Self-propelling droplets on fibres subject to a crosswind

被引:0
|
作者
Pierre-Brice Bintein
Hadrien Bense
Christophe Clanet
David Quéré
机构
[1] Physique et Mécanique des Milieux Hétérogènes,
[2] UMR 7636 du CNRS,undefined
[3] ESPCI Paris,undefined
[4] PSL Research University,undefined
[5] LadHyX,undefined
[6] UMR 7646 du CNRS,undefined
[7] École polytechnique,undefined
来源
Nature Physics | 2019年 / 15卷
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摘要
In many situations in which droplets wet fibres, wind is present. Large nets are used to harvest fog transported by coastal breezes from the ocean1,2 and noxious aerosols are contained in chemical plants by driving them across fibrous filters3,4. In glass wool factories, thin fibres are subjected to airflows as they are simultaneously sprayed with resin to glue them together5,6. The control and reconfiguration of the liquid in these situations is essential. It can be set geometrically, as is the case for assemblies of non-parallel fibres6,7 or tapered cylinders8–11, but the wind itself may also be exploited for this purpose4,12,13. Here, we show that a transverse wind can induce directional motion of droplets along horizontal fibres—even upwind if the fibre is tilted—and generate strong repulsive interactions between droplets. All of these effects are interpreted as consequences of asymmetric wakes behind the liquid.
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页码:1027 / 1032
页数:5
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