text: for µ < −2 the ﬁlm will dewet via a nucleation or spinodal-like process. If the nanoparticles are 
  
  present, they form dried-in structures when all the liquid evaporates. The ﬁnal structures do not 
  
  normally change any further – at least on short time scales. However, if the liquid wets the particles 
  
  (i.e. is attracted to the particles), over long times there might be a coarsening of the structures, 
  
  facilitated by the adsorbed liquid. The dried-in patterns depend on the particular pathway taken by 
  
  the evaporative dewetting process. They range from labyrinthine to polygonal network structures 
  
  or holes in a dense particle layer. Some typical patterns are displayed in Fig. 2, for cases when 
  
  the average surface coverage of the nanoparticles ρav 
  
  n = 0.2. Panels (a) and (b) result from a 
  spinodal-like and nucleation and growth process, respectively. At ﬁrst sight they look very similar 
  
  to the patterns seen for the pure solvent and one might argue that the particles solely act as passive 
  
  tracers and preserve the transient volatile dewetting structures of the solvent. This was suggested 
  
  in Refs. [26–28] for dewetting collagen solutions. However, panels (c) and (d) indicate that the 