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 …

Microfluidic detection methods for cell deformability cytometry have been regarded as
powerful tools for single‐cell analysis of cellular mechanical phenotypes, thus having been …

Reflecting various physiological states and phenotypes of single cells, intrinsic biophysical
characteristics (eg, mechanical and electrical properties) are reliable and important, label …

Circulating tumor cells (CTCs) have emerged as promising circulating biomarkers for non-
invasive cancer diagnosis and management. Isolation and detection of CTCs in clinical …

Single-cell encapsulation in droplets has become a powerful tool in immunotherapy,
medicine discovery, and single-cell analysis, thanks to its capability for cell confinement in …

Submicron-precision particle characterization is crucial for counting, sizing and identifying a
variety of biological particles, such as bacteria and apoptotic bodies. Microfluidic impedance …

Since it was first proposed in 2007, inertial microfluidics has been extensively studied in
terms of theory, design, fabrication, and application. In recent years, with the rapid …

Microfluidics provides a powerful platform for biological analysis by harnessing the ability to
precisely manipulate fluids and microparticles with integrated microsensors. Here, we …

Mechanical properties of single cells are important label‐free biomarkers normally
measured by expensive and complex imaging systems. To unlock this limit and allow …

Cell mechanical properties provide a label-free marker for indicating cell states and disease
processes. Although microfluidic deformability cytometry has demonstrated great potential …