Particles adsorbed to fluid interfaces are ubiquitous in industry, nature or life. The wide
range of properties arising from the assembly of particles at fluid interface has stimulated an …

We review recent work on active colloids at interfaces, including self-propelled colloids that
move by generating a propulsive force, and driven colloids that move under external fields …

Hypothesis The use of superhydrophobic materials to remove particulate pollutants such as
microplastics is still in its infancy. In a previous study, we investigated the effectiveness of …

The encapsulation of a rigid core within a soft polymeric shell allows obtaining composite
colloidal particles that retain functional properties, eg, optical or mechanical. At the same …

Nanofluids, which have improved thermal conductivity compared to regular lubricants, can
assist in the dissipation of heat while cutting materials. A colloidal suspension can be formed …

Particle trapping is a powerful tool for tailoring fluid interfaces, offering unprecedented
control over interfacial properties and behaviors. In this review, we delve into the intricate …

Identifying and removing microplastics (MPs) from the environment is a global challenge.
This study explores how the colloidal fraction of MPs assemble into distinct 2D patterns at …

Microgels are soft colloidal particles constituted by cross-linked polymer networks with a
high potential for applications. In particular, after adsorption at a fluid interface, interfacial …

The interaction of particles with fluid interfaces is ubiquitous in synthetic and natural work,
involving two types of interactions: particle–interface interactions (trapping energy) and …

The self-assembly of core/shell nanoparticles (NPs) at fluid interfaces is a rapidly evolving
area with tremendous potential in various fields, including biomedicine, display devices …