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Researchers at King Abdullah University of Science and Technology have recently developed a flexible and imperceptible magnetic skin that adds permanent magnetic properties to all surfaces to which it is applied. This artificial skin, presented in a paper published in Wiley’s Advanced Materials Technologies journal, could have numerous interesting applications. For instance, it could enable the development of more effective tools to aid people with disabilities, help biomedical professionals to monitor their patients’ vital signs, and pave the way for new consumer tech.

“Artificial skins are all about extending our senses or abilities,” Adbullah Almansouri, one of the researchers who carried out the study, told TechXplore. “A great challenge in their development, however, is that they should be imperceptible and comfortable to wear. This is very difficult to achieve reliably and durably, if we need stretchable electronics, batteries, substrates, antennas, sensors, wires, etc. We decided to remove all these delicate components from the skin itself and place them in a comfortable nearby location (i.e., inside of eye glasses or hidden in a fabric).”

The artificial skin, developed under the supervision of Prof. Jürgen Kosel, is magnetic, thin and highly flexible. When it is worn by a human user, it can be easily tracked by a nearby magnetic sensor. For instance, if a user wears it on his eyelid, it allows for his eye movements to be tracked; if worn on fingers, it can help to monitor a person’s physiological responses or even to control switches without touching them.

A joint study by researchers at the National Institutes of Health (NIH) and the University of Maryland (UMD) has revealed a previously undocumented protective function of the telomerase enzyme.

Telomerase is used by somatic cells too

It was thought for a long time that telomerase is only active in certain cell types, such as stem cells, immune cells, and embryonic cells, in order to protect them from aging. Aside from a few cell types and, of course, cancer cells, which are able to hijack the telomerase enzyme in order to replicate uncontrollably, researchers believed that the enzyme is switched off in other types of cells.

Providing a glimpse the hidden workings of evolution, a group of researchers at UC Santa Barbara have discovered that embryos that appear the same can start out with surprisingly different instructions.

“We found that a lot of undercover evolution occurs in early embryos,” said Joel Rothman, a professor in the Department of Molecular, Cellular, and Developmental Biology, who led the team.

Indeed, although members of the same species are identical across the vast majority of their genomes, including all the genetic instructions used in development, Rothman and his colleagues found that key parts of the assembly instructions used when embryos first start developing can differ dramatically between individuals of the same species.

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Suffering from a corneal disease where her left eye was turning blind, the woman can now see well, say the Osaka University team who carried out the surgery.

Researchers from Massachusetts Institute of Technology (MIT) developing new method to deliver #cancer medication.

An experimental patch designed to deliver cancer medications through the skin showed promise in mice and human skin samples, according to new research presented Sunday at the American Chemical Society conference in California, San Diego.

Researchers at the Massachusetts Institute of Technology developed the patch to fight melanoma, a deadly but highly treatable form of skin cancer. The patch is less than a centimeter long and coated with a sticky film, which allows it to be applied and removed from the skin in a minute.

Continue reading “MIT scientists say new skin patch to deliver cancer medication in 60 seconds shows promise in mice” »

Results from the new study, reported in the Proceedings of the National Academy of Sciences (PNAS) have shown that telomerase is reactivated in normal adult cells at the latter stage of cell aging, and this activity reduces the potential for DNA damage that could lead cells to become cancerous. “This study reshapes the current understanding of telomerase’s function in normal cells,” said Kan Cao, PhD, an associate professor of cell biology and molecular genetics at UMD, who is senior author of the study. “Our work shows, for the first time, that there is a role for telomerase in adult cells beyond promoting tumor formation.

University of Maryland-led team found that telomerase, which immortalizes cancer cells, also prevents tumors and slows a key stage in normal cell death.