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Updated: Jun 26, 2026

An In Vitro Model for the Study of Cellular Pathophysiology in Globoid Cell Leukodystrophy
Published on: October 21, 2014
The multicellular interplay of microglia in health and disease: lessons from leukodystrophy
Woutje M Berdowski1, Leslie E Sanderson1, Tjakko J van Ham1
1Department of Clinical Genetics, Erasmus MC University Medical Center, PO Box 2040, 3000 CA, Rotterdam, The Netherlands.
Abstract:
Microglia are highly dynamic cells crucial for developing and maintaining lifelong brain function and health through their many interactions with essentially all cellular components of the central nervous system. The frequent connection of microglia to leukodystrophies, genetic disorders of the white matter, has highlighted their involvement in the maintenance of white matter integrity. However, the mechanisms that underlie their putative roles in these processes remain largely uncharacterized. Microglia have also been gaining attention as possible therapeutic targets for many neurological conditions, increasing the demand to understand their broad spectrum of functions and the impact of their dysregulation. In this Review, we compare the pathological features of two groups of genetic leukodystrophies: those in which microglial dysfunction holds a central role, termed 'microgliopathies', and those in which lysosomal or peroxisomal defects are considered to be the primary driver. The latter are suspected to have notable microglia involvement, as some affected individuals benefit from microglia-replenishing therapy. Based on overlapping pathology, we discuss multiple ways through which aberrant microglia could lead to white matter defects and brain dysfunction. We propose that the study of leukodystrophies, and their extensively multicellular pathology, will benefit from complementing analyses of human patient material with the examination of cellular dynamics in vivo using animal models, such as zebrafish. Together, this will yield important insight into the cell biological mechanisms of microglial impact in the central nervous system, particularly in the development and maintenance of myelin, that will facilitate the development of new, and refinement of existing, therapeutic options for a range of brain diseases.
Insights
Microglia, essential brain cells, are implicated in white matter integrity and leukodystrophies. Understanding microglial roles in these genetic disorders is key to developing new therapies for neurological conditions.
Area of Science:
- Neuroscience
- Cell Biology
- Genetics
Background:
- Microglia are vital for brain health and function.
- Microglia interact with all central nervous system components.
- Leukodystrophies, white matter disorders, highlight microglia's role in white matter integrity.
Purpose of the Study:
- Compare pathological features of leukodystrophies based on microglial involvement.
- Investigate mechanisms of microglial dysfunction in white matter diseases.
- Explore microglia as therapeutic targets for neurological conditions.
Main Methods:
- Comparative analysis of genetic leukodystrophies ('microgliopathies' vs. lysosomal/peroxisomal defects).
- Review of existing literature on microglial roles in white matter pathology.
- Proposal for integrating human patient data with in vivo animal models (e.g., zebrafish).
Main Results:
- Two groups of genetic leukodystrophies identified: those with primary microglial dysfunction and those with lysosomal/peroxisomal defects.
- Evidence suggests microglia involvement in lysosomal/peroxisomal leukodystrophies, with some patients benefiting from microglia-replenishing therapy.
- Aberrant microglia can contribute to white matter defects and brain dysfunction through various mechanisms.
Conclusions:
- Studying leukodystrophies offers insight into microglial cell biology and CNS function.
- In vivo models like zebrafish are valuable for studying microglial dynamics in white matter diseases.
- Enhanced understanding of microglia's role in myelin development and maintenance can drive therapeutic advancements for brain diseases.
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