Play in advance against neurodegeneration: exploring enteric glial cells in gut-brain axis during neurodegenerative diseases.
Luisa SeguellaRiccardo CapuanoGiovanni SarnelliGiuseppe EspositoPublished in: Expert review of clinical pharmacology (2019)
Introduction: New investigations have shown that 'activated' enteric glial cells (EGCs), astrocyte-like cells of the enteric nervous system (ENS), represent a possible extra-CNS trigger point of the neurodegenerative processes in impaired intestinal permeability conditions. The early modulation of enteric glia-mediated neuroinflammation might optimize neuroprotective treatments outcomes currently used in neurodegenerative diseases. Areas covered: We discussed recent clinical and preclinical data existing on the Pubmed database, concerning the glial role in neurodegeneration. We focused on the gut as possible "entrance door" for endoluminal neurotoxic agents that induce neurological impairments during leaky gut conditions. Moreover, we reviewed the paradigmatic studies linking the leaky gut-induced priming of EGCs to the induction of late neurodegenerative processes in Parkinson's disease and other neurodegenerative disorders. Expert opinion: The previous appearance of neuropathological markers in the ENS emphasizes the extra-CNS origin of neurodegenerative disorders, by directing their therapies toward peripheral management of neurodegeneration. In light of the EGCs changes resulting from a switch-on of activated phenotype in leaky gut syndrome, EGCs sampling could be predictive for neuropathological conditions detection, anticipating their symptomatic manifestation in the CNS.
Keyphrases
- induced apoptosis
- cell cycle arrest
- cerebral ischemia
- neuropathic pain
- traumatic brain injury
- stem cells
- insulin resistance
- big data
- adipose tissue
- electronic health record
- metabolic syndrome
- lipopolysaccharide induced
- case report
- inflammatory response
- spinal cord injury
- white matter
- multiple sclerosis
- skeletal muscle
- emergency department
- resting state
- functional connectivity
- bone marrow
- lps induced
- quantum dots
- chemotherapy induced