
The physical mechanism behind the spontaneous formation of metachronal waves in microtubule arrays in a low Reynolds number fluid has been of interest for the past several years, yet is still not well understood. We present a model implementing the hydrodynamic coupling hypothesis from first principles, and use this model to simulate kinesin-driven microtubule arrays and observe their emergent behavior. The results of simulations are compared to known experimental observations by Sanchez et al. By varying parameters, we determine regimes in which the metachronal wave phenomenon emerges, and categorize other types of possible microtubule motion outside these regimes.
5 pages, 5 figures, supplement: 8 pages 3 figures
Quantitative Biology - Subcellular Processes, Applied Mathematics, Classical Physics, Mechanical Engineering, FOS: Physical sciences, Condensed Matter - Soft Condensed Matter, Engineering, Fluid mechanics and thermal engineering, FOS: Biological sciences, Soft Condensed Matter (cond-mat.soft), Maritime Engineering, Subcellular Processes (q-bio.SC)
Quantitative Biology - Subcellular Processes, Applied Mathematics, Classical Physics, Mechanical Engineering, FOS: Physical sciences, Condensed Matter - Soft Condensed Matter, Engineering, Fluid mechanics and thermal engineering, FOS: Biological sciences, Soft Condensed Matter (cond-mat.soft), Maritime Engineering, Subcellular Processes (q-bio.SC)
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