In the last decade, inertial microfluidics has attracted significant attention and a wide variety
of channel designs that focus, concentrate and separate particles and fluids have been …

Inertial microfluidics has gained significant attention since first being proposed in 2007
owing to the advantages of simplicity, high throughput, precise manipulation, and freedom …

Droplet-based microfluidic systems have been employed to manipulate discrete fluid
volumes with immiscible phases. Creating the fluid droplets at microscale has led to a …

Several biomedical analyses are performed on particular types of cells present in body
samples or using functionalized microparticles. Success in such analyses depends on the …

Inertial microfluidics uses the hydrodynamic effects induced at finite Reynolds numbers to
achieve passive manipulation of particles, cells, or fluids and offers the advantages of high …

Cell separation is a key step in many biomedical research areas including biotechnology,
cancer research, regenerative medicine, and drug discovery. While conventional cell sorting …

Inertial microfluidics has become a popular topic in microfluidics research for its good
performance in particle manipulation and its advantages of simple structure, high …

Inertial microfluidic technology, which can manipulate the target particle entirely relying on
the microchannel characteristic geometry and intrinsic hydrodynamic effect, has attracted …

Microfluidics has found ubiquitous presence in biological applications such as tissue
spheroid fabrication and pharmacology investigation. The increasing prevalence and …

Microfluidics, which is classified as either active or passive, is capable of separating cells of
interest from a complex and heterogeneous sample. Active methods utilise external fields …