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JCI early table of contents for Jan. 2, 2013

Researchers found that bacterial imbalance contributes to intestinal inflammation and carcinogenesis, with treatment reducing disease risk. Dysbiosis was shown to enhance intestinal inflammation and increase the risk for inflammation-associated colon cancer.

SourceJCI Journals·JournalJournal of Clinical Investigation·DateJan 2, 2013

Kidney failure under the microscope

Researchers at Monash University used advanced microscopy techniques to visualize the movements of white blood cells in healthy and diseased kidneys. They found that leukocytes are constantly circulating through and patrolling blood vessels within healthy kidneys, but become agitated during disease, causing inflammation and kidney damage.

SourceMonash University·JournalNature Medicine·DateDec 16, 2012

Intestinal immune cells play an unexpected role in immune surveillance of the bloodstream

A team of researchers from Massachusetts General Hospital has discovered that intestinal immune cells collect and process antigens from both the bloodstream and the intestine, inducing the production of T cells that suppress inflammation. This regulatory system is crucial for preventing autoimmune disorders and inflammatory bowel disease.

SourceMassachusetts General Hospital·JournalImmunity·DateDec 13, 2012

JCI early table of contents for Nov. 1, 2012

A study published in the Journal of Clinical Investigation identifies a rare mutation in the DGAT1 gene as the cause of congenital diarrheal disorder. Additionally, research on natriuretic peptides reveals their role in enhancing human skeletal muscle metabolism and increasing fat oxidation.

SourceJCI Journals·JournalJournal of Clinical Investigation·DateNov 1, 2012

New point of focus found for the treatment of rheumatoid arthritis and other autoimmune diseases

A research team at VIB has identified a new anti-inflammatory mechanism of the protein A20, which can help treat autoimmune diseases like Rheumatoid Arthritis. By understanding how A20 interacts with signaling pathways, scientists can develop new therapies to combat inflammation and disrupt the immune system's attack on its own tissues.

New discovery related to gum disease

Researchers at UofL School of Dentistry have discovered a way to prevent inflammation and bone loss surrounding teeth by blocking the natural signaling pathway of enzyme GSK3b. This finding has implications for preventing periodontal disease, a chronic inflammatory condition causing tooth loss.

SourceUniversity of Louisville·JournalMolecular Medicine·DateSep 11, 2012

Identifying a new target for ALS treatment

A recent study found that an inflammatory monocyte population plays a key role in ALS progression, suggesting it as a potential therapeutic target. Monocyte depletion reduced cellular recruitment to the spinal cord, decreased CNS cell death, and extended survival time in mice with ALS.

SourceJCI Journals·JournalJournal of Clinical Investigation·DateAug 6, 2012

'Intelligent medicine' erases side effects

Scientists at Aarhus University have developed a new technology that conjugates glucocorticoid steroids to antibodies binding to macrophage receptors, reducing side effects and increasing potency. This intelligent medicine shows promise for treating various inflammatory diseases, including autoimmune disorders.

SourceAarhus University·JournalMolecular Therapy·DateMay 31, 2012

Enzyme boosts metabolism, prevents weight gain in mice

Scientists engineer mice to express human enzyme IKKbeta in fat tissue, significantly slowing weight gain and improving metabolism. The study suggests obesity is worse than inflammation for insulin resistance, offering new clues about the connections among obesity, inflammation, and type 2 diabetes.

SourceBrown University·JournalEndocrinology·DateNov 14, 2011

Manchester's 'first step' to perfect drug combinations

Researchers at the University of Manchester have developed a computer program that can rapidly identify ideal drug combinations to prevent inflammation and combat severe diseases. By analyzing billions of potential combinations, they hope to create tailored therapies for conditions such as stroke, cancer, and Alzheimer's.

SourceUniversity of Manchester·JournalNature Chemical Biology·DateOct 23, 2011