In this work we report on a simple inertial microfluidic device that achieves continuous multi-
particle separation using the principle of Dean-coupled inertial migration in spiral …

The paper reports a new method for three-dimensional observation of the location of
focused particle streams along both the depth and width of the channel cross-section in …

Microparticle separation and concentration based on size has become indispensable in
many biomedical and environmental applications. In this paper we describe a passive …

In this paper, we describe a simple passive microfluidic device with rectangular
microchannel geometry for continuous particle filtration. The design takes advantage of …

Controllable manipulation of fluid flow is crucial for efficient particle separation, which is
associated with plenty of biomedical and industrial applications. Microfluidic technologies …

Inertial microfluidics functions solely based on the fluid dynamics at relatively high flow
speed. Thus, channel geometry is the critical design parameter that contributes to the …

Fluid inertia which has conventionally been neglected in microfluidics has been gaining
much attention for particle and cell manipulation because inertia-based methods inherently …

Separation of micro-and nano-sized bioparticles is essential for efficient diagnostics,
chemical and biological analyses, drug development, food and chemical processing, and …

Inertial microfluidics has emerged as an important tool for manipulating particles and cells.
For a better design of inertial microfluidic devices, we conduct 3D direct numerical …

Over the past two decades, inertial microfluidics, which works at an intermediate range of
Reynolds number (∼ 1< Re<∼ 100), has been widely used for particle separation due to its …