Физика on Windows Pc

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1. Direct current. Basic laws of differential DC.
2. Direct current. Integral laws DC. The concept of EMF current source.
3. Theory Drude Lorentz electric current in metals.
4. Ampere's Law. The concept of a magnetic field, the magnetic induction. Biot-Savart law.
5. The vector magnetic potential. Communication with the magnetic field vector magnetic potential.
6. The properties of vector magnetic potential.
7. Stokes theorem in vacuum in the integral and differential forms.
8. The magnetic field in the material. Magnetization vector. Communication of the magnetization vector with a magnetic field.
9. The theorem on the relationship of the magnetization vector and the magnetization of molecular currents.
10. Stokes' theorem in the presence of a magnet.
11. Two fundamental properties of the magnetostatic field.
12. The energy of the magnetic field. Bulk density of magnetic field energy.
13. Faraday's law of induction. The first fundamental law of Maxwell.
14. Faraday's law of induction. The emergence of the emf induced motion of conductors in a magnetic field.
15. The continuity equation for the electric current,
16. The second fundamental law of Maxwell. An alternating electric field. Bias current.
17. Maxwell's equations and material relations.
18. Poynting theorem for electromagnetic field.
19. The relaxation of the electric charge in conductors. Relaxation time.
20. Maxwell's equations in vacuum. Derivation of the wave equation, the velocity of propagation of electromagnetic waves.
21. Distribution of the Heaviside clot in an ideal dielectric. The connection between the electric and magnetic fields. The speed of propagation of the bunch.
22. Maxwell's equations and electromagnetic waves. Proof of transverse electromagnetic waves.
23. The electric and magnetic fields created by a uniformly moving charge.
24. Electromagnetic wave radiation rapidly moving charge. Poynting vector, radiation power.
25. Reflection and refraction of light at the interface between two media. The coefficient of reflection and refraction (normal incidence).
26. Interference of light. Young's experiment.
27. Diffraction of light. The method of Fresnel zones. Rectilinear propagation of light.
28. Light diffraction from a circular aperture and an opaque disk. Poisson spot.
29. Fraunhofer diffraction, Terms of minima and maxima at Fraunhofer diffraction.
30. The diffraction grating. Terms of major highs and more highs and lows.
31. The diffraction grating. Resolution and angular dispersion.
32. Maxwell's equations for a plane monochromatic linearly polarized wave propagating in the positive direction of the x-axis.
33. Fresnel formulas. Derivation of the formula for the s-wave. Formula tangents.
34. Fresnel formulas. Derivation of the formula for the p-wave. Formula sinuses.
35. Analysis of the Fresnel formulas. The fall of a plane electromagnetic wave from a less dense to a more optically dense medium. Brewster angle for the s-wave.
36. Analysis of the Fresnel formulas. The fall of a plane electromagnetic wave from a more dense to less optically dense medium.
37. Analysis of the Fresnel formulas. Changing the phase of the wave refraction and reflection from the boundary between two media.
38. The multi-beam diffraction. X-ray diffraction. Bragg condition.
39. History of views on the nature of light. Snell's law-Descartes.
40. Thermal radiation. Laws of thermal radiation. Planck's formula for the spectral emissivity.
41. The laws of the external photoelectric effect. Photoelectric threshold. Einstein's formula for the photoelectric effect.
42. X-ray scattering by free electrons. Compton effect
43. The wave properties of the electron. De Broglie hypothesis. Davisson Germer experiment and J. P. Thompson.
44. The model of the hydrogen atom Bohr. Bohr's postulates. The emission spectrum of the atom.
45. Pauli exclusion principle. Quantum numbers. Periodic Table of Elements.