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Transcript
FACULTY OF ENGINEERING
Course Specifications:
(PHYS 201)
Month, Year: Fall 2008
Course Specifications for Phys. (201) Eng.
Programme (s) on which the course is given : B. Sc. Eng.
Type of requirement : College requirement
Prerequisite : Phys. 102
Department Offering the Program : Center of Basic Sciences
Academic Year / Level : Second Year ( Level III )
A - Basic Information
Title : Physics III
Credit Hours : 3 hrs
Tutorial : 1 hr
Total : 4 contact hours
Code : Phy 201
Lecture : 2 hrs
Practical : 1 hr
B - Professional Information
1. Course Description :
The course is divided into three parts :
The first part is classical physics which contains Newtonian relativity,
Maxwell,s
equations, Michelson-Morley experiment and Einstein,s special theory of
relativity. The second part is the old quantum theory e.g. black body
radiation ,
photoelectric effect, Compton effect, Bohr’s theory. The third part is an
introduction to quantum mechanics e.g. De Broglie’s hypothesis,
uncertainty
principle , Schrodinger equation and applications in lasers.
2. Course Objectives :
2.1. To give the student an idea about how physics was developed in the
Last two centuries in order to explain the world around us.
2.2. To let the student know the domains at which the classical and quantum
physics are valid and applicable.
2.3. To let the student know how the basic principles and theories of physics
led to the invention and the development of modern equipments such as,
lasers, semiconductors, transistors, televisions, mobiles, …..etc.
3. Intended Learning Outcomes of the Course :
3.1. Knowledge and Understanding :
- Recognize the difference between classical and quantum physics.
- Understand the different applications of classical and quantum
physics.
- Learn the basic principles of special relativity and that it is the theory
describing objects moving at any speed even speeds approaching the
speed
of light.
- Learn the basic principles of quantum physics and that it is the theory
which
describes the behavior of matter at the submicroscopic level.
3.2. Intellectual, Professional and Practical Skills :
- Define the domain and applicability of the classical and quantum
theories.
- Learn how to solve in both classical and quantum physics.
- Learn how to deal with the different equipments at the physics
laboratory.
- Learn the different applications in classical and quantum physics which
are
relevant to the various branches of engineering.
- Learn the bases in physics which are essential for the study in the
different
engineering branches such as, mechanical engineering, chemical
engineering,
electrical engineering , computer engineering and communications.
4 – Contents (Course Organization)
Topics
Week 1: Newtonian relativity,
No. of Lect Tutorials
hours ure /Practical
4
2
2
4
2
2
4
2
2
4
2
2
4
2
2
4
2
2
4
2
2
Maxwell’s equations
Week 2: : Michelson- Morley experiment,
Einstein ‘s principles of relativity
Week 3: Lorentz transformation,
Time dilation, length contraction
Week 4: : relativistic velocity,
momentum and energy
Week 5: First Quiz (10 Marks).
Week 6:. black body radiation,
photoelectric effect, Compton effect
Week 7: Bohr’s theory,
De Broglie’s hypothesis
Week 8: Mid-Term Exam (30 Marks).
Week 9: Schrodinger equation,
uncertainty principle
Week 10: Particle in a box,
applications
Week 11: Principles of laser physics
and non-linear optics
Week 12: Laser Applications and
holography
Week 13: Second Quiz (10 marks)
Week 14: Introduction to band
theory of solids
Week 15: Introduction to
superconductivity
4
2
2
4
2
2
4
2
2
4
2
2
4
2
2
4
2
2
4
2
2
4
2
2
5. Teaching and learning methods
5.1 ……Lecture……
5.2 ……Tutorial (Exercises)….
5.3 ……Practical….
6. Student assessment methods
6.1……2 quizzes……to assess regular readiness…
6.2……1 midterm…..to assess grasping course overview…
6.3……Reports……..to assess learning experiences….
6.4……Final exam….to assess overall performance….
7. Assessment schedule
7.1.
7.2.
7.3.
7.4.
Assessment 1 first quiz………week five…….
Assessment 2 mid-term exam….week eight….
Assessment 3 second quiz……week thirteen…
Assessment 4 final exam…….
8. Weighting of assessments
8.1 . Mid-term examination
8.2 . Quizzes
8.3. Practical examination
8.4. Final-term examination
8.5. ……Total
20%
13.3%
26.7%
40%
100%
9. List of references
Physics for Scientists and Engineers
By: Jewett J. W. and Serway R. A.
Pub: Thomson International Student Edition (Seventh Edition)
10. Facilities required for teaching and learning
……Lap Top in class + Data Show……..
Course coordinator : Prof. Dr. Tharwat M. El-Sherbini
Date: 10 / 2009