Graphene-based Biosensor Provides Ultrasensitive DNA, RNA Detection
New biosensor relying on deformed graphene makes it possible to detect just a few biomolecules in blood or serum.
New biosensor relying on deformed graphene makes it possible to detect just a few biomolecules in blood or serum.
Hear from James about promising career paths in cell-free systems, and get a preview of his upcoming talk at the Cell Free Systems Conference.
The device aims to test and predict the effects of biological and chemical agents, diseases, or drugs on the brain without the need for human or animal subjects.
Researchers at NIST have developed a method of testing that determines whether an antibiotic fights its targeted infection.
New lab-on-a-chip technology looks at immune response for early sepsis detection.
The molecular cages show potential for use in energy conversion, drug delivery, and as sensors.
A new biosensor is capable of rapid detection of the H1N1 flu virus, a strain which poses a strong treat for pandemic outbreak.
Biomedical engineers at Duke University have devised an improved method for detecting the signs of cancer in a single cell using lasers and a camera.
Using nanostraws, scientists can now sample cell contents without disrupting a cell's natural processes.
A new tool has been developed to sniff out the flu: a hand-held breath monitor that detects the flu virus.
Thanks to microfluidics, electronics and inkjet technology, researchers at the Stanford University School of Medicine have developed a new process for creating reusable lab-on-a-chip technology tha
This special issue focuses on smart and precision medications, presenting novel work aimed at a wide range of medical applications, from diabetes treatments, cancer therapy, tissue engineering, drug delivery, and more.
When the Paris climate accord goes into effect in November, the world will have to start living within a tight carbon budget.
Not sure if you’ve had one too many? Engineers at the University of California San Diego have developed a small, flexible sensor that can answer that question.
Researchers at Purdue University have created a new type of electronic sensor that can now distinguish between living and dead bacteria cells.
Researchers in Madrid have developed a polymer sensor that aims to spare drinkers from the taste of stale beer.
Biological engineer James Collins of MIT and a team of researchers have created a paper-based test that differentiates between Zika virus strains.
British researchers have created a bandage that warns of common infections by turning a fluorescent green within four hours of pathogen detection.
Zhenan Bao is the 2015 recipient of the Andreas Acrivos Award for Professional Progress in Chemical Engineering.
A team of researchers has invented a new method that reduces the manufacturing time of wearable electronic health monitors from several days to 20 minutes.
Because detecting biological molecules for medical diagnostic work is an expensive process, Swiss researchers at EPFL set out to find a more econom
The threat of antibiotic-resistant infections in the US is significant.
Graphene has serious competition, according to researchers at the University of California at Santa Barbara, who are using molybdenum disulfide or molybdenite (MoS2) as an ultrasensitive semiconductor material for biosensing.
UCLA announced that the lab of one of its researchers, Aydogan Ozcan, a professor of electrical engineering and bioengineering, has developed a handheld smartphone attachment that enables a smartphone to detect a single virus.
Using a biopixel display composed of millions of living E.coli bacterial cells that fluoresce in unison like a blinking Las Vegas neon sign, bioengineers at UC San Diego have created a bacterial sensor that can easily detect low levels of arsenic.