SRI RAMAKRISHNA INSTITUTE OF TECHNOLOGY, COIMBATORE-10
(Approved by AICTE, New Delhi – Affiliated to Anna University, Chennai)
Department of Science and Humanities
Course Title: Engineering Physics-I (PH6151)
Department : Electrical and Electronics Engineering
Semester/Regulation : First/R2013
Course Instructor : S.Vijayakumar, AP(Sl.Gr)/PHY/S&H
Number of Credits: 3
Programme : B.E
Academic Year : 2013-2014
Prerequisite Courses :
Fundamental concepts and knowledge about Physics in +2 Curriculum & Syllabi
Knowledge of basic mathematical functions and formula
Atomic Structure of Materials and its behavior
Text Books:
M.Arumugam, Engineering Physics, Anuradha Publishers ,2010..
Gaur R.K. and Gupta S.L. Engineering Physics. Dhanpat Rai publishers, 2009
T1.
T2.
Reference Books:
1. Searls and Zemansky. University Physics, 2009
2. Mani P. Engineering Physics I. Dhanam Publications, 2011
3. Marikani A. Engineering Physics. PHI Learning Pvt., India, 2009
4. Palanisamy P.K. Engineering Physics. SCITECH Publications, 2011
5. Rajagopal K. Engineering Physics. PHI, New Delhi, 2011
6. Senthilkumar G. Engineering Physics I. VRB Publishers, 2011
e-Learning Resources :
http://libguides.wpi.edu/physics
http://libraryguides.lynchburg.edu/eresourcesphysics
http://eresources.rhul.ac.uk/kb/Lecture_Notes_in_Physics
http://www.uic.edu/depts/lib/science/resources/index.shtml
http://library.stanford.edu/guides/materials-science-and-engineering-resources
Instructor URL :
http://www.moodle-srit.org/
Instructor Mail :
srit.phy@gmail.com
Programme Objectives :
At the end of the course the student should be able
To enhance the fundamental knowledge in Physics and its applications
To impart knowledge on crystal structure and growing techniques.
To understand the response and characteristics of matter for external forces.
To acquaint with the basic concepts and theories in Quantum Physics.
To learn the classification of sound waves and its properties.
To understand the principle of laser & Fiber Optics action, types and its applications.
Programme Outcome:
At the end of the semester the students can
Understand the Atomic structure of different kind of solid materials and their behavior, understand the properties of
materials according to external forces, learnt how to apply the mathematical functions to know the motion of a wave
(or) a particle and their behavior within the boundaries, acquired the basic knowledge about various sound waves
and their applications, understands effectively the applications of laser and fiber optics
Programme Outcomes:
Students will have a solid foundation in scientific and material fundamentals required to solve engineering problems.
They can have the capability to design and prepare the material system to make solid structures with the acquired
Knowledge. They can prepare the innovative material for some specialized applications.
Mode of Evaluation:
1.
Internal Assessment (20)
Internal Assessment Test 1 will be conducted for 50 Marks. (5*2=10 & 2*20=40)
Internal Assessment Test 2 will be conducted for 50 Marks. (5*2=10 & 2*20=40)
Internal Assessment Test 3 will be conducted for 50 Marks. (5*2=10 & 2*20=40)
Tests as per the schedule given by the university. Three tests will be considered for the assessment out of 15 marks.
Course Attendance:
Assessment out of 5 ( Attendance percentage 96-100 : 5; 91-95 : 4; 86-90 : 3; 81-85 : 2; 76-80 : 1)
2. External Assessment (80)
University will conduct end semester examination for 100 marks (10*2=20 & 5*16=80)
Performance will be considered for assessment out of 80.
