The advancement of microfluidics has enabled numerous discoveries and technologies in
life sciences. However, due to the lack of industry standards and configurability, the design …

Microfluidics describes the study of systems that operate fluids at miniature scales, often in
microchannels. It is powerful in scaling down biological experiments by many orders of …

The separation of specific cell populations is instrumental in gaining insights into cellular
processes, elucidating disease mechanisms, and advancing applications in tissue …

Efficient enrichment and accurate diagnosis of cancer cells from biological samples can
guide effective treatment strategies. However, the accessibility and accuracy of rapid …

Inertial microfluidics manipulates and separates microparticles based on the finite inertia of
the fluid at high flow speed. In inertial microfluidics, modifying the geometry by embedding …

Separation of malignant tumor cells (MTCs) from large background cells in untreated
malignant pleural and peritoneal effusions (MPPEs) is critical for improving the sensitivity …

Cell separation plays a crucial role in diagnosing and improving a wide range of diseases,
such as cancer, which is a severe reason for the death of people in the current decades …

Inertial microfluidics uses the intrinsic fluid inertia in confined channels to manipulate the
particles and cells in a simple, high-throughput, and precise manner. Inertial focusing in a …

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

Size-based particle filtration has become indispensable in numerous biomedical and
environmental applications. In this study, bioinspired by the filter-feeding mechanism (lobe …