Brown University engineers have demonstrated a technique for making 3 - D - printed biomaterials that can degrade on demand, which can be useful in making intricately
patterned microfluidic devices or in making cell cultures than can change dynamically during experiments.
Not exact matches
The team integrated a three - dimensional array of carbon nanotubes into a
microfluidic device by using chemical vapor deposition and photolithography to grow and
pattern carbon nanotubes onto silicon wafers.
The technique could be useful could be useful in fabricating
microfluidic devices, creating biomaterials that respond dynamically to stimuli and in
patterning artificial tissue.
In their article, the teams describe how they used the process to etch
patterns of hollow channels like those used to direct the flow of liquids, such as a blood sample, in a
microfluidic device, or lab on a chip.