4.5 Review

Supraspinal Mechanisms of Intestinal Hypersensitivity

Journal

CELLULAR AND MOLECULAR NEUROBIOLOGY
Volume 42, Issue 2, Pages 389-417

Publisher

SPRINGER/PLENUM PUBLISHERS
DOI: 10.1007/s10571-020-00967-3

Keywords

Intestinal hypersensitivity; Bowel inflammation; Brain neuroplasticity; Central sensitization; Abdominal pain

Funding

  1. Russian Foundation for Basic Research [18-015-00055]

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Inflammation or injury in the gut can cause intestinal hypersensitivity and hyperalgesia, which involve both the spinal cord and the brain. The study reveals neuroplastic changes in the brain associated with intestinal pathology that may contribute to the development and maintenance of gut-related pain. Understanding these brain neuroplastic changes can lead to new therapeutic approaches against chronic abdominal pain in inflammatory bowel disease.
Gut inflammation or injury causes intestinal hypersensitivity (IHS) and hyperalgesia, which can persist after the initiating pathology resolves, are often referred to somatic regions and exacerbated by psychological stress, anxiety or depression, suggesting the involvement of both the spinal cord and the brain. The supraspinal mechanisms of IHS remain to be fully elucidated, however, over the last decades the series of intestinal pathology-associated neuroplastic changes in the brain has been revealed, being potentially responsible for the phenomenon. This paper reviews current clinical and experimental data, including the authors' own findings, on these functional, structural, and neurochemical/molecular changes within cortical, subcortical and brainstem regions processing and modulating sensory signals from the gut. As concluded in the review, IHS can develop and maintain due to the bowel inflammation/injury-induced persistent hyperexcitability of viscerosensory brainstem and thalamic nuclei and sensitization of hypothalamic, amygdala, hippocampal, anterior insular, and anterior cingulate cortical areas implicated in the neuroendocrine, emotional and cognitive modulation of visceral sensation and pain. An additional contribution may come from the pathology-triggered dysfunction of the brainstem structures inhibiting nociception. The mechanism underlying IHS-associated regional hyperexcitability is enhanced NMDA-, AMPA- and group I metabotropic receptor-mediated glutamatergic neurotransmission in association with altered neuropeptide Y, corticotropin-releasing factor, and cannabinoid 1 receptor signaling. These alterations are at least partially mediated by brain microglia and local production of cytokines, especially tumor necrosis factor alpha. Studying the IHS-related brain neuroplasticity in greater depth may enable the development of new therapeutic approaches against chronic abdominal pain in inflammatory bowel disease.

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