TY - CHAP
T1 - CHAPTER 5
T2 - Elastic fibers in flows
AU - Lindner, Anke
AU - Shelley, Michael
N1 - Funding Information:
We thank Olivia du Roure, David Saintillan, and Harishankar Manikantan for a careful reading of our manuscript. MJS acknowledges the support of the US Department of Energy, National Science Foundation, and the National Institutes of Health. AL acknowledges support from the European Commission under FP7, and from Schlumberger Ltd.
Publisher Copyright:
© The Royal Society of Chemistry 2016.
PY - 2016
Y1 - 2016
N2 - A common class of fluid-structure interaction problems involves the dynamics of flexible fibers immersed in a Stokesian fluid. In biology, this topic arises in modeling the flagella or cilia involved in microorganism locomotion and mucal transport, in determining the shape of biofilm streamers, and in understanding how biopolymers such as microtubules respond to the active coupling afforded by motor proteins. In engineering, it arises in the paper-processing industry, where wood pulp suspensions can show an abrupt appearance of normal-stress differences, and in microfluidic engineering, where flow control using flexible particles has been explored. Over the past decade, the dynamics of immersed fibers has been studied intensively, particularly by theoretical means, while on the experimental side, recent advances in microfabrication and flow control have led to new insights. In this chapter we survey this work on the dynamics of flexible fibers in flows, including model experiments and the development of specialized numerical methods for simulating fiber dynamics in various flow situations.
AB - A common class of fluid-structure interaction problems involves the dynamics of flexible fibers immersed in a Stokesian fluid. In biology, this topic arises in modeling the flagella or cilia involved in microorganism locomotion and mucal transport, in determining the shape of biofilm streamers, and in understanding how biopolymers such as microtubules respond to the active coupling afforded by motor proteins. In engineering, it arises in the paper-processing industry, where wood pulp suspensions can show an abrupt appearance of normal-stress differences, and in microfluidic engineering, where flow control using flexible particles has been explored. Over the past decade, the dynamics of immersed fibers has been studied intensively, particularly by theoretical means, while on the experimental side, recent advances in microfabrication and flow control have led to new insights. In this chapter we survey this work on the dynamics of flexible fibers in flows, including model experiments and the development of specialized numerical methods for simulating fiber dynamics in various flow situations.
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U2 - 10.1039/9781782628491-00168
DO - 10.1039/9781782628491-00168
M3 - Chapter
AN - SCOPUS:84952877582
T3 - RSC Soft Matter
SP - 168
EP - 192
BT - Fluid�Structure Interactions in Low-Reynolds-Number Flows
A2 - Duprat, Camille
A2 - Stone, Howard A.
PB - Royal Society of Chemistry
ER -