Heart disease is the most frequent, costly and severe complication of diabetes, affecting more than 70 percent of diabetic patients. There are geographic and ethnic differences in the risk of diabetic heart disease that cannot be fully explained by differences in conventional heart disease risk factors. Using a simple blood test, researchers at the Technion-Israel Institute of Technology have identified a gene that determines which diabetes patients are at greater risk for developing heart disease. Unlike other recent breakthroughs, such as the test for C-reactive protein, the test for this gene needs to be administered only once in a patients lifetime.
There are two forms of this predictive gene and they are present in approximately equal frequencies in the general population and in diabetics. Diabetics with one type of the gene have a five-fold greater risk of developing heart disease than those with the other form of the gene.
"If we can accurately determine which people with diabetes are at greatest risk for heart disease with a genetic test, there is no telling how many lives we could save with early intervention techniques," said Dr. Andrew P. Levy of the Technion Faculty of Medicine, who headed the research which was published in the December 4th issue of The Journal of the American College of Cardiology.
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The nearby, giant radio galaxy M87 hosts a supermassive black hole (BH) and is well-known for its bright jet dominating the spectrum over ten orders of magnitude in frequency. Due to its proximity, jet prominence, and the large black hole mass, M87 is the best laboratory for investigating the formation, acceleration, and collimation of relativistic jets. A research team led by Silke Britzen from the Max Planck Institute for Radio Astronomy in Bonn, Germany, has found strong indication for turbulent processes connecting the accretion disk and the jet of that galaxy providing insights into the longstanding problem of the origin of astrophysical jets.
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Microprocessors based on atomically thin materials hold the promise of the evolution of traditional processors as well as new applications in the field of flexible electronics. Now, a TU Wien research team led by Thomas Müller has made a breakthrough in this field as part of an ongoing research project.
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Glaciers might seem rather inhospitable environments. However, they are home to a diverse and vibrant microbial community. It’s becoming increasingly clear that they play a bigger role in the carbon cycle than previously thought.
A new study, now published in the journal Nature Geoscience, shows how microbial communities in melting glaciers contribute to the Earth’s carbon cycle, a...
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21.04.2017 | Physics and Astronomy