Phoretic Self-Propulsion
368 citations recorded by the source corpus.
Subfields: Biomedical Engineering, Condensed Matter Physics, Materials Chemistry
View Paper: https://www.semanticscholar.org/paper/3fbc6a6d4bb7d6a3a980ab0b824ef29ee300b924
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Biomedical Engineering
- S. Michelin
- Eric Lauga
- Wei Gao
- Arezoo Motavalizadeh Ardekani
- Gaojin Li
- Liangfang Zhang
- Joseph Wang
- Serge Cosnier
In Condensed Matter Physics
- S. Michelin
- Eric Lauga
- Arezoo Motavalizadeh Ardekani
- Gaojin Li
- Wei Gao
- T. Pedley
- David Saintillan
- J. Rodrigo Vélez-Cordero
In Materials Chemistry
- Arezoo Motavalizadeh Ardekani
- Gaojin Li
- S. Michelin
- Eric Lauga
- Joseph Wang
- T. Powers
- J. Rodrigo Vélez-Cordero
Citations in the corpus
- Micro/Nanorobots for Biomedicine: Delivery, Surgery, Sensing, and Detoxification (2017, background): “Chemically-powered motors can propel themselves through aqueous solution by using surface reactions for generating local gradients of concentration, electrical potential, and gas bubbles (9,21,22).”
- Microswimming in viscoelastic fluids (2021, methodology): “A squirmer is also the appropriate mathematical model to describe the motion of a self-propelled droplet driven by marangoni stresses [103,104] and autophoretic colloidal particles driven by electrophoresis, diffusiophoresis or thermophoresis, be they externally driven or self-generated [29,105,106]”
- Self-Propulsion of Chemically Active Droplets (2022, background): “…storage and actuation of deformable structures, chemically-active swimmers convert chemical energy stored internally or in their environment into interfacial flows along their surface, thus prescribing mechanical stresses on the surrounding fluid to achieve self-propulsion (Moran & Posner 2017).”