Articles on Microfluidics

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Microfluidics makes use of tiny channels to speed up analyses of biomolecules such as DNA and proteins. Thom Leach/Science Photo Library via Getty Images

Tiny laboratories that fit in your hand can rapidly identify pathogens using electricity

Pathogens have distinct electrical charges, shapes and sizes. Measuring how quickly they move through an electric field can help researchers separate different species in a sample in minutes.
The lung-on-a-chip can mimic both the physical and mechanical qualities of a human lung. Wyss Institute for Biologically Inspired Engineering, Harvard University/Flickr

Organ‑on‑a‑chip models allow researchers to conduct studies closer to real‑life conditions – and possibly grease the drug development pipeline

Successes in the lab mostly don’t translate to people. Research models that better mimic the human body could close the gap.
The pipes imprinted on microfluidic chips are about the size of a human hair, and in many ways are like miniaturizing a chemical manufacturing plant. (Katherine Elvira)

New cancer treatments can be tested in artificial cells on tiny chips the size of a postage stamp

Artificial cells on tiny microfluidic chips can provide early insight into how new cancer drugs behave in cells, and why certain kinds of cancer are more resistant to chemotherapy treatment.
Anything that moves or processes tiny amounts of fluid is a microfluidic device. Chris Neils/Albert Folch

Microfluidics: The tiny, beautiful tech hidden all around you

Electronics are not the only technology to have been miniaturized. Using the strange behavior of fluids in tiny spaces, microfluidic devices are critical to medicine, science and the modern world.

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