COURSE PLAN
UNIT
Topics to be covered as per curriculum
Reference
Period
Introduction Space Lattice, Unit cell - Lattice Parameters of the unit cell
T1 (2.1 to 2.4)
1
Crystal Systems & Bravais Lattices
T1 (2.5 to 2.8)
1
Characteristics of the Unit Cell, Packing factor and atomic radius for SC
Packing factor and atomic radius for BCC
T1 (2.12 to 2.14)
T1 (2.14 to 2.15)
1
1
Packing factor and atomic radius for FCC
Packing factor and Calculation of c/a ratio for HCP
Diamond Cubic Structure Graphite structure & Crystal Growth techniques
–Solution(Bridgemann)
Czochralski method
T1 (2.15 to 2.16)
T1(2.17 to 2.19)
T1(2.19& 2.21) &
R6(1.52 to 1.56)
R6(1.57)
1
1
R6(1.58)
1
CRYSTAL PHYSICS
I
Vapour Growth technique& Problems
TOTAL
II
III
Deduction of Wien's Displacement Law& Rayleigh Jeans Law
Compton effect – theory, Compton Effect Derivation continuation
&experimental verification
Properties of Matter waves - G.P Thomson Experiment
Schroedinger equation - time independen, Schroedinger time dependent
equation, Physical significance of wave function
Particle in a one dimensional and three dimensional box
Transmission Electron Microscope & Scanning Electron Microscope
TOTAL
1
9
PROPERTIES OF MATTER &THERMAL PHYSICS
Elasticity- Stress, Strain ,Hook’s Law, Modulus of Elasticity and relation
T2(7.1 to 7.6)
between them
Stress – Strain Diagram , Poissons Ratio & Factors affecting Elasticity
T2(7.2 to 7.3)
Bending Moment – Depression of Cantilever and Youngs modulus uniform
T2(7.9 to 7.11) &R6(2.14
bending expression , I shaped Girders
to 2.31)
Modes of Heat transfer – Thermal conductivity – Newtons law of cooling
T2(16.1 to 16.6)& R6(3.5)
Linera heat flow – Lee’s disc method
T2(16.6 to 16.8)
Radial heat flow – Rubber tube method – conduction through compound
T2(16.5) & R6(3.18 to
media (series and parallal)
3.25)
TOTAL
QUANTUM PHYSICS
Black Body radiation, Planck's theory - derivation
1
2
2
2
1
1
1
9
R2(4.1 to 4.12)
R2(4.12 to 4.14)
1
1
R5(169 to 175)
1
R4(3.4 to 3.10)
1
R4(3.20 to 3.22)
2
R4(3.23 to 3.26)
R2(4.61 to 4.73)
1
2
9
IV
V
ACOUSTICS AND ULTRASONICS
Classification of sound – decibel – Weber Fechner law – Sabine’s formula
R5(1 to 8 & 14 to 18)
Derivation using growth and decay method-Absorption Coefficient and its
R5(18 to 21)
determination
Factors affecting acoustics of building and their remedies
T1(383 to 389)
Manetostriction effect – generator- Piezo electric effect - generator
R2(1.3 to 1.16)
Velocity measurement - Acoustic grating
R2(1.22 to 1.26)
NDT-Non Destructive Testing(Pulse Echo System)
R2(1.34 to 1.40)
A,B & C Scan Displays, Medical application - Sonogram
R2(1.41 to 1.54)
TOTAL
PHOTONICS & FIBER OPTICS
Principle of Stimulated Absorption, Spontaneous Emission & Stimulated
R2(2.1 to 2.5)
Emission & Population inversion
Einstein's A and B co-efficients - Derivation
R2(2.5 to 2.10)
Types of Lasers – Nd: YAG laser
R2(2.22 to 2.26)
CO2 laser - Construction and Working
R2(2.32 to 2.40)
Semiconductor laser – Homojunction & Heterojunction Laser
R2(2.41to 2.51)
Industrial and Medical Applications of Laser
R2(2.51 to 2.66)
Principle and Propagation of Light , Derivation for Acceptance Angle &
R2(3.7 to 3.20)
Numerical Aperture - Typer of Optical Fibres- Based on Material ,modes
R2(3.20 to 3.24) &
Typer of Optical Fibres -Refractive index &Attenuation, Bending Loses
R2(3.35 to 3.40)
Dispersion – Fibre optic communication system & Active and Passive
R2(3.40 to 3.47) &
sensors
R2(3.55 to 3.58)
TOTAL
HOD-S&H
2
1
2
1
1
1
9
1
1
1
1
1
1
1
1
1
9
TOTAL HOURS:
COURSE INSTRUCTOR
1
PRINCIPAL
45