We propose a methodology for swimming at low-Reynolds-number flows based on ciliary motion of a microswimmer using magnetic actuation of artificial cilia.By solving the coupled magnetic-elastic-hydrodynamic problem, we demonstrate nonreciprocal effective and recovery strokes for cilia that nicely mimic natural cilia beating. Cilia drag forces, microswimmer net displacement, velocity, and efficiency are calculated, and we show the model can swim using a prespecified magnetic actuation. The proposed methodology can be used for devising biomedical microdevices that swim in viscous flows inside the human body
Copyright © 2008 The American Physical SocietyWe propose a model for a novel artificial low Reynolds...
Natural cilia are hairlike microtubule-based structures that are able to move fluid on the micromete...
Natural cilia are hairlike microtubule-based structures that are able to move fluid on the micromete...
Most microorganisms use cilia or flagella as a means of propulsion. These low Reynolds number swimmi...
Most microorganisms use cilia or flagella as a means of propulsion. These low Reynolds number swimmi...
Most microorganisms use cilia or flagella as a means of propulsion. These low Reynolds number swimmi...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
By numerical modeling we investigate fluid transport in low-Reynolds-number flow achieved with a spe...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
Copyright © 2008 The American Physical SocietyWe propose a model for a novel artificial low Reynolds...
Natural cilia are hairlike microtubule-based structures that are able to move fluid on the micromete...
Natural cilia are hairlike microtubule-based structures that are able to move fluid on the micromete...
Most microorganisms use cilia or flagella as a means of propulsion. These low Reynolds number swimmi...
Most microorganisms use cilia or flagella as a means of propulsion. These low Reynolds number swimmi...
Most microorganisms use cilia or flagella as a means of propulsion. These low Reynolds number swimmi...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
By numerical modeling we investigate fluid transport in low-Reynolds-number flow achieved with a spe...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
In this work we mimic the efficient propulsion mechanism of natural cilia by magnetically actuating ...
Copyright © 2008 The American Physical SocietyWe propose a model for a novel artificial low Reynolds...
Natural cilia are hairlike microtubule-based structures that are able to move fluid on the micromete...
Natural cilia are hairlike microtubule-based structures that are able to move fluid on the micromete...