Critical Dynamics - CORRECTIONS

Chapter 2

p. 83, line following Eq. (2.151):
   "For a stationary solution"  ->  "For an equilibrium solution"

p. 85, four/three lines above Eq. (2.16):
   "\int_t^{t+\tau} dt' \int_t^{t+\tau} dt'' \delta(t-t')"  ->  
   "\int_t^{t+\tau} dt' \int_t^{t+\tau} dt'' \delta(t'-t'')"

   line following Eq. (2.160):
   "stationarity requires"  ->  "thermal equilibrium requires"


p. 89, third line of Eq. (2.178), second term:
   
   "\zeta \frac{\partial}{\partial v} [v \cdot P_1(x,v,t)]"  -> 
   
   "\zeta \frac{\partial}{\partial v} \cdot [v P_1(x,v,t)]"


p. 91, integrand in Eq. (2.190): "\phi(t-t')"  ->  "\phi(t'-t'')"

   Eq. (2.191): "J_1(x) = \left[ F_{\rm rev}(x) - \Gamma \, 
          \frac{\partial H(x)}{\partial x} \right] P_1(x,t) ... "  ->
   "J_1(x,t) = \left[ F_{\rm rev}[x(t)] - \Gamma \, 
          \frac{\delta H[x]}{\delta x(t)} \right] P_1(x,t) ... "

p. 92, Prob. 2.3 (a): "N^2 / V" -> "N^2 / V^2" on right-hand side

Chapter 3

p. 114, first line following Eq. (3.49):  
   "C = C_V / V T"  ->  "C = C_V T / V"

p. 116, in Eq. (3.58): 
   "F_{\rm rev}^\alpha[\psi]" -> "F_{\rm rev}^\alpha[\psi](x)"


Chapter 4

p. 167, second line after Eq. (4.104):
   "1/\tau - \kappa \partial F^\alpha_l / \partial \psi^\alpha_l" ->
   "1/\tau - \kappa \partial F^\alpha_{l+1} / \partial \psi^\alpha_{l+1}"

Chapter 6

p. 237, fifth line from bottom:
   "dynamic Monte Carlo simulations"  ->  "spin dynamics simulations"

p. 238, first line of Fig. 6.15 caption:  
   "Monte Carlo simulations"  ->  "Spin dynamics simulations"


Chapter 8


p. 312, Eq. (8.9), second line: "dt"  ->  "dt'"


p. 337, Eq. (8.102) l.h.s. needs \int_0^t_f dt

p. 337, bottom line: "A[S^\alpha(x, t - t_f)]" -> "A[S^\alpha(x, t_f - t)]"

p. 338: second line in equation on top: 
   "{\hat W}_J[S]" -> "{\hat W}_J[S] / k_{\rm B} T"

p. 341, Prob. 8.1: replace Z_0 with A_0:  "classical field equations 
   
   \delta {\cal Z}_0 / \delta {\widetilde S}^\alpha = 0 = 
    
    \delta {\cal Z}_0 / \delta S^\alpha" -> "classical field equations
   
   \delta {\cal A}_0 / \delta {\widetilde S}^\alpha = 0 = 
    
    \delta {\cal A}_0 / \delta S^\alpha" 



Chapter 9

p. 357, r.h.s. of Eq. (9.28):  "\sum_{n_i}"  ->  "\sum_{{n_i},{m_i},...}"

p. 357, second line following Eq. (9.30): 
   "n_i -> n_i + k - l"  ->  "n_i -> n_i - k + l"

p. 362, Eq. (9.47):
   in first line: insert "{\widetilde A}({1},{\phi_i})" before 
   "e^{\sum_i \phi_i(t_f)}"
   and in the second line insert square brackets "[" before "\sum_i" and "]" 
   at the end of the exponential

p. 362, in first line of Eq. (9.49):
   "H(\phi_i^*(t),\phi_i(t))"  ->  "H(\{ \phi_i^*(t) \},\{ \phi_i(t) \})"

p. 380, third line following Eq. (9.99):
   "\rho = (D J^2 / \lambda)^{1/3} a"  ->  "\rho = (\lambda / D J^2)^{1/3} a"


Chapter 10



p. 420, first line: "suseptible" -> "susceptible"



p. 421, fifth line and first line after Eq. (10.86): "\mu_{AB}" -> "\mu"


p. 432, Eq. (10.131): "- \rho \, \phi(x,t)^3" -> "+ \rho \, \phi(x,t)^3"