Rescue of non-healing, degenerative salivary glands by cholinergic-calcium signaling
Li, J.; Tan, L. X.; Sun, B.; Griffin, N.; Niknezhad, S. V.; Yu, C.; Berthoin, L.; Cruz Pacheco, N.; Mohabbat, S.; Sinada, H.; Gaylord, E. A.; Chen, Y. T.; An, L.; Efraim, Y.; Bahney, C. S.; Lombaert, I. M. A.; Knox, S.
Show abstract
Chronic degenerative wounds are often deemed irreparable, directing research efforts to focus predominantly on acute tissue injury regeneration while leaving endogenous repair mechanisms for chronically damaged tissues largely unexplored. In this study, we demonstrate that non-healing, severely degenerated salivary gland tissues can be fundamentally restored through first-line treatment with muscarinic agonists. This approach rescues tissue structure and function, returning it to a homeostatic-like state, and reactivates endogenous regeneration processes to drive new cell expansion that persists for months post-treatment. Furthermore, neuromimetic activation profoundly depletes radiation-induced DNA damage and re-establishes the nerve-acinar relationship, ultimately restoring the tissues physiological capacity to maintain homeostasis, even in the absence of treatment. We show that full recovery of organ function, comparable to uninjured controls, is primarily mediated by the re-differentiation of aberrantly de-differentiated epithelial acinar cells and the restoration of mitochondrial function via a muscarinic-calcium signaling pathway. These findings challenge the prevailing notion that chronic organ degeneration is irreversible and propose a readily testable therapeutic strategy for epithelial restoration with potential applications across a spectrum of chronic injuries.
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