Microfluidic

Human blood can typically only be stored for six weeks. It also needs to be refrigerated, which may be challenging in poor countries or remote locations. A new study, though, could lead to a method of drying blood for long-term storage.

Currently, in order to determine if someone has a urinary tract infection, their urine sample has to be sent off to a lab – it takes days to get results. Now, scientists have created a smartphone-enabled system that works in less than 25 minutes.

Diagnosing asthma in small children is often challenging, as standard measures such as lung function tests can't be used below a certain age. A new blood-analysis device could help, however, delivering definitive results in less than two hours.

Microfluidic chips are typically made out of plastic, but scientists are now taking a more eco-friendly approach, using wood.

New MIT and Harvard research shows how versatile CRISPR is, putting the genetic scissors to work in diagnostic tools and timed drug delivery systems.

​Sepsis occurs when the body's immune system releases chemicals to fight an infection, triggering widespread inflammation. If not treated soon enough, organ failure and even death can ultimately result. A new device, however, could detect it earlier than ever.

The placenta may be one of the least understood organs, but it’s important to study its effects on the health of a developing fetus. Researchers at Iowa State University have used microfluidic models of the organ, a placenta-on-a-chip, to see if, and how much, caffeine can cross from mother to baby.

​It was just a couple of months ago that L'Oréal announced My Skin Track UV, a wearable battery-free device that measures its user's ultraviolet light exposure. Well, the company has now unveiled My Skin Track pH, a wearable that monitors the pH levels of its user's skin.

​Ordinarily, it takes two to five days to determine if harmful bacteria are present in a patient's biological samples. Within that time, any infection that's present could get much worse. A newly-developed biosensor, however, is capable of analyzing samples on the spot.

This design for a smart wristband from engineers at Rutgers University promises a new generation of wearable health and environment trackers. The prototype device can wirelessly connect to a smartphone that then processes and displays a broad assortment of biomarkers including blood cell counts.

If robots are ever going to work alongside humans in the real world, they're going to need a softer touch. Harvard researchers have developed a new method for producing small-scale squishy robots, and demonstrated it by creating a flexible robotic peacock spider, driven by a microfluidics system.

​We've already seen a robotic device that's capable of inserting intravenous needles in people's arms. Now, researchers from New Jersey's Rutgers University have designed a system for drawing and analyzing blood samples.