its mathematical expression.
Core Concepts: Electric circuit: DC Circuits.
Link: Video on RMS value
42. Reflection of light by spherical mirrors
Description: Explanation on reflection of light by spherical mirrors and construction of ray diagrams.
Core Concepts: Ray optics: Reflection of light by spherical mirrors.
43. Reflection of light by spherical mirrors
Description: Explanation on simulation on formation images by concave and convex mirror.
Core Concepts: Ray optics: Reflection of light by spherical mirrors.
Link: Simulation on reflection of light by concave and convex mirrors
44. Concave mirror
Description: Experimentation on calculation of focal length of the concave mirror using u-v method.
Core Concepts: Ray optics: Reflection of light by spherical mirrors.
Link: Simulation on calculation of focal length by U-V method for concave mirror
45. Convex mirror
Description: Experimentation on calculation of focal length of the convex mirror using u-v method.
Core Concepts: Ray optics: Reflection of light by spherical mirrors.
Link: Simulation on calculation of focal length by U-V method for convex mirror
46. Cartesian sign convention
Description: Explanation on Cartesian sign convention for lenses.
Core Concepts: Ray optics: Refraction through spherical surfaces.
47. Convex and concave lens
Description: Explanation on basic rules for constructing ray diagrams; Image formations by convex and concave lenses
Core Concepts: Ray optics: Refraction by lenses
48. Lenses
Description: Differences between concave and convex lenses; Real images and virtual images.
Core Concepts: Ray optics: Refraction by lenses.
Link: Video on how lenses work
49. Wave front and Huygens’ principle
Description: Explanation on wave front and Huygens’ principle.
Core Concepts: Wave optics: Wavefront and Huygens’ principle.
Links:
50. Reflection and refraction of plane waves using Huygens’ principle
Description: Explanation on reflection and refraction of plane waves using Huygens’ principle.
Core Concepts: Wave optics: Refraction and reflection of plane waves using Huygens principle.
Links:
51. Refraction and reflection Of Plane waves
Description: This simulation explains the concepts on reflection and refraction of plane waves using Huygens’ principle.
Core Concepts: Wave optics: Refraction and reflection of plane waves using Huygens principle.
52. Wave interference and superposition
Description: Explanation on wave interference and superposition of waves.
Core Concepts: Wave optics: Superposition of waves.
Link: Simulation on wave interference and superposition of waves
53. Interference
Description: Explanation on interference of water, sound and light waves; Young’s double slits experiment.
Core Concepts: Wave optics: Interference and Young's experiment.
54. Interference of waves
Description: Description on constructive and destructive interference.
Core Concepts: Wave optics: Interference and Young's experiment.
55. Diffraction
Description: Explanation on diffraction of water, sound and light waves through a single slit; diffraction patterns of various colours.
Core Concepts: Wave optics: diffraction.
56. Diffraction of light waves
Description: Explanation on Diffraction of light waves through a single slit.
Core Concepts: Wave optics: diffraction.
57. Particle nature of light
Description: Explanation on particle nature of light: The photon.
Core Concepts: Quantum physics: Particle nature of light.
58. Electron emission
Description: Explanation on electron emission.
Core Concepts: Quantum physics: Electron emission.
59. Photoelectric effect
Description: Explanation on photoelectric effect.
Core Concepts: Quantum physics: Photoelectric effect.
Links:
60. Photoelectric effect and wave theory of light
Description: Explanation on photoelectric effect and wave theory and Einstein's photoelectric equation.
Core Concepts: Quantum physics: Photoelectric effect and wave theory of light.
61. Photoelectric emission
Description: Explanation on photoelectric emission
Core Concepts: Quantum physics: Photoelectric emission
Links:
62. de Broglie hypothesis
Description: Explanation on wave nature of matter; de Broglie wave equation; de Broglie wavelength.
Core Concepts: Quantum physics: wave nature of matter.
Link: Video on the de Broglie wavelength and wave particle duality
63. Heisenberg’s uncertainty principle
Description: Explanation on Heisenberg’s uncertainty principle; Mathematical expression; Cases.
Core Concepts: Quantum physics: wave nature of matter.
64. The standard model of particle
Description: Explanation on the standard model of particle.
Core Concepts: Particle physics: Standard model.
65. Annihilation
Description: Explanation on annihilation of particles and conservation of energy.
Core Concepts: Particle physics: Annihilation.
Link: Video on annihilation
66. Classification of particles
Description: Explanation on the classification of particles.
Core Concepts: Particle physics: Classification of particles.
67. Nanotechnology
Description: Concept of nanotechnology; applications of nanotechnology.
Core Concepts: Particle physics: Nanotechnology.
68. Carbon nanotubes
Description: Carbon nanotubes, its property and applications.
Core Concepts: Particle physics: Nanotechnology.
69. Nuclear energy
Description: Nuclear energy; Mass defect and its mathematical expression; Binding energy; Graph of binding energy per nucleon versus mass number.
Core Concepts: Nuclear energy: Nuclear energy.
70. Nuclear fission
Description: Explanation on nuclear fission.
Core Concepts: Nuclear energy: Nuclear fission.
Link: Video on nuclear fission
71. Nuclear reactor
Description: Explanation on nuclear reactor.
Core Concepts: Nuclear energy: Nuclear fission.
72. Nuclear fission
Description: Explanation of nuclear fission.
Core Concepts: Nuclear energy: Nuclear fission.
73. Nuclear fission
Description: Explanation on nuclear fusion; Nuclear fusion reaction.
Core Concepts: Nuclear energy: Nuclear fission.
Link: Video on fusion energy explained with Hydrogen atom example
74. Thermonuclear fusion
Description: Explanation on CNO cycle; p-p cycle.
Core Concepts: Nuclear energy: Nuclear fission.
75. Kepler’s laws
Description: Explanation on Kepler’s laws of planetary motion.
Core Concepts: Space Science and Technology.
Links:
76. Rocket launching technology
Description: Explanation on rocket launching technology.
Core Concepts: Space Science and Technology.
77. How do satellites work
Description: Explanation on the working satellites.
Core Concepts: Space Science and Technology.
78. The space environment
Description: Explanation on the space, the space environment, and the major hazards of the space environment
Core Concepts: Space Science and Technology - Satellite Development: The space environment
79. Hazards of spacecrafts
Description: Explanation on hazards of spacecrafts
Core Concepts: Space Science and Technology - Satellite Development: The space environment
