2019
DOI: 10.1039/c9sm00724e
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Ferrofluid Leidenfrost droplets

Abstract: We experimentally investigate the behavior of ferrofluid Leidenfrost droplets subject to a magnetic field gradient. As a droplet evaporates, it experiences a bouncing instability and finally takes off when its radius reaches a critical value.

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Cited by 2 publications
(1 citation statement)
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“…Magnetic fluids strongly correspond to magnetic fields, and the local positioning ability of external magnets can be used to control droplets on a microscale. D'Angelo et al [71] found the Leidenfrost behavior of ferromagnetic fluid under the action of a magnetic field and considered the droplet motion as a function of the substrate-magnet distance. Li et al [62] adopted a couple of modified steel beads (superhydrophilic or superhydrophobic) and a magnetic control system to form an operating system.…”
Section: Fundamentals Of Magnetic Field-driven Liquidsmentioning
confidence: 99%
“…Magnetic fluids strongly correspond to magnetic fields, and the local positioning ability of external magnets can be used to control droplets on a microscale. D'Angelo et al [71] found the Leidenfrost behavior of ferromagnetic fluid under the action of a magnetic field and considered the droplet motion as a function of the substrate-magnet distance. Li et al [62] adopted a couple of modified steel beads (superhydrophilic or superhydrophobic) and a magnetic control system to form an operating system.…”
Section: Fundamentals Of Magnetic Field-driven Liquidsmentioning
confidence: 99%