The contribution of neuropathology to multiple sclerosis research.

Eur J Neurol

Center for Brain Research, Medical University of Vienna, Wien, Austria.

Published: September 2022

AI Article Synopsis

  • Neuropathology is crucial for understanding disease mechanisms in multiple sclerosis (MS) and helps differentiate it from other similar diseases.
  • Recent research highlights that analyzing brain damage over time and its molecular changes can reveal disease pathogenesis and inform treatment development.
  • Findings show that chronic damage in MS is linked to immune responses in the central nervous system and identifies potential therapeutic targets for clinical trials.

Article Abstract

Background And Purpose: Neuropathology plays a major role in deciphering disease mechanisms in multiple sclerosis (MS). This review article describes recent advances in neuropathological research related to inflammatory demyelinating diseases.

Methods: A retrospective review of neuropathological studies published during the last two decades was conducted.

Results: The importance of neuropathology is generally seen in its contribution to the diagnosis of diseases of the nervous system and, in particular, in neuro-oncology. However, when it also includes analysis of the global three-dimensional extension of brain damage and the temporal sequence of lesion evolution and relates this to molecular changes in the lesions, it offers the potential to decipher disease pathogenesis and to contribute to the development of effective and causative treatments. In MS research, neuropathology has been essential in discriminating the disease from other inflammatory autoimmune or demyelinating diseases, such as neuromyelitis optica spectrum disorders (NMOSD) or myelin oligodendrocyte glycoprotein antibody-associated disease (MOGAD). It defined the hallmark of chronic progressive disease in MS patients as slowly expanding tissue damage, which occurs not only within and around lesions but also in the normal appearing white and gray matter. It showed that these changes occur in the course of a tissue-resident immune response within the central nervous system, involving tissue-resident effector memory cells and plasma cells. Molecular studies in neuropathologically defined micro-dissected MS lesions identified a cascade of oxidative injury, mitochondrial damage and subsequent virtual hypoxia as a major pathway of tissue injury in MS.

Conclusions: The results of these studies were highly relevant for the identification of potential therapeutic targets in MS patients and the design of pivotal clinical trials.

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Source
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC9544263PMC
http://dx.doi.org/10.1111/ene.15360DOI Listing

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