The new findings bring the total number of genes or genomic regions implicated in diabetes to 16, said Laura Scott, assistant research scientist in the Department of Biostatistics. Researchers from the University of Michigan were one of three teams of scientists in Europe and North America that led the multi-group collaboration.
The findings, which were published today in the journal Nature Genetics, provide new insights into the mechanisms which are usually responsible for the control of glucose, or sugar, levels in the blood, and to the derangements that can result in type 2 diabetes, which impacts more than 170 million people worldwide.
One of the newly discovered genes, which goes by the name of JAZF1, contains a separate variant that has recently been shown to play a role in prostate cancer, and is the second gene that appears to play a role in both conditions. The first identified overlap between genes for prostate cancer and type 2 diabetes was with HNF1B, which is also involved in an early onset form of diabetes discovered at U-M in an unrelated study, called Maturity Onset Diabetes of the Young (MODY).
In HNF1B, the same variant that is associated with increased risk of diabetes is associated with decreased risk of prostate cancer. In JAZF1, the diabetes and prostate cancer variants reside in different parts of the gene and there is no known relationship between them.
"Some of these genes for type 2 diabetes might be involved in diseases other than prostate cancer, in fact there is already a known overlap with heart disease in another genomic region? Scott said. "We have about 25,000 genes, and we've found a very small number by genome wide studies, so to have the same genomic regions come up in studies of different diseases is actually pretty interesting."
Type 2 diabetes is characterized by high levels of blood sugar, caused by the body's inability to utilize insulin to move blood sugar into the cells for energy. Type 2 diabetes affects nearly 21 million in the United States and the incidence of the disease has skyrocketed in the last 30 years. Diabetes is a major cause of heart disease and stroke, as well as the most common cause of blindness, kidney failure and amputations in U.S. adults.
"The remarkable recent progress in identifying regions of the genome that increase risk to diabetes---from 3 to 16 in only a year---will help us unravel the complex basis diabetes and may suggest new and better tailored methods to prevent or treat this disease.," said U-M's Michael Boehnke, the lead scientist on the Finland-United States Investigation of Non-Insulin-Dependent Diabetes Mellitus Genetics (FUSION) study group, one of the three lead groups in the study.
The researchers in this project set out to find differences in the genetic code that contribute to individual differences in susceptibility to disease. Previous efforts from these groups and others identified ten genes contributing to type 2 diabetes risk.
Laura Bailey | EurekAlert!
New therapeutic approach to combat African sleeping sickness
20.02.2019 | Johannes Gutenberg-Universität Mainz
'Butterfly-shaped' palladium subnano cluster built in 3-D
20.02.2019 | Institute of Industrial Science, The University of Tokyo
Up to now, OLEDs have been used exclusively as a novel lighting technology for use in luminaires and lamps. However, flexible organic technology can offer much more: as an active lighting surface, it can be combined with a wide variety of materials, not just to modify but to revolutionize the functionality and design of countless existing products. To exemplify this, the Fraunhofer FEP together with the company EMDE development of light GmbH will be presenting hybrid flexible OLEDs integrated into textile designs within the EU-funded project PI-SCALE for the first time at LOPEC (March 19-21, 2019 in Munich, Germany) as examples of some of the many possible applications.
The Fraunhofer FEP, a provider of research and development services in the field of organic electronics, has long been involved in the development of...
For the first time, an international team of scientists based in Regensburg, Germany, has recorded the orbitals of single molecules in different charge states in a novel type of microscopy. The research findings are published under the title “Mapping orbital changes upon electron transfer with tunneling microscopy on insulators” in the prestigious journal “Nature”.
The building blocks of matter surrounding us are atoms and molecules. The properties of that matter, however, are often not set by these building blocks...
Scientists at the University of Konstanz identify fierce competition between the human immune system and bacterial pathogens
Cell biologists from the University of Konstanz shed light on a recent evolutionary process in the human immune system and publish their findings in the...
Laser physicists have taken snapshots of carbon molecules C₆₀ showing how they transform in intense infrared light
When carbon molecules C₆₀ are exposed to an intense infrared light, they change their ball-like structure to a more elongated version. This has now been...
The so-called Abelian sandpile model has been studied by scientists for more than 30 years to better understand a physical phenomenon called self-organized...
11.02.2019 | Event News
30.01.2019 | Event News
16.01.2019 | Event News
20.02.2019 | Life Sciences
20.02.2019 | Medical Engineering
20.02.2019 | Power and Electrical Engineering