A compact microfluidic device with 96 microchambers allocated within four circular units was designed and examined for cell distribution. In each unit, cells were distributed to the surrounding chambers radially from the center. The circular arrangement of the chambers makes the design simple and compact. A controllable and quantitative cell distribution is achievable in this device. This design is significant to the microfluidic applications where controllable distribution of cells in multipule microchambers is demanded
Cell-cell interactions play an important role in the development and function of multicellular organ...
A microfluidic lab-on-chip device was developed to automatically and selectively manipulate target c...
<p>The microfluidic channel consisted of four branches (120x120μm), which allowed for four simultane...
A compact microfluidic device with 96 microchambers allocated within four circular units was designe...
The uniform dispersion of cells in a microchamber is important to reproduce results in cellular rese...
Microfluidic devices for cell sorting or cell fractionation are disclosed. A microfluidic device can...
<p>(A) Layout of the integrated microfluidic device mainly composed of an upstream CGG and a downstr...
Microfluidics is a quickly expanding field with numerous applications. The advent of rapid-prototypi...
<p>(a) Device schematic with inset of confinement assay. The posts are 20×80 µm spaced equally 40 µm...
Microfluidics is a rapidly growing field of biomedical engineering with numerous applications such a...
This paper details the control and operation of a new microfluidic chip whose architecture of three ...
Microfluidic systems enable automated and highly parallelized cell culture with low volumes and defi...
Microfluidic channels enable the control of cell positioning and the capturing of cells for high-thr...
In recent times, numerous microfluidic devices have been developed to assist in cell analysis both i...
The study of individual cells and cellular networks can greatly benefit from the capabilities of mic...
Cell-cell interactions play an important role in the development and function of multicellular organ...
A microfluidic lab-on-chip device was developed to automatically and selectively manipulate target c...
<p>The microfluidic channel consisted of four branches (120x120μm), which allowed for four simultane...
A compact microfluidic device with 96 microchambers allocated within four circular units was designe...
The uniform dispersion of cells in a microchamber is important to reproduce results in cellular rese...
Microfluidic devices for cell sorting or cell fractionation are disclosed. A microfluidic device can...
<p>(A) Layout of the integrated microfluidic device mainly composed of an upstream CGG and a downstr...
Microfluidics is a quickly expanding field with numerous applications. The advent of rapid-prototypi...
<p>(a) Device schematic with inset of confinement assay. The posts are 20×80 µm spaced equally 40 µm...
Microfluidics is a rapidly growing field of biomedical engineering with numerous applications such a...
This paper details the control and operation of a new microfluidic chip whose architecture of three ...
Microfluidic systems enable automated and highly parallelized cell culture with low volumes and defi...
Microfluidic channels enable the control of cell positioning and the capturing of cells for high-thr...
In recent times, numerous microfluidic devices have been developed to assist in cell analysis both i...
The study of individual cells and cellular networks can greatly benefit from the capabilities of mic...
Cell-cell interactions play an important role in the development and function of multicellular organ...
A microfluidic lab-on-chip device was developed to automatically and selectively manipulate target c...
<p>The microfluidic channel consisted of four branches (120x120μm), which allowed for four simultane...