Overview of SMPL research Overview of SMPL research

SMPL Publications

Overview of our research:

  • Macroscopic locomotion strategies and molecular regulation in bacteria
  • Collective behavior and swarm intelligence in autonomous motile systems and living organisms
  • Interactions between bacteria and biological fluids and their medical applications

Swimming behavior and collective motion

Motile bacteria, such as E. Coli, drive themselves to move by rotating one or more helical flagella, and show fascinating swimming patterns. Over billions years, the tiny machinery developed amazing locomotion strateges to survilve within complex fluids and versatile confinements. Moreover, they interact with their neighbors to form collective motion, which shows intriguing phenomena from the non-equilibrium physics point of view. In this section, related articles are listed to tell our understanding towards many interesting questions asked.

Mechanobiology of cells

By learning the mechanism of force sensing of smart eukaryocyte cells, we are wondering how the bacteria, a kind of prokaryotic cell, sense normal and lateral stress particularly in dynamic flows. The bacterial flagella motor is able to response to the mechanical load from the flowing environments, which provide a nice window with our tracking system equipped with visualisation tools under microscope. In this section, we are on the way to investigate the force sensing and rheosensing of cells.

Statistical physics and phase transition

Swimming bacteria, one of model system of active particle, inject energy into the system by transferring biochemical reaction into mechanical movement. Therefore this active matter system is driven far away from equilibrium state. With the understanding from the statistical physics in magnetic system, phase transition and dynamics for this active system are greatly interesting.

Wetting Dynamics and Microfluidics

Wetting dynamics and surface tension are important in soft matter system, particularly at small scale, where surface tension of interface dominates. In the past years, we tried to understand the surface phenomena governed by surface tension and drying in drops and thin liquid films.

Hard condensed matter

Exploring material properties in condensed matter systems.
(2024). Swimming Microorganisms as Active Colloids. Active Colloids: From Fundamentals to Frontiers.

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(2021). Drying crack patterns of sessile drops with tuned contact line. Colloids and Surfaces A: Physicochemical and Engineering Aspects..

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