For first day of class:Read parts of Chapter 1 enough to bring to class Schroeder's definitions of a) temperature, b) heat, and c)  work.

• 1.1, 1.2, 1.3    p. 5
  
• 1.7a) bulb OD 5.0 mm, bulb length 16 mm, column diameter 2/15 mm, dL/dT = 0.070 m/30K
  
• 1.12   p. 8
• 1.15. Measure basket diameter and balloon diameter with transparent ruler. Take basket to be 2.0 m across, assume spherical balloon

• 1.16    p. 8
• 1.17 a) and b)    p. 9
  
• 1.18, 1.20    p. 13
• 1.37, p. 26

• Problem 1.17 c) and d)    p. 9
• Problem 1.22 a), b),  c) and d)   p. 14
• Problem 1.24    p. 17
• Problem 1.30    p. 20
• Problem 1.31    p. 22
  

• Problem 1.61, p. 40
• Problem 1.62, p. 40. You want net heat flow into an element of length dx, in from the left, out at the right. This will cause a temperature change within the length element
• Problem 1.64, p. 44
• Problem 2.2, p. 51
  
• Problem 2.8 p. 59. Do it for each solid having 12 oscillators, and they share a total of 30 units of energy.

• Problem 3.24, p. 107
• Problem 3.32, p. 114
• Problem 3.36, p. 119
• Find the chemical potential of  neon at 300 K and 150 kPa

• Prob. 4.3,  p. 124
• Prob  4.5,  p. 126
  
• Prob 4.10, p. 129
• Prob 4.11, p. 129
• Prob 4.20, p. 133
• Prob 4.22, p. 137

• Prob. 4.33,  p. 143
• Prob  5.2,  p. 152
  
• Prob 5.4,   p. 155
• Prob 5.28, p. 171
• Prob 5.42, p. 177
  

• Prob. 6.3,  p. 225
• Prob  6.6,  p. 227
• Prob 6.11, p. 228
  
• Prob 6.12, p. 228
• Prob 6.15, p. 231

• Prob 6.23 p. 236 Rotational partition function of CO. 
• Estimate the CO bond length from Appendix A Eq. A.21, and the given energy constant 
• Prob 6.39, p. 246.  For part a) use Argon.  Try Digits = 300 in Maple.
  
• Prob 6.47, p. 255    Freeze-out of tranlational degrees of freedom
• Calculate Cp for Br2, given its vibration at 370.48 cm^-1, and compare to 36.02 J/K [Assume fully developed rotation and translation degrees of freedom]

• Prob 7.19, p. 276 Degeneracy pressure in copper