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100 1 _ |a Vliegenthart, Gerard A.
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245 _ _ |a Filamentous active matter: Band formation, bending, buckling, and defects
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520 _ _ |a Motor proteins drive persistent motion and self-organization of cytoskeletal filaments. However, state-of-the-art microscopy techniques and continuum modeling approaches focus on large length and time scales. Here, we perform component-based computer simulations of polar filaments and molecular motors linking microscopic interactions and activity to self-organization and dynamics from the filament level up to the mesoscopic domain level. Dynamic filament cross-linking and sliding and excluded-volume interactions promote formation of bundles at small densities and of active polar nematics at high densities. A buckling-type instability sets the size of polar domains and the density of topological defects. We predict a universal scaling of the active diffusion coefficient and the domain size with activity, and its dependence on parameters like motor concentration and filament persistence length. Our results provide a microscopic understanding of cytoplasmic streaming in cells and help to develop design strategies for novel engineered active materials.
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700 1 _ |a Ravichandran, Arvind
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700 1 _ |a Ripoll, Marisol
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700 1 _ |a Auth, Thorsten
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700 1 _ |a Gompper, Gerhard
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