The errata of the book is listed here. I appreciate you if you could send any errors to us by e-mail.
Page 29 Eq. (2,27) 2H_AB -> H_AB Page 31 statement after Eq. (2.33) km/s -> m/s Page 49 Question [2,6] Eq.(2,16) -> Eq.(2,15) Eq.(2,14) -> Eq.(2,13) Page 60 Eq. (3,11) U^(i)_q' and u_i in the superscript. Move from superscript to the normal position. A correct Latex form is \begin{equation} {\bf u}_i = \frac{1}{\sqrt{N_{\Omega}}} \sum_{\bf k'} e^{-i({\bf k'}\cdot{\bf R_i} - \omega t) } {\bf u}_{\bf k'}^{(i)},\\ \hspace{3mm}{\rm or}\hspace{3mm} {\bf u}_{\bf k}^{(i)} = \frac{1}{\sqrt{N_{\Omega}}} \sum_{\bf R_i} e^{i({\bf k}\cdot{\bf R_i} - \omega t) } {\bf u}_i, \label{eq:uiuk} \end{equation} Page 81 Eq. (4.11) The first line sin omega_0 t -> sin omega_i t Page 83 Eq. (4.14) Gamma_q should be moved from denominator to numerator so that the integration on omega gives I_0. Page 84 Eq. (4.15) The ")" in both denominator and numerator should be just after omega_RBM. If 1/q_RBM = 0, I(omega) becomes Lorentzian. In the LaTeX, the following is a correct formula. \begin{equation} I(\omega) = I_0\frac {[1+(\omega - \omega_{\rm BWF})/q_{\rm BWF}\Gamma_{\rm BWF}]^2} {1+[(\omega - \omega_{\rm BWF})/\Gamma_{\rm BWF}]^2}\, , \label{eq-BWF} \end{equation} Page 106 the statement after Eq. (5.15) and the summation in Eq.(5.16) --> and the summation in Eq.(5.14) Page 107 Eq. (5.17) denominator \hbar^2 --> \hbar Page 181 Eq. (8,2) \omega_G - \omega_G^0 = (\Chi_T + \Chi_V) \Delta T = (d w / dT )_T dT + (d w / dT )_V \frac {\partial V}{\partical T} Delta T (8,2) Page 312 Eq. (13,8) The last exponential for the second term of C_s is missing. ..... C_S \left[ 1 - \exp \right( .... \left) \left] @@@@ (pointed by Dr. Casimir Daniel in 2022.6.28)