Advanced Science · 2024 · 19 citations · 52 references
Life SciencesImmunologyOral BiologyImmunopathologyInflammationMucosal ImmunologyGingival InflammationMucosal Barrier FunctionMucosal InflammationNeutrophil BiologyOral MucosaOral Mucosal DiseasesBarrier Disruption MechanismsCellular Metabolic ReprogrammingDiabetes-associated Gingival InflammationGingival MucosaHost Metabolic ReprogrammingNeutrophil-mediated Mucosal DamageOral Mucosal ImmunopathologyOral Mucosal Inflammation
Type 2 diabetes (T2D) is a risk factor for mucosal homeostasis and enhances the susceptibility to inflammation, in which neutrophils have been increasingly appreciated for their role. Here, barrier disruption and inflammation are observed at oral mucosa (gingiva) of T2D patients and mice. It is demonstrated that neutrophils infiltrate the gingival mucosa of T2D mice and expel obvious neutrophil extracellular traps (NETs), while removal of NETs alleviates the disruption of mucosal barrier. Mechanistically, gingival neutrophils released NETs are dependent of their metabolic reprogramming. Under hyperglycemic condition, neutrophils elevate both glucose incorporation and glycolysis via increased expression of GLUT1. Moreover, significantly increased levels of NETs are observed in local gingival lesions of patients, which are associated with clinical disease severity. This work elucidates a causative link between hyperglycemia and oral mucosal immunopathology, mediated by the altered immuno-metabolic axis in neutrophil, thereby suggesting a potential therapeutic strategy.
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