Human-relevant near-organ neuromodulation of the immune system via the splenic nerve

Matteo Donegà, Cathrine T. Fjordbakk(Royal Veterinary College), Joseph Kirk(Royal Veterinary College), David M. Sokal, Isha Gupta, Gerald E. Hunsberger, Abbe Crawford(Royal Veterinary College), Simon Cook(Royal Veterinary College), Jaime Viscasillas(Royal Veterinary College), Thaleia‐Rengina Stathopoulou(Royal Veterinary College), Jason A. Miranda, Wesley J. Dopson, David Goodwin(Royal Veterinary College), Alison Rowles(GlaxoSmithKline (United Kingdom)), Paul McGill(GlaxoSmithKline (United Kingdom)), Alex McSloy(Royal Veterinary College), Dirk Werling(Royal Veterinary College), Jason Witherington, Daniel Chew, Justin Perkins(Royal Veterinary College)
Proceedings of the National Academy of Sciences
May 10, 2021
Cited by 53Open Access
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Abstract

Significance Bioelectronic modulation of the autonomic nervous system innervating the spleen represents a new therapeutic avenue. Studies in rodents suffer from the limitation that stimulation parameters and anatomy are not directly applicable to humans. This work demonstrates the translation of biological mechanisms in a large animal model with similar anatomical, histological, and functional characteristics for derivation of human-relevant parameters. Here, we show the scientific process for translating a bioelectronic medicine to clinical readiness. The results presented can be used in three ways: 1) as a system to demonstrate the species translation of neuroimmune modulation, 2) as an exemplar of how translational models can reveal additional potential mechanisms, and 3) as a general methodology to determine human-relevant stimulation parameters.


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