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Synapse
May 16, 2026Soft Matter0 citationsOpen Access

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Key Points

  • The aim is to understand how the shape of Janus particles affects their motion at the air-water interface due to Marangoni stresses.
  • Experimental and numerical studies on camphor-infused Janus particles at the air-water interface.
  • Investigation of particle dynamics based on shapes such as circular and elongated.
  • Development of a theoretical model combining camphor dynamics with particle transport.
  • Circular particles displayed straight-line motion, while elongated particles followed circular trajectories.
  • The radii and angular velocities of circular trajectories were determined by the geometry of the particles.
  • The theoretical model successfully explained the relationship between chemical properties and the motion behavior.

Abstract

Dynamics of Marangoni-driven elliptical Janus particlesThe motion of camphor-infused Janus particles at the air-water interface is studied experimentally and numerically.The particle dynamics, driven by Marangoni stresses, is governed by particle shape.While circular particles exhibit straight-line motion, more elongated particles follow circular trajectories, with radii and angular velocities set by their geometry.A theoretical model that couples camphor dynamics with particle transport explains how chemical properties determine the steady-state behavior.

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Cite This Study

A 2026 study studied this question.

synapsesocial.com/papers/6a0808ffa487c87a6a40b20ahttps://doi.org/10.1039/d6sm90085b
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