Assessing the Influence of Agricultural Research Investments on Biodiversity and Land Management

New, groundbreaking research shows how, at a local scale, agricultural research and development led to improved crop varieties that resulted in global benefits to the environment and food system sustainability. New, groundbreaking research shows how, at a local scale, agricultural research and development led to improved crop varieties that resulted in global benefits to the
HomeHealthThe Ultimate Guide to Combat Fatty Liver: New Approach for Effective Results

The Ultimate Guide to Combat Fatty Liver: New Approach for Effective Results

Fatty liver disease (steatotic liver disease, SLD‍ for short) ‍is a growing cause of ​liver failure. A team of ⁢researchers has found that a saturated fatty‍ acid in the ⁣blood vessels triggers the production of⁣ the signaling molecule ⁤SEMA3A, ‍which closes the ‍”windows” in ‍the blood vessels. This blocks‍ the transport of fat from‍ the liver to the adipose tissue. The researchers ​have‍ observed that inhibiting SEMA3A reopens​ the⁢ windows and reduces the fat in the liver.The liver‌ is an important organ in the body. A research team from the ⁤Institute ⁢of Metabolic Physiology ‌at Heinrich Heine University⁢ Düsseldorf (HHU), in partnership with the ‌German ​Diabetes Centre (DDZ) and other collaborators, has made a discovery.‌ They found that a certain saturated fatty acid in the blood⁣ vessels⁣ causes the production of a signaling molecule called SEMA3A. This molecule ‍closes the ‘windows’ in the blood vessels, which then hinders​ the transportation ​of fat from the liver to ‌the adipose tissue. ​The researchers published ​their findings in the ​journal Nature Cardiovascular Research, reporting that when SEMA3A is inhibited, the windows open again and the fat in the liver is ⁢reduced.ular, ‘metabolic dysfunction-associated SLD’ (MASLD ‍for short) can arise as a result of unhealthy lifestyle choices such as ⁣a high-calorie diet and‌ lack of physical ⁤activity. ⁤It currently impacts⁢ about one-third of the global population. At the outset, MASLD does not‌ have any ⁢harmful effects, but it can progress to ⁤liver⁤ inflammation. Over time, this could ​lead to⁤ liver cirrhosis, liver failure, or even ‍liver cancer. Unlike kidney‌ failure, there is no alternative treatment that⁤ can sustain liver function in ⁣the long term, like dialysis ⁤for the kidneys. Individuals with MASLD ⁣are at a high risk⁤ and ⁤may require a liver transplant for​ a potential cure.

Additionally, individuals with MASLD have a increased likelihood of developing other metabolic disorders, including type 2 diabetes and cardiovascular ‌disease. These coexisting⁢ conditions can ⁤further exacerbate ​the impact of MASLD on overall health.‍ Therefore, it is imperative to address the‌ root causes of MASLD through⁤ lifestyle modifications and proper‌ medical care.Understandably, not all obese individuals are affected, and conversely, slim individuals⁤ can also develop⁢ the ​disease. The molecular causes of MASLD are still not fully understood. However,‌ a team of researchers have recently made ‍an important‍ discovery that sheds ‍light ‍on how MASLD develops. They found that the windows‍ (fenestrae) in the endothelial cells of blood‌ vessels‌ play a major role in the development of MASLD.The liver exchanges substances‍ with the blood through tiny windows, allowing it to release ⁢excess fat particles into the bloodstream for storage‌ in adipose tissue. Researchers found that a signalling molecule called ‌SEMA3A is responsible‍ for closing these windows ⁣when blood vessels are ​exposed to high levels⁤ of the saturated fatty acid “palmitic acid.” Sydney Balkenhol from the Institute of Metabolic Physiology at‌ HHU and the DDZ, who led the study published in Nature Cardiovascular Research, highlighted ​this discovery.Electron microscopy of ‌liver blood vessels revealed that the “windows” were closed⁢ in mice with fatty liver and⁤ type 2 ⁤diabetes mellitus. Dr. Daniel⁤ Eberhard, another primary author, noted that​ they were able to reverse this effect by inhibiting the ‌signaling ‍molecule,‍ which defatted the ‌liver and improved its function. Corresponding author Dr. Eckhard Lammert, Professor⁢ and Head of the Institute​ of Metabolic ‌Physiology at HHU and‍ the Institute of Vascular and Islet Cell Biology ‌at‍ the DDZ,⁢ is hopeful that these​ findings will eventually lead to a therapeutic approach for ⁣humans. He ⁤believes that it may be possible to improve liver function in humans using this approach.It may⁤ be⁢ possible to use the SEMA3A signaling molecule ⁤we discovered to ‌stop MASLD and its‌ effects at the beginning. But, we ​need to carefully study the processes in humans first.