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A new cell-printing technique similar to the ancient art of block printing could see the c...

Researchers in Houston have developed a cost effective method for printing living cells, claiming almost a 100 percent survival rate. The method, which is akin to a modern version of ancient Chinese wood block printing, allow cells to be printed on any surface and in virtually any two dimensional shape. And while current inkjet printers adapted to print living cells can cost upwards of US$10,000 with a cell survival rate of around 50 percent, this simple new technique could see the cell stamps produced for around $1.  Read More

The prototype MEDIC device

Figuring out how much medication a patient should be taking can be a tricky business. Although things like age and weight are used as guidelines, factors such as the individual person's metabolism can have a marked effect on how effective the drugs are. With that in mind, scientists at the University of California, Santa Barbara have developed an implantable device that provides continuous real-time readings on how much medication is currently in a person's bloodstream.  Read More

The prototype 'water chip'

Although various alternative technologies are being developed, the large-scale desalination of seawater typically involves forcing it through a membrane that allows the water to pass through, but that traps the salt. These membranes can be costly, they can get fouled, and powerful pumps are required to push the water through. Now, however, scientists from the University of Texas at Austin and Germany’s University of Marburg are taking another approach. They’ve developed a chip that separates salt from water.  Read More

The new fabric sucks sweat from one side to the other where it drains away, as demonstrate...

Unsightly underarm sweat patches could soon be a thing of the past thanks to a new fabric developed at the University of California, Davis. Instead of simply soaking up sweat like conventional fabrics, the new fabric is threaded with tiny channels that pull the sweat from one side to the other where it forms into droplets that drain away.  Read More

Harvard's spleen-on-a-chip blood filtration device

The spleen’s job is to filter our blood. When people are critically ill or have received traumatic injuries, however, the spleen alone is sometimes not able to remove enough of the pathogens on its own – potentially-fatal sepsis is the result. In order to help avert such an outcome in those situations, scientists from the Wyss Institute for Biologically Inspired Engineering at Harvard University are developing a device known as the spleen-on-a-chip.  Read More

NC State's self-healing elastic electrical wire

Last month, we heard about how a team led by North Carolina State University’s Dr. Michael Dickey had created an electrical wire that could be stretched up to eight times its regular length ... and still carry a current. This was possible thanks to a conductive liquid metal alloy of gallium and indium, contained inside the wire’s elastic polymer outer housing. Now, Dickey's team has developed a new wire that not only can be stretched, but that will heal itself when severed.  Read More

The V-chip is an inexpensive credit card-sized device, that can instantly test a single dr...

Ordinarily, when medical clinicians are conducting blood tests, it’s a somewhat elaborate affair. A full vial of blood must be drawn, individual portions of which are then loaded into large, expensive machines such as mass spectrometers. The results are usually quite accurate, but they’re not instantaneous, and require the services of trained personnel in a well-equipped lab. That may be about to change, however. Scientists from Houston’s Methodist Hospital Research Institute and MD Anderson Cancer Center have created a credit card-sized gadget, that can instantly check a single drop of blood for up to 50 different substances – and it costs about US$10.  Read More

A 3D image of a rotavirus, constructed from data gathered using the new technique

Traditionally, in order to view tiny biological structures such as viruses, they must first be removed from their natural habitats and frozen. While this certainly keeps them still for the microscope, it greatly limits what we can learn about them – it’s comparable to an ichthyologist only being able to study dead fish in a lab, instead of observing live ones in the ocean. Now, however, researchers at the Virginia Tech Carilion Research Institute have devised a technique for observing live viruses in a liquid environment. It could have huge implications for the development of treatments for viral infections.  Read More

A team of UCSB researchers have mimicked the anatomy of a dog's nose to build a highly eff...

Combining nanotechnology and microfluidics, researchers at UC Santa Barbara have created a high-performance detector that draws inspiration from the anatomy of a dog's nose to accurately identify substances – including explosives and narcotics – from very small concentrations of airborne molecules.  Read More

A diagram of the tissue-producing device

Tissue engineering is definitely an exciting field – the ability to create living biological tissue in a lab could allow scientists to do things such as testing new drugs without the need for human subjects, or even to create patient-specific replacement organs or other body parts. While some previous efforts have yielded finished products that were very small, a microfluidic device being developed at the University of Toronto can reportedly produce sections of precisely-engineered tissue that measure within the centimeters.  Read More

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