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Self-assembly of magnetically interacting cubes by a turbulent fluid flow
Author(s) -
Filip Ilievski,
Madhav Mani,
George M. Whitesides,
Michael P. Brenner
Publication year - 2011
Publication title -
physical review e
Language(s) - English
Resource type - Journals
eISSN - 1550-2376
pISSN - 1539-3755
DOI - 10.1103/physreve.83.017301
Subject(s) - turbulence , yield (engineering) , flow (mathematics) , work (physics) , chain (unit) , thermal , mechanics , materials science , polymer , vibration , fluid dynamics , statistical physics , physics , thermodynamics , composite material , quantum mechanics , astronomy
Previous work has demonstrated that combining mechanical vibration with magnetic interactions can result in the self-assembly of complex structures, albeit at low yield. Here we introduce a system where the yield of self-assembled structures is quantitatively predicted by a theoretical analysis. Millimeter-sized magnetic blocks, designed to form chains as their minimal energy state, are placed in a turbulent fluid flow. The distribution of chain lengths that form is quantitatively consistent with predictions, showing that the chain length distribution coincides with that of monomers or polymers in a thermal bath, with the turbulence strength parametrizing the effective temperature.

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