MWF 11-11:50 AM | OPL 107 | http://www.wfu.edu/~natalie/f07phy711 |
Instructor: Natalie Holzwarth | Phone:758-5510 | Office:300 OPL | e-mail:natalie@wfu.edu |
Read Chapter 1 in Fetter & Walecka and make note of useful appendices.
Continue reading Chapter 1 in Fetter & Walecka.
Continue reading Chapter 1 in Fetter & Walecka.
Start reading Chapters 3 and 6 in Fetter & Walecka.
This problem is one more example of scattering theory from Chap. 1.
Continue reading Chapters 3 and 6 in Fetter & Walecka.
I({y(x),dy(x)/dx}) = ∫10 ( (dy/dx)2 + 2 y(x) ) dx.
Continue reading Chapters 3 and 6 in Fetter & Walecka.
A({r(θ)}) = (1/2) ∫02π
(r(θ))2 dθ
while keeping the length fixed at the value 2πa:
∫02π r(θ) dθ = 2 &pi a.
Continue reading Chapters 3 and 6 in Fetter & Walecka.
Continue reading Chapters 3 & 6 in Fetter & Walecka.
Continue reading Chapters 3 & 6 in Fetter & Walecka.
Continue reading Chapters 3 & 6 in Fetter & Walecka.
Finish reading Chapter 6 in Fetter & Walecka.
Continue reading Chapters 5 in Fetter & Walecka.
Continue reading Chapters 5 in Fetter & Walecka.
Start reading Chap. 7 in Fetter & Walecka.
Continue reading Chapters 5 in Fetter & Walecka.
Continue reading Chap. 7 in Fetter & Walecka.
Read Appendix A in Fetter & Walecka.
Read Chap. 8 in Fetter & Walecka.
Start reading Chapter 9 in Fetter & Walecka.
Continue reading Chapter 9 in Fetter & Walecka.
Start reading Chap. 10 in Fetter & Walecka. The following problem uses material from the end of Chap. 9.
Suppose that a shock wave in an adiabatic ideal gas, having γ=1.5 is created with a pressure ratio p2/p1 = 2, using the notation used in class and used in Fetter & Walecka. Find the corresponding ratios and differences for the following other properties of the gas ahead (2) and behind (1) the shock front:
Start reading Chap. 12 in Fetter & Walecka. The following problem uses material from the end of Chap. 10 and the lecturenotes on solitary waves.
In class and in the lecture notes, we derived the soliton form of the surface displacement given by ζ(x,t)=η(x-ct) expressed in Eq. 25 of the notes. From this result find the following quantities to lowest order in &eta0/h, the ratio of the wave amplitude to the water depth.
Continue reading Chapters 12 in Fetter & Walecka.
Finish reading Chap. 12 in Fetter & Walecka.