1. ENGINEERING PHYSICS

2. UNITS PHYSICAL OPTICS,LASERS AND FIBRE OPTICS
CRYSTALOGRAPHY AND ULTRASONICS
QUANTUM MECHANICS AND FREE ELECTRON THEORY
SEMICONDUCTORS AND MAGNETIC MATERIALS
SUPERCONDUCTIVITY AND PHYSICS OF NANOMATERIALS

3. PHYSICAL OPTICS,LASERS AND FIBER OPTICS
UNIT-I
PHYSICAL OPTICS,LASERS
AND
FIBER OPTICS

4. PHYSICAL OPTICS INTERFERENCE DIFFRACTION THIN FILMS SINGLE SLIT
NEWTON’S RING
DIFFRACTION
SINGLE SLIT
DOUBLE SLIT
DIFFRACTION GRATING

5. LASERS CHARACTERISTIC OF LASER EMISSION OF RADIATION
EINSTEIN’S COEFFICIENTS
POPULATION INVERSION
TYPES OF LASERS
RUBY LASER
HE-NE LASER
APPLICATIONS

6. FIBRE OPTICS PRINCIPLE AND CONSTRUCTION
NUMERICAL APERTURE AND ACCEPTANCE ANGLE
TYPES OF OPTICAL FIBERS
ATTENUATION AND LOSSES IN FIBERS
OPTICAL FIBER COMMUNICATION SYSTEM
APPLICATIONS

7. CRYSTALLOGRAPHY AND ULTRASONICS
UNIT-II
CRYSTALLOGRAPHY
AND
ULTRASONICS

8. CRYSTALLOGRAPHY SPACE LATTICE, UNIT CELL AND LATTICE PARAMETERS
BRAVIAS LATTICE AND CRYSTAL SYSTEMS
PACKING FRACTIONS OF SC, BCC AND FCC
STRUCTURES OF SODIUM CHLORIDE AND DIAMOND
MILLER INDICES-DIRECTIONS AND PLANES IN CRYSTALS
INTERPLANER SPACING IN CUBIC SYSTEMS
X-RAY DIFFRACTION
1) BRAGG’S LAW
2) LAUE METHOD
3) POWDER METHOD
DEFECTS IN SOLIDS
1) POINT
2) LINE
3) SCREW AND EDGE DISLOCATION
4) BURGERS VECTOR

9. ULTRASONICS PRODUCTION –PIEZOELECTRIC METHOD PROPERTIES DETECTION
APPLICATION IN NON-DESTRUCTIVE TESTING

10. QUANTUM MECHANICS AND FREE ELECTRON THEORY
UNIT-III
QUANTUM MECHANICS
AND
FREE ELECTRON THEORY

11. QUANTUM MECHANICS MATTER WAVES de’ BROGLIE HYPOTHESIS
HEISENBERG’S UNCERTINATY PRINCIPLE
SCHRODINGER’S WAVE EQUATION
1) TIME INDEPENDENT
2) TIME DEPENDANT
POTENTIAL WELL

12. FREE ELECTRON THEORY CLASICAL FREE ELECTRON THEORY
QUANTUM FREE ELECTRON THEORY
ORIGEN OF BANDS IN SOLIDS

13. SEMICONDUCTORS AND MAGNETIC MATERIALS
UNIT-IV
SEMICONDUCTORS
AND
MAGNETIC MATERIALS

14. SEMICONDUCTORS INTRINSIC AND EXTRINSIC SEMICONDUCTORS
DRIFT & DIFFUSION CURRENTS
EINSTEIN’S EQUATION
HALL EFFECT
DIRECT & INDIRECT BAND GAP SEMICONDUCTORS
SOME SEMICONDUCTOR DEVICES
1) P-N JUNCTION DIODE
2) LED
3) LASER DIODE
4) PHOTO DIODE

15. MAGNETIC MATERIALS BASIC DEFINITIONS ORIGIN OF MAGNETIC MOMENTS
BOHR MAGNETON
CLASSIFICATION OF MAGNETIC MATERIALS
HYSTERESIS
APPLICATIONS

16. SUPERCONDUCTIVITY AND PHYSICS OF NANOMATERIALS
UNIT-V
SUPERCONDUCTIVITY
AND
PHYSICS OF NANOMATERIALS

17. SUPERCONDUCTIVITY MEISSNER EFFECT PROPERTIES TYPES OF SUPERCONDUCTORS
FLUX QUANTIZATION
LONDON PENETRATION DEPTH
JOSEPHSON EFFECT
BCS THEORY
HIGH TC SUPERCONDUCTORS
APPLICATIONS

18. PHYSICS OF NANOMATERIALS
PRINCILPE
PHYSICAL PROPERTIES
SYNTHESIS OF NANOMATERIALS
CARBON NANOTUBES
GRAPHENE
APPLICATIONS

19. THANK Q
P G LOGAN