2010
DOI: 10.1103/physrevlett.105.154301
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Desorption to Delamination: Dynamics of Detachment in a Colloidal Thin Film

Abstract: Colloidal thin films of varying rigidity detaching from a substrate under an electric field induced stress are studied by video microscopy. For soft films, the process of detachment shows single-particle dynamics, analogous to desorption. For rigid films, a collective delamination spanning hundreds of particles occurs. A competition among the rigidity of the film, the interaction with the substrate, and the external stress leads to a correlation length over which the film delaminates at a critical stress. The … Show more

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Cited by 3 publications
(2 citation statements)
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“…[4][5][6] It is observed over a wide range of length scales extending from the atomic dimensions, e.g., gas adsorbed on a metal surface 7 to macroscopic structures like paint on a wall. 8 The eld is replete with many interesting observations. For example, the phenomenon is more pervasive at smaller length scales: two colloidal silica particles readily stick, while glass marbles do not.…”
Section: Introductionmentioning
confidence: 99%
“…[4][5][6] It is observed over a wide range of length scales extending from the atomic dimensions, e.g., gas adsorbed on a metal surface 7 to macroscopic structures like paint on a wall. 8 The eld is replete with many interesting observations. For example, the phenomenon is more pervasive at smaller length scales: two colloidal silica particles readily stick, while glass marbles do not.…”
Section: Introductionmentioning
confidence: 99%
“…The removal of trapped air from the column demonstrates the existence of an underlying dynamical transition via which the failure-mode transforms from being brittle to being ductile, both of which are collective (multi-particles) in nature, and finally to a total disintegration of the skin that represents failure at the singleparticle level. This is analogous to dynamical transitions from collective response to single-particle response in a wide class of systems [49].…”
Section: Brittle To Ductile To a Single Particle Disintegration: Tuni...mentioning
confidence: 79%