Enteric nervous system-derived VIP restrains differentiation of LGR(5)(+) stem cells toward the secretory lineage impeding type 2 immune programs
Authors
- Manuel O. Jakob
- Nele Sterczyk
- Sotiria Boulekou
- Patrycja M. Forster
- Luisa Barleben
- Nadra Alzain
- Katja J. Jarick
- Roksana M. Pirzgalska
- Bruno Raposo
- Karl Hansson
- Elisabeth E.L. Nyström
- Aurelia Gondrand
- Miguel González-Acera
- Pierre S. Leclère
- Marlen S. Lapson
- Sarah Poggenseier
- Divija Deshpande
- Laura Velleman
- Tilman Breiderhoff
- Max Felix Brunkhorst
- Anton M. Schüle
- Gabriela M. Guerra
- Pawel Durek
- Mir-Farzin Mashreghi
- Anja A. Kühl
- Coco Chu
- Christoph Schneider
- Carl Weidinger
- Britta Siegmund
- Thierry M. Nordmann
- David Voehringer
- Jay V. Patankar
- Christoph Becker
- George M.H. Birchenough
- Henrique Veiga-Fernandes
- Francesca Ronchi
- Marina Kolesnichenko
- Andreas Diefenbach
- Christoph S.N. Klose
Journal
- Nature Immunology
Citation
- Nat Immunol 26 (12): 2227-2243
Abstract
Barrier homeostasis relies on a finely tuned interplay between the immune system, epithelial cells and commensal microbiota. Beyond these regulators, the enteric nervous system has recently emerged as a central hub coordinating intestinal immune responses, although its role in epithelial differentiation has remained largely unexplored. Here, we identify a neuroepithelial circuit in which vasoactive intestinal peptide (VIP)-positive enteric neurons act on VIPR1(+) epithelial stem cells to restrain both their proliferation and secretory lineage differentiation. Disruption of this pathway leads to an expansion of tuft cells, enhanced interleukin (IL)-25 production, activation of group 2 innate lymphoid cells (ILC2s) and induction of a type 2 immune response resembling worm expulsion. This phenotype occurs independently of the microbiota but is modulated by the IL-25R-ILC2-IL-13 axis and dietary solid food intake. Our findings expose the enteric nervous system as a critical regulator of epithelial fate decisions and immune balance, complementing established mechanisms that safeguard barrier integrity and mucosal homeostasis.