Lab-on-chip technologies are being developed for multiplexed single cell assays.
Impedance offers a simple non-invasive method for counting, identifying and monitoring …

Cell‐derived or extracellular vesicles, including microparticles and exosomes, are
abundantly present in body fluids such as blood. Although such vesicles have gained strong …

Microfluidic electrical impedance flow cytometry is now a well-known and established
method for single-cell analysis. Given the richness of the information provided by impedance …

Focusing particles (both biological and synthetic) into a tight stream is usually a necessary
step prior to counting, detecting, and sorting them. The various particle focusing approaches …

Microfabricated flow cytometers can detect, count, and analyze cells or particles using
microfluidics and electronics to give impedance‐based characterization. Such systems are …

Understanding the sources, impacts, and fate of microplastics in the environment is critical
for assessing the potential risks of these anthropogenic particles. However, our ability to …

The high-precision integration of three-dimensional (3D) microoptical components into
microfluidics in a customizable manner is crucial for optical sensing, fluorescence analysis …

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 …

Microfluidics impedance cytometry is an emerging research tool for high throughput analysis
of dielectric properties of cells and internal cellular components. This label-free method can …

Herein, we demonstrated the potential of surface-enhanced Raman scattering (SERS)
spectroscopy combined with microfluidics for the detection and discrimination of foodborne …