The ability to manipulate and focus particles within microscale fluidic environments is crucial
to advancing biological, chemical, and medical research. Precise and high-throughput …

Rapid antimicrobial susceptibility testing (AST) with the ability of bacterial identification is
urgently needed for evidence-based antibiotic prescription. Herein, we propose an …

Stagnation-based microfluidics technology is promising for microparticle control due to its
noncontact and low cost. However, the current research is still hindered by insufficient pose …

Microfluidic manipulation has been widely applied in bio-chemical research and
applications, including bacteria/cell/protein mixing, separation, focusing, concentration, and …

Antimicrobial resistance is getting serious and becoming a threat to public health worldwide.
The improper and excessive use of antibiotics is responsible for this situation. The standard …

Microfluidics technology is trustworthy for microparticle operation as it doesn't involve
destructive contact. Our research endeavors have encompassed microparticles …

Previously we have originally reported and experimentally explored the stable expansion
phenomenon of sheath flow in straight microchannels. The stable expansion phenomenon …

Microfluidic microparticle manipulation is currently widely used in environmental, bio-
chemical, and medical applications. Previously we proposed a straight microchannel with …

Hypothesis Coherent structures by low-Stokes-number particles are induced within a closed
flow, in which ordered flow regions known as Kolmogorov-Arnold-Moser (KAM) tori emerge …

Inertial microfluidics, as an efficient method for the manipulation of micro-/nanoparticles, has
garnered significant attention due to its advantages of high throughput, structural simplicity …