Inks of permanent markers and water-proof cosmetics create elastic thin films
upon application on a surface. Such adhesive materials are deliberately
designed to exhibit water-repellent behavior. Therefore, patterns made up of
these inks become resistant to moisture and cannot be cleaned by water after
drying. However, we show that sufficiently slow dipping of such elastic films,
which are adhered to a substrate, into a bath of pure water allows complete
removal of the hydrophobic coatings. Upon dipping, the air-water interface in
the bath forms a contact line on the substrate, which exerts a
capillary-induced peeling force at the edge of the hydrophobic thin film. We
highlight that this capillary peeling process is more effective at lower
velocities of the air-liquid interface and lower viscosities. Capillary peeling
not only removes such thin films from the substrate but also transfers them
flawlessly onto the air-water interface