See also stories tagged with Microfluidics
One of the ultimate goals of medical science is to develop personalized disease diagnostics and therapeutics. With a patient's genetic information, doctors could tailor treatments to individuals, leading to safer and more ...
Imagine millions of soapy sponges the size of human cells that can clean water by soaking up contaminants. This simplistic model is used to describe technology that MIT chemical engineers have recently developed to remove ...
Bioprinting is widely applicable to develop tissue engineering scaffolds and form tissue models in the lab. Materials scientists use this method to construct complex 3D structures based on different polymers and hydrogels; ...
A Japanese research team created a new way to sort living cells suspended in fluid using an all-in-one operation in a lab-on-chip that required only 30 minutes for the entire separation process. This device eliminated the ...
Like middle school students, microparticles are not the world's most graceful dancers. For many of them, it's one step forward, one step back.
Precise manipulation and transportation of micro-sized droplets is a challenging task, yet crucial for biomedical and industrial applications. A research team led by a scholar from the City University of Hong Kong (CityU) ...
Optical evanescent microsensors have attracted considerable research interests since they can detect unlabelled molecules and monitor their interactions in real time and in situ with ultrahigh sensitivity, fast response, ...
Griffith University researchers have solved a problem plaguing droplet-sized micro-reactors which could improve the viability for applications like drug delivery and waste management. Published in Applied Physics Letters, ...
Bubbles aren't just for bath time. Bubbles, specifically bubbles in foamy flows, are critical for many industrial processes, including the production of food and cosmetics and drug development and delivery. But the behavior ...
UCLA scientists have devised a method for producing intricately shaped hydrogel microparticles at a rate of more than 40 million per hour—at least 10 times faster than the current standard approach.
