Results support the idea that OA is an immunometabolic disease, and it is anticipated that this approach will control the immunometabolic dialogue, slow the advancement of osteoarthritis, end the vicious cycle of inflammatory metabolic disorders, and ultimately offer a new approach to treating osteoarthritis.
Abstract
Traditionally, osteoarthritis (OA) has been thought of as a degenerative disease mostly caused by mechanical wear and tear. However, recent research suggests that immunometabolic pathways drive the active process of subchondral bone remodeling. According to this study, the immunometabolic axis is a key regulatory network in the subchondral bone microenvironment of osteoarthritis (OA), facilitating metabolic interaction between osteocytes and immune cells like macrophages. Bone homeostasis is destroyed by immune cell infiltration, which also promotes the release of inflammatory mediators and local metabolic reprogramming. These results support the idea that OA is an immunometabolic disease. Intervening in the immunometabolic network of subchondral bone can be accomplished by focusing on immune cell metabolic pathways, particularly those that control the phenotypic transition of M1/M2 macrophages. It is anticipated that this approach will control the immunometabolic dialogue, slow the advancement of osteoarthritis, end the vicious cycle of inflammatory metabolic disorders, and ultimately offer a new approach to treating osteoarthritis.
These platforms include bioceramics, metal-based scaffolds, hydrogels, nanoparticles, nanoparticles, and microsphere systems that represent the evolving research landscape, shifting away from just symptom alleviation and towards targeted disease-modifying therapies, including osteoimmunomodulation.
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It is highlighted that future OA treatment may gradually shift from symptom-oriented management toward disease-modifying therapy based on the identification of immune endotypes, and further studies are required to validate the underlying molecular mechanisms, evaluate safety, and conduct clinical trials, thereby facili...
Tong Wang, Wei Jiang, Xing-Xu Chen et al.· Frontiers in Immunology· 2 citations
The need for an integrated framework that links synovial immunobiology to endotype-specific patient classification is highlighted, arguing that biomarker-guided stratification is a prerequisite for achieving precision immunomodulation and meaningful disease modification in OA.
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