Homework #1
Problem # 8.1, 8.5, 8.15


Homework #2
Problem # 8.6, 8.7


Homework #3
I) Derive the E&M wave equation for E or B in linear medium with no free charge or current.
II) What is the speed of these waves?
Problem # 9.2, 9.3 (Wave pushups!)


Homework #4
Problem # 9.9, 9.12


Homework #5
Problem # 9.13


Homework #6
Problem # 9.16


Homework #7
Problem # 9.18(c), 9.19, 9.21, 9.25


Homework #8
Problem # 9.28


Homework #9
Problem # 10.1, 10.3, 10.5, 10.7


Homework #10
I) Show that the solution for the retarded vector potential we discussed in class solves eq. 10.16 (ii) in the text.
II) Determine the general magnetic field from the retarded vector potential.


Homework #11
Problem # 10.9 (b) ONLY hint: Change variables from z to script r in the delta function and use delta properties in chapter 1.
10.10 (Just answer why can't you determine the magnetic field), 10.12.


Homework #12a
Continue the multipole expansion for the scalar and vector potentials to determine the magnetic dipole contribution
to Electric and Magnetic fields in the radiation zone from an arbitary current loop.
Compare your results with Griffiths for the special case of the magnetic dipole alligned with the z-axis and oscillating harmonically in time (his equations 11.36 and 11.37).


Homework #12b
Problem # 11.6, 11.21, 11.22, 11.23


Homework #13
Problem # 12.6, 12.7, 12.14, 12.16, 12.19(Optional), 12.23(Optional-Good One!)


Homework #14
Problem # 12.26, 12.28(read part (a) and do part (b)), 12.35 (Just answer why they couldn't produce one photon),
12.37(hint: see example 12.10), 12.38(a,c,d) (hint: for answer to part (a) see equation 12.73 combined with 12.70)


Homework #15
Problem # 12.44, 12.46 (b and c), 12.47, 12.48 (do one of the parts to see how it works), 12.50 (Just compute the invariant with F*F and compare to 12.46b), 12.52