Neurons and astrocytes have distinct organelle signatures and responses to stress

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This study visualized six organelles in live rodent neurons and astrocytes, revealing distinct cell-type-specific organelle signatures and differential responses to oxidative and ER stress.

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The paper studied how organelles differ between neurons and astrocytes by using multispectral imaging to visualize six organelles (ER, lysosomes, mitochondria, peroxisomes, Golgi, and lipid droplets) in live primary rodent cells and to quantify organelle “signatures.” Across 173 Z-stack and 99 time-lapse image sets with analysis of 1418 metrics, the authors found clear cell-type specificity in organelle morphology and their interactions, with neurons showing prominent mitochondrial composition and astrocytes showing more lysosome and lipid droplet interactions. When exposed to acute oxidative or ER stress, neurons exhibited a more robust organelle response than astrocytes, with the main limitation being that the dataset characterizes primary rodent cells and uses acute stress conditions rather than longer-term or human disease models. The paper does not explicitly discuss endometriosis or adenomyosis; it was included in the corpus via a keyword match in the upstream search index.

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Abstract

Summary Neurons and astrocytes play critical yet divergent roles in brain physiology and neurological conditions. Intracellular organelles are integral to cellular function. However, an in-depth characterization of organelles in live brain cells has not been performed. Here, we used multispectral imaging to simultaneously visualize six organelles – endoplasmic reticulum (ER), lysosomes, mitochondria, peroxisomes, Golgi, and lipid droplets – in live primary rodent neurons and astrocytes. We generated a dataset of 173 Z-stack and 99 time-lapse images accompanied by quantitative analysis of 1418 metrics (the “organelle signature”). Comparative analysis revealed clear cell-type specificity in organelle morphology and interactions. Neurons were characterized by prominent mitochondrial composition and interactions, while astrocytes contained more lysosomes and lipid droplet interactions. Additionally, neurons displayed a more robust organelle response than astrocytes to acute oxidative or ER stress. Our data provide a systems-level characterization of neuron and astrocyte organelles that can be a reference for understanding cell- type-specific physiology and disease.
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Summary Neurons and astrocytes play critical yet divergent roles in brain physiology and neurological conditions. Intracellular organelles are integral to cellular function. However, an in-depth characterization of organelles in live brain cells has not been performed. Here, we used multispectral imaging to simultaneously visualize six organelles – endoplasmic reticulum (ER), lysosomes, mitochondria, peroxisomes, Golgi, and lipid droplets – in live primary rodent neurons and astrocytes. We generated a dataset of 173 Z-stack and 99 time-lapse images accompanied by quantitative analysis of 1418 metrics (the “organelle signature”). Comparative analysis revealed clear cell-type specificity in organelle morphology and interactions. Neurons were characterized by prominent mitochondrial composition and interactions, while astrocytes contained more lysosomes and lipid droplet interactions. Additionally, neurons displayed a more robust organelle response than astrocytes to acute oxidative or ER stress. Our data provide a systems-level characterization of neuron and astrocyte organelles that can be a reference for understanding cell- type-specific physiology and disease. Competing Interest Statement The authors have declared no competing interest. Footnotes ↵** Co-corresponding author https://www.ebi.ac.uk/biostudies/BioImages/studies/S-BIAD1445?query=S-BIAD1445

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last seen: 2026-05-20T01:45:00.602351+00:00