January 8, 2006
Special Relativity, Physics 4146
Instructor
Professor Brian Kennedy
Office: Howey N119 (office hours: Monday, Wednesday, Friday after lecture)
Phone: (404) 894-5221
Course Assistant: Wei Zhang
Office: Howey N03 (office hours: Monday, Wednesday, Friday 4.00-5.00 pm)
Phone: (404) 894-0534
E-mail: gtg978b at mail.gatech.edu
Place and Times
Mondays, Wednesdays and Fridays,
9:05-9:55am
Room N210, Howey
Physics Building
Course Description
The course is designed to provide a thorough introduction to Special Relativity at the level of an advanced
undergraduate, or beginning graduate student.
A
provisional syllabus is as follows:
Ether and Galilean relativity
Experimental Foundations (Michelson-Morley Experiment)
Fitzgerald-Lorentz contraction
Work of Lorentz, Poincare and Einstein. The Lorentz Transformations.
Einstein’s axioms: relativity of simultaneity.
Geometry of Galilean relativity; Geometry of spacetime ( Minkowski )
And invariance of the interval.
Fitzgerald-Lorentz contraction; Time dilation ( Larmor ).
Relativistic Kinematics:
Length contraction and Time dilation.
Twin Paradox.
Transformation of velocities and acceleration.
Relativistic Optics:
Drag effect (Laue), Doppler effect and Aberration.
Spacetime geometry and the introduction of four vectors/tensors.
Four-velocity and acceleration, wave motion.
Relativistic particle mechanics:
Momentum, mass and energy. Collisions.
Variational principle.
Electromagnetic phenomena: Maxwell’s equations.
Transformation of electric and magnetic fields. Motion of charges.
Relativistic Fluids.
Gravity: an introduction to General Relativity.
Textbook
Wolfgang Rindler, Introduction to Special Relativity (Oxford, 1991) is the required text for the course. I suggest that you read
the text carefully and try to test
your comprehension on the problems.
Some other books you might find useful include:
In addition many textbooks on Mechanics and Electromagnetism, as well as General Relativity, have introductions to Special Relativity.
Homework and Grades
In general you are expected to comply with the academic honor code.
Grades will based on the results of
Homework Assignments ( 25 %)
Midterm ( 25 % ),
Final exam ( 50% ).