Link to the Notes and Comments page.
- Chapter 1, page 13, Exercise 1.8, formula after the sentence Numerically, MSD(nΔt) is calculated as follows:
N → Np - Chapter 1, page 13, Exercise 1.8, sentence after MSD(nΔt) formula:
Note → where Np is the number of points in the trajectory of the large particle. Note - Chapter 5, page 5-7, caption Fig. (5.4):
with inertia (equation 5.6, black dashed line) → with inertia (equation 5.6, cyan solid line)
without inertia (equation 5.7, cyan solid line) → without inertia (equation 5.7, black dashed line) - Chapter 5, page 5-7, Exercise 5.3c:
This shows that the motion of a Brownian particle is ergodic. → This shows that the motion of a Brownian particle is ergodic. [Hint: The numerical definition of the time-averaged MSDs and the ensemlbe-averaged MSDs is given in Chapter 6, Eqs. (6.2-6.3). The numerical definition of time-averaged MSDs is given also in Exercise 1.8 point b.] - Chapter 6, page 6-3, paragraph after Eq. (6.3):
where τi is a reference time at which to calculate the square displacements of the particle. → where τi is a reference time at which to calculate the square displacements of the particle and n is the number of elements in the summation (note: this number depends on τi). - Chapter 7, page 7-4, Exercise 7.3, paragraph after Eq. (7.8):
σ( −L ⁄ 2 )=0.1 and σ( −L ⁄ 2 )=1.9 → σ( −L ⁄ 2 )=0.1 and σ( L ⁄ 2 )=1.9 - Chapter 7, page 7-5, paragraph after Eq. (7.4):
a standard deviation of σ√(2jΔt) → a standard deviation of σ√(jΔt) - Chapter 7, page 7-7, Eq. (7.11), right hand side:
ασ(xt) dσ(xt)/dx Δt±σ√(Δt) → ασ(xj) dσ(xj)/dx Δt±σ(xj)√(Δt) - Chapter 7, page 7-9, Exercise. 7.6, end of the initial paragraph:
[…] and with multiplicative noise (as in exercise 7.3). → […] and with multiplicative noise (as in exercise 7.4b). - Chapter 7, page 7-12, Eq. (7.22), third equation, right hand side:
dWx,t → dWz,t - Chapter 8, page 8-3, Eq. (8.3):
vj,n+1 → vj,n - Chapter 11, page 11-2, bottom line:
with some probability 1∸ → with some probability 1−d - Chapter 14, page 14-8, Eq. (14.11) (second equation, for yn+1):
yn+1 = yn + (δxnyn+1-γyn) Δt → yn+1 = yn + (δxnyn+1-γyn+1) Δt
- Chapter 14, page 14-8, Eq. (14.12) (second equation, for yn+1):
yn+1 = yn + (δxn+1yn-γyn+1) Δt → yn+1 = yn + (δxn+1yn-γyn) Δt
- Chapter 14, page 14-12, Eq. (14.19):
xeq = (α1r1+β12r1)/(α1α2-β12β21) → xeq = (α2r1+β12r1)/(α1α2-β12β21) - Chapter 15, page 15-5, Exercise 14.2a:
Create the corresponding distance matrix M → Create the corresponding connection matrix M