Typically made of glass or silicon, MFPs are tiny scientific tools used to study, process, and manipulate live cell cultures in a controlled environment. However, they cannot be easily produced on demand, and are expensive to make in large quantities.
The researchers fabricated their probes in a single step using stereolithographic 3D printing, and benchmarked the performance of the 3D-printed probes against standard MFPs. Their research suggests that 3D printers can provide a sophisticated, highly customizable MFP that works just as effectively as the standard.
At right: a microfluidic probe printed in 3D. Cube-shaped and green-colored, this probe is about the size of a ring box, however, the design can be printed in many sizes. Courtesy of NYU Abu Dhabi.
The researchers have made their CAD files available for others to try on their own stereolithographic 3D printers.
The research was published in Scientific Reports (doi: 10.1038/s41598-018-29304-x).