Mechanical properties of cells are not only unique intrinsic labels of cells, but also closely
related to the behaviors and functions of cells under various physiological and pathological …

Accurate mechanical measurements of cells has the potential to improve diagnostics,
therapeutics and advance understanding of disease mechanisms, where high-resolution …

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

Red blood cells (RBC), the primary component of whole blood, play an essential role in
maintaining blood fluidity and mass transport throughout the human body. RBC …

Previous on‐chip technologies for characterizing the cellular mechanical properties often
suffer from a low throughput and limited sensitivity. Herein, an inertial multi‐force …

Spherical micro/nanorobots are reported as attractive candidates in nano‐surgery,
contamination degradation, analytical chemistry, medical engineering, etc. Unlike …

Co‐encapsulation of bead carriers and biological cells in microfluidics has become a
powerful technique for various biological assays in single‐cell genomics and drug screening …

The counts and phenotypes of circulating tumor cells (CTCs) in whole blood are useful for
disease monitoring and prognostic assessment of cancer. However, phenotyping CTCs in …

Single‐cell biophysical properties play a crucial role in regulating cellular physiological
states and functions, demonstrating significant potential in the fields of life sciences and …

The existence of many background blood cells hinders the accurate identification of
circulating tumor cells (CTCs) in the blood of cancer patients. To unlock this limitation, a …