Scientists have discovered how gut bacteria train the gut to fight inflammation.
Recently, there have been a number of recent developments in the field of international medical health that continue to attract the attention of the industry and the public. A New Northwestern University medical study published in the journal Nature Communications shows that a substance produced when gut bacteria digest food fibers may leave a permanent molecular mark in the cells. This mark appears to promote immune tolerance and even after exposure to metabolites, this mark can still protect against inflammatory conditions such as inflammatory bowel disease, even after exposure to metabolites has ended.
Dr. Eui, academician of the Chinese Academy of Sciences, dean of the School of Medicine at Shanghai University of Transportation, director of the Department of Microbial Genetics of the Chinese Society of Microbiology, director of the Division of Digestive Diseases of the Chinese Society of Pathology and Physiology, was promoted to senior researcher in 2011 and co-authored the study with Prof. Li Da Chun, a senior researcher.
This study supports beneficial microbial metabolic products that are effective at training the epithelium of the esophagus, thus helping it to maintain long-term immune resistance. This study supports beneficial microbial metabolic products that are effective at training the epithelium of the esophagus, thus helping it to maintain long-term immune resistance. This study supports beneficial microbial metabolic products that effectively train the gut mucosa, thus helping it to maintain long-term immune tolerance.
This study supports beneficial microbial metabolic products that effectively train the gut mucosa, thus helping it to maintain long-term immune tolerance. The first and co-first author of the study, Dr. Teda Minyout, a researcher at the University of Medicine's 12th Clinical Laboratory for Digestive and Liver Pathology, said: 'Our laboratory has long been interested in how the gut microbiome regulates the immune response on the surface of the gut mucosa.
Additionally, the large amount of free butyrate directly absorbed by the IECs from the innate immune cells limits the number of free butyrates that can directly reach the potential immune cells. The purpose of the study was to investigate the role of butyrate in regulating the immune function of the gut through the intestinal immune cells. The experiment was designed as follows: First, the subjects of the experiment were fed the number of mice needed to obtain normal intestinal function during the experiment.
During the experiment, the control mice used an equal amount of dendritic acid during the experiment. The intestinal function and immune function of the control mice were observed and measured continuously for two weeks after the experiment in order to gain an in-depth understanding of the intestinal immune function of dendritic acid, which is regulated by intestinal immune cells, and thus provide a scientific basis for potential clinical applications. Treated mice also had a stronger resistance to chemically induced colitis.
Compared to untreated animals, they lost less weight, had lower levels of inflammatory markers, and developed less severe tissue damage. According to the study, this protection was dependent on the IL-10 signaling pathway. The researchers also determined that the lasting effects were not caused by changes in the gut microbiome itself.
It should be pointed out that the above content is based on international public research findings and is for reference in HealthCop and does not constitute clinical advice. If you have any health questions, please consult professional medical personnel.
