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Cells

— Medical

Nanomotors controlled within living cells

By - February 11, 2014 1 Picture
Imagine if it were possible to send tiny machines into living cells, where they could deliver medication, perform ultra-micro surgery, or even destroy the cell if needed. Well, we've recently come a little closer to being able to do so. Scientists at Pennsylvania State University have successfully inserted "nanomotors" into human cells, then remotely controlled those motors within the cells. Read More
— Health and Wellbeing

Producing insulin-secreting pancreas cells from skin cells gives hope to diabetics

By - February 6, 2014 1 Picture
Type 1 diabetics suffer from a lack of beta cells in the pancreas, which are responsible for insulin production. Although glucose monitoring and insulin injections allows the disease to be managed, finding a way to replenish these beta cells would offer a more permanent solution. Scientists at Gladstone Institutes in San Francisco have provided hope for just such a treatment by developing a technique to reprogram skin cells into insulin-producing beta cells. Read More
— Robotics

Tiny aquatic bio-bots swim like sperm and are powered by heart cells

By - January 20, 2014 1 Picture
If you were asked to think of something microscopic that moves quickly, chances are that sperm would be the first thing to come to mind. The tiny reproductive cells are able to swim as fast as they do thanks to their long whip-like tails, known as flagella. So, imagine how helpful it might be if sperm-like machines could be used for applications such as delivering medication to targeted areas of the body. Well, that's what scientists at the University of Illinois are in the process of making possible, with the creation of their heart cell-powered "bio-bots." Read More
— Science

Two-in-one nanoparticles exploit tumor cells to precisely deliver multiple drugs

By - January 9, 2014 3 Pictures
A common strategy for treating tumors is combining two or more drugs, which has the effect of decreasing toxicity and increasing the synergistic effects between the drugs. However, the efficacy of this kind of cocktail treatment suffers when the drugs require access to different parts of the cell, a bit like fighting a battle by depositing all your archers on the same spot as your infantrymen. By making use of nanoparticle-based carriers, researchers at North Carolina State University are able to transport multiple drugs into cancerous cells optimally and precisely, in maneuvers that any field commander would be proud of. Read More
— Science

Frankenstein's simulated worm is alive?

By - January 3, 2014 4 Pictures
The OpenWorm project is aimed at creating the first artificial lifeform – a bottom-up computer model of a millimeter-sized nemotode, one of the simplest known multicellular organisms. In an important step forward, OpenWorm researchers have completed the simulation of the nematode's 302 neurons and 95 muscle cells and their worm is wriggling around in fine form. Read More
— Science

Cause of aging reversed in mice: Human trials may start next year

By - December 22, 2013 1 Picture
With the wide-ranging benefits of reducing disease and enabling a longer, healthier life, reversing the causes of aging is a major focus of much medical research. A joint project between the University of New South Wales (UNSW) in Australia and Harvard Medical School that restored communication within animal cells has the potential to do just that, and maybe more. With the researchers hoping to begin human clinical trials in 2014, some major medical breakthroughs could be just around the corner. Read More
— Medical

Scientists run eye cells through an inkjet printer

By - December 19, 2013 1 Picture
Imagine if conditions that presently cause blindness could be treated by simply by fabricating new tissue, and using it to replace the defective part of the retina. We may not be at that point yet, but we've definitely taken a step closer, thanks to research being conducted at the University of Cambridge. Scientists there have successfully used an inkjet printer to "print" rats' retinal cells onto a substrate, paving the way for the creation of custom-made eye-repair material. Read More
— Medical

Hair, bone and soft tissue regrown in mice by enhancing cell metabolism

By - November 11, 2013 1 Picture
Anyone who has left youth behind them knows that bumps and scrapes don't heal as fast as they used to. But that could change with researchers at the Stem Cell Program at Boston Children's Hospital finding a way to regrow hair, cartilage, bone, skin and other soft tissues in a mouse by reactivating a dormant gene called Lin28a. The discovery could lead to new treatments that provide adults with the regenerative powers they possessed when very young. Read More
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