Electronic Pancreas May Keep Glucose In Safe Range Overnight
A team led by researchers from University of Cambridge showed that closed loop insulin delivery was effective in controlling overnight blood glucose levels in patients with type 1 diabetes. The system took readings every fifteen minutes and automatically titrated a proper amount of insulin.
University of Cambridge researcher Dr Roman Hovorka led two studies to evaluate the performance of the artificial pancreas in 10 men and 14 women, aged 18 to 65, who had used an insulin pump for at least three months. Read more »
*This blog post was originally published at Medgadget*
“Are you a super-spreader?” That’s the catchphrase for a new study out of the University of Cambridge. However, if you answered “yes”, you may want to stay home and cover your mouth, because the study was designed to track the spread of influenza using cellular phone technology.
Humor site Cracked.com is profiling stories of five souped-up wheelchair projects. If you already have four wheels and a frame, might as well install a flame thrower on it. Or how about a motorcycle with a wheelchair docking system?
A study published in journal Chest has shown that novel intra-sleep pulse oxymetry can be an effective modality in identifying cardiovascular disease risk in patients. In the study, a modified version of Weinmann‘s SOMNOcheck micro oximeter was used to observe pulse wave attenuation, heart rate acceleration, pulse propagation times, as well as respiration-related pulse oscillations and oxygen desaturation episodes. All the collected data was analyzed by an algorithm, and the prognostic results were checked against European Society of Hypertension/European Society of Cardiology (ESH/ESC) risk factor matrix.
IBM and the Institute of Bioengineering and Nanotechnology in Shanghai have designed a new type of polymer that can detect and destroy antibiotic-resistant bacteria such as MRSA. The polymer nanostructures also prevent bacteria from developing drug resistance. Moreover, because of the mechanism by which the nanostructures work, they don’t affect circulating blood cells, and, unlike most traditional antimicrobial agents, the nanostructures are biodegradable, naturally eliminated from the body rather than remaining behind and accumulating in tissues.
