Quantitation of ER Morphology and Dynamics

The plant endoplasmic reticulum forms a network of tubules connected by three-way junctions or sheet-like cisternae. Although the network is three-dimensional, in many plant cells, it is constrained to thin volume sandwiched between the vacuole and plasma membrane, effectively restricting it to a 2-...

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Published in:Methods in molecular biology (Clifton, N.J.) Vol. 2772; p. 49
Main Authors: Fricker, Mark, Breeze, Emily, Pain, Charlotte, Kriechbaumer, Verena, Aguilar, Carlos, Ugalde, José M, Meyer, Andreas J
Format: Journal Article
Language:English
Published: United States 2024
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Abstract The plant endoplasmic reticulum forms a network of tubules connected by three-way junctions or sheet-like cisternae. Although the network is three-dimensional, in many plant cells, it is constrained to thin volume sandwiched between the vacuole and plasma membrane, effectively restricting it to a 2-D planar network. The structure of the network, and the morphology of the tubules and cisternae can be automatically extracted following intensity-independent edge-enhancement and various segmentation techniques to give an initial pixel-based skeleton, which is then converted to a graph representation. ER dynamics can be determined using optical flow techniques from computer vision or persistency analysis. Collectively, this approach yields a wealth of quantitative metrics for ER structure and can be used to describe the effects of pharmacological treatments or genetic manipulation. The software is publicly available.
AbstractList The plant endoplasmic reticulum forms a network of tubules connected by three-way junctions or sheet-like cisternae. Although the network is three-dimensional, in many plant cells, it is constrained to thin volume sandwiched between the vacuole and plasma membrane, effectively restricting it to a 2-D planar network. The structure of the network, and the morphology of the tubules and cisternae can be automatically extracted following intensity-independent edge-enhancement and various segmentation techniques to give an initial pixel-based skeleton, which is then converted to a graph representation. ER dynamics can be determined using optical flow techniques from computer vision or persistency analysis. Collectively, this approach yields a wealth of quantitative metrics for ER structure and can be used to describe the effects of pharmacological treatments or genetic manipulation. The software is publicly available.
Author Meyer, Andreas J
Fricker, Mark
Kriechbaumer, Verena
Aguilar, Carlos
Ugalde, José M
Breeze, Emily
Pain, Charlotte
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  organization: Department of Biological and Medical Sciences, Oxford Brookes University, Oxford, UK
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  givenname: Andreas J
  surname: Meyer
  fullname: Meyer, Andreas J
  organization: INRES-Chemical Signalling, University of Bonn, Bonn, Germany
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Keywords Endoplasmic reticulum morphology
Lunapark
Phase congruency
Network analysis
Persistency analysis
Reticulon
Endoplasmic reticulum dynamics
ER cisternae
Quantitative confocal imaging
Language English
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Snippet The plant endoplasmic reticulum forms a network of tubules connected by three-way junctions or sheet-like cisternae. Although the network is three-dimensional,...
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SubjectTerms Benchmarking
Cell Membrane
Endoplasmic Reticulum
Food
Plant Cells
Title Quantitation of ER Morphology and Dynamics
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