The biophysical analysis of single-cells by microfluidic impedance cytometry is emerging as
a label-free and high-throughput means to stratify the heterogeneity of cellular systems …

Single-cell analysis has gained considerable attention for disease diagnosis, drug
screening, and differentiation monitoring. Compared to the well-established flow cytometry …

The intrinsic biophysical states of neutrophils are associated with immune dysfunctions in
diseases. While advanced image‐based biophysical flow cytometers can probe cell …

Single-cell analysis is developed with an aim to understand the cellular heterogeneity,
including protein content, DNA, RNA, as well as the cellular metabolism. Microflow cytometry …

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 …

The ability to precisely control particle migration within microfluidic systems is essential for
focusing, separating, counting, and detecting a wide range of biological species. To date …

Flow cytometry has proven its capability for rapid and quantitative analysis of individual cells
and the separation of targeted biological samples from others. The emerging microfluidics …

A consistent cell transit position is essential for accurately characterize cellular impedance
signature. In this paper, we integrated asymmetric serpentine structure and elasto-inertial …

Cell sorting is an essential prerequisite for cell research and has great value in life science
and clinical studies. Among the many microfluidic cell sorting technologies, label-free …

A laboratory blood test is vital for assessing a patient's health and disease status. Advances
in microfluidic technology have opened the door for on-chip blood analysis. Currently …