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This course cover generic syllabus for Engineering Physics.
Unit 1: Quantum Physics
Group and particle velocities & their relationship. Uncertainty principle with elementary proof and applications ( determination of position of a particle by a microscope, non existence of electron in nucleus, diffraction of an electron beam by a single slit). Compton scattering. Wave function and its properties, energy and momentum operators, time dependent and time independent Schrödinger wave equation. Application of time independent Schrodinger wave equation to particle trapped in a one dimensional square potential well (derivation of energy eigen values and wave function).
Unit 2: Wave Optics
Interference: Fresnel’s biprism, Interference in thin films (due to reflected and transmitted lght), interference from a wedge shaped thin film, Newton’s rings and Michelson’s interferometer experiments and their applications. Diffraction at single slit, double slit and n-slits (diffraction grating). Resolving power of grating and prism. Concept of polarized light, Brewster’s laws, Double refraction, Nicol prism, quarter & half wave plate.
Unit 3: Nuclear Physics
Nuclear liquid drop model (semi empirical mass formula), nuclear shell model, Linear Particle acceleratos: Cyclotron, general description of Synchrotron, Synchrocyclotron, and Betatron. Geiger- Muller Counter, Motion of charged particles in crossed electric and magnetic fields. Uses of Bainbridge and Auston mass Spectrographs.
Unit 4: Solid State Physics
Qualitative discussion of Kronig Penny model (no derivation), Effective mass, Fermi-Dirac statistical distribution function, Fermi level for Intrinsic and Extrinsic Semiconductors, Zener diode, tunnel diode, photodiode, solar-cells, Hall effect. Superconductivity: Meissner effect, Type I and Type II superconductors, Di-electric polarization, Complex permittivity, dielectric losses.
UNIT 5: Laser and Fiber Optics
Laser: Stimulated and spontaneous processes, Einstein’s A & B Coefficients, transition probabilities, active medium, population inversion, pumping, Optical resonators, characteristics of laser beam. Coherence, directionality and divergence. Principles and working of Ruby, Nd:YAG, He-Ne & Carbon dioxide Lasers with energy level diagram. Fundamental idea about optical fiber, types of fibers, acceptance angle & cone, numerical aperture, V-number, propagation of light through step index fiber (Ray theory) pulse dispersion, attenuation, losses & various uses. Applications of lasers and optical fibers.
|Heisenberg’s Uncertanity Principle||00:10:00|
|Schrodinger’s Time Dependent Equation||00:20:00|
|Schrodinger’s Time Independent Equation||00:20:00|
|Application Of Time Independent Schrodinger Wave Equation||00:45:00|
|Sample Paper I||00:45:00|
|Unit I Quiz||00:20:00|
|Fraunhofer Diffraction At Single Slit||00:20:00|
|Half and Quarter Plate||00:15:00|
|Sample Paper II||00:45:00|
|Unit II Quiz||00:20:00|
|Liquid Drop Model||00:20:00|
|The Nuclear Shell Model||00:30:00|
|Mass Defect, Binding Energy and Semi-Empirical Formulae||00:25:00|
|Geiger-Muller (GM) Counter||00:27:00|
|Bainbridge Mass Spectrograph||00:15:00|
|Aston Mass Spectrograph||00:20:00|
|Sample Paper III||00:45:00|
|Unit III Quiz||00:20:00|
|Solid State Physics|
|Kronig – Penny Model||00:30:00|
|Fermi-Dirac Statistical Distribution Function||00:30:00|
|Sample Paper IV||00:45:00|
|Unit IV Quiz||00:20:00|
|Laser and Fiber Optics|
|Characteristics Of Laser Beam||00:05:00|
|Spontaneous and Stimulated Emission||00:15:00|
|Relationship Between Einstein’s A and B Coefficients||00:30:00|
|Total Internal Reflection||00:10:00|
|Expression For Acceptance, Angle, Numerical, Aperture of Optical Fibre||00:15:00|
|Sample Paper V||00:45:00|
|Unit V Quiz||00:20:00|
